DeepMind 12 Behringer User Manual M EN

Behringer DEEPMIND 12 User Manual deepmind_12_m_en Behringer - DEEPMIND 12 - User Manual

Behringer DEEPMIND 12 User Manual deepmind_12_m_en Behringer - DEEPMIND 12 - User Manual

User Manual: Behringer DEEPMIND 12 User Manual Behringer - DEEPMIND 12 - User Manual

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User Manual

DeepMind 12

True Analog 12-Voice Polyphonic Synthesizer with

4 FX Engines, 2 OSCs and LFOs per Voice, 3 ADSR Generators,

8-Channel Modulation Matrix, 32-Step Sequencer,

Tablet Remote Control and Built-In WiFi

2DeepMind 12 User Manual

Table of Contents

Thank you........................................................................ 2

Important Safety Instructions ...................................... 3

Legal Disclaimer ............................................................. 3

Limited warranty ............................................................ 3

About the DeepMind 12 ................................................. 4

1. Introduction ............................................................... 5

2. Features ...................................................................... 5

3. Controls ...................................................................... 7

4. Program Management ............................................ 11

5. Playing Guide ........................................................... 15

6. Signal Path / Voice Structure ................................. 17

7. Menu System ............................................................ 19

8. Programming ........................................................... 36

9. E ects Reference Guide .......................................... 79

10. Short-cuts ............................................................. 102

11. Applications .........................................................103

12. DAW MIDI Con guration .....................................108

13. System Block Diagram ........................................109

14. Connection Wiring Diagrams ............................. 111

15. Technical Speci cations ...................................... 112

16. MIDI Commands .................................................. 113

17. MIDI NRPN Commands ........................................ 117

18. Global Commands ............................................... 120

19. MIDI SysEx Commands ........................................ 121

20. Firmware Update ................................................. 127

21. Troubleshooting .................................................. 127

22. Bootloader Menu ................................................. 128

23. De nition of Terms .............................................. 129

24. Appendix 1 - Octave Shifting ............................. 133

25. Appendix 2 - ARP/SEQ/LFO Sync Timing ........... 133

Thank you

Thank you very much for expressing your con dence in BEHRINGER products by

purchasing the DeepMind 12 analog polyphonic synthesizer—our True Analog

12-Voice Polyphonic Synthesizer with 4 FX Engines, 2 OSCs and LFOs per Voice,

3 ADSR Generators, 8-Channel Modulation Matrix, 32-Step Sequencer, Tablet

Remote Control and Built-In Wi-Fi.

3DeepMind 12 User Manual

Important Safety

Instructions

LEGAL DISCLAIMER

LIMITED WARRANTY

Terminals marked with this symbol carry

electrical current of su cient magnitude

to constitute risk of electric shock.

Use only high-quality professional speaker cables with

¼" TS or twist-locking plugs pre-installed. Allother

installation or modi cation should be performed only

by quali edpersonnel.

This symbol, wherever it appears,

alertsyou to the presence of uninsulated

dangerous voltage inside the

enclosure-voltage that may be su cient to constitute a

risk ofshock.

This symbol, wherever it appears,

alertsyou to important operating and

maintenance instructions in the

accompanying literature. Please read the manual.

Caution

To reduce the risk of electric shock, donot

remove the top cover (or the rear section).

No user serviceable parts inside. Refer servicing to

quali ed personnel.

Caution

To reduce the risk of  re or electric shock,

do not expose this appliance to rain and

moisture. The apparatus shall not be exposed to dripping

or splashing liquids and no objects  lled with liquids,

suchas vases, shall be placed on the apparatus.

Caution

These service instructions are for use

by quali ed service personnel only.

Toreduce the risk of electric shock do not perform any

servicing other than that contained in the operation

instructions. Repairs have to be performed by quali ed

servicepersonnel.

1. Read these instructions.

2. Keep these instructions.

3. Heed all warnings.

4. Follow all instructions.

5. Do not use this apparatus near water.

6. Clean only with dry cloth.

7. Do not block any ventilation openings. Install in

accordance with the manufacturer’s instructions.

8. Do not install near any heat sources such as

radiators, heat registers, stoves, or other apparatus

(including ampli ers) that produce heat.

9. Do not defeat the safety purpose of the polarized

or grounding-type plug. A polarized plug has two blades

with one wider than the other. A grounding-type plug

has two blades and a third grounding prong. The wide

blade or the third prong are provided for your safety. Ifthe

provided plug does not  t into your outlet, consult an

electrician for replacement of the obsolete outlet.

10. Protect the power cord from being walked on or

pinched particularly at plugs, convenience receptacles,

and the point where they exit from the apparatus.

11. Use only attachments/accessories speci ed by

themanufacturer.

12. Use only with the

cart, stand, tripod, bracket,

or table speci ed by the

manufacturer, orsold with

the apparatus. When a cart

is used, use caution when

moving the cart/apparatus

combination to avoid

injury from tip-over.

13. Unplug this apparatus during lightning storms or

when unused for long periods of time.

14. Refer all servicing to quali ed service personnel.

Servicing is required when the apparatus has been

damaged in any way, such as power supply cord or plug

is damaged, liquid has been spilled or objects have fallen

into the apparatus, the apparatus has been exposed

to rain or moisture, does not operate normally, or has

beendropped.

15. The apparatus shall be connected to a MAINS socket

outlet with a protective earthing connection.

16. Where the MAINS plug or an appliance coupler is

used as the disconnect device, the disconnect device shall

remain readily operable.

17. Correct disposal of this

product: This symbol indicates

that this product must not be

disposed of with household

waste, according to the WEEE

Directive (2012/19/EU) and

your national law. This product

should be taken to a collection center licensed for the

recycling of waste electrical and electronic equipment

(EEE). The mishandling of this type of waste could have

a possible negative impact on the environment and

human health due to potentially hazardous substances

that are generally associated with EEE. At the same time,

your cooperation in the correct disposal of this product

will contribute to the e cient use of natural resources.

For more information about where you can take your

waste equipment for recycling, please contact your local

city o ce, or your household waste collection service.

18. Do not install in a con ned space, such as a book

case or similar unit.

19. Do not place naked  ame sources, such as lighted

candles, on the apparatus.

20. Please keep the environmental aspects of battery

disposal in mind. Batteries must be disposed-of at a

battery collection point.

21. Use this apparatus in tropical and/or

moderate climates.

MUSIC Group accepts no liability for any loss

which may be su ered by any person who relies

either wholly or in part upon any description,

photograph, or statement contained herein.

Technical speci cations, appearances and other

information are subject to change without notice.

All trademarks are the property of their respective

owners. MIDAS, KLARK TEKNIK, LAB GRUPPEN, LAKE,

TANNOY, TURBOSOUND, TC ELECTRONIC, TC HELICON,

BEHRINGER, BUGERA and DDA are trademarks

or registered trademarks of MUSIC Group IP Ltd.

© MUSIC Group IP Ltd. 2017 All rights reserved.

For the applicable warranty terms and conditions

and additional information regarding MUSIC Group’s

Limited Warranty, please see complete details online at

music-group.com/warranty.

4DeepMind 12 User Manual

About the DeepMind 12

The DeepMind 12 is a True Analog 12-Voice Polyphonic Synthesizer with TC

ELECTRONIC / KLARK TEKNIK FX and iPad Remote Control.

The DeepMind 12 was created to serve the creative needs of players, performers,

artists, sound designers, engineers and producers.

The DeepMind 12 o ers all the features of a traditional analog polyphonic

synthesizer, and adds incredible new features to enhance and expand the creative

possibilities.

•

• Classic polyphonic synthesizer with 12 true analog oscillators for insanely fat

and authentic sounds.

•

• 4 simultaneous world-class TC ELECTRONIC and KLARK TEKNIK FX with over

30 algorithms including Reverb, Chorus, Flanger, Phaser, Delay and multi-

band Distortion.

•

• 12 voices with 2 OSCs per voice with oscillator sync mode 2 LFOs per voice

with 7 waveform shapes, key sync, MIDI sync and envelope auto-triggering.

•

• 3 ADSR generators per voice for control of VCF, VCA and MOD envelopes.

•

• Flexible 8-channel modulation matrix with 22 sources and 129 destinations

including e ects parameters.

•

• 32-step control sequencer with adjustable slew rate and MIDI sync.

•

• Full remote control via iPad*/PC/Mac and selected Android* Application over

USB, MIDI or built-in Wi-Fi for extended parameter control.

•

• 49 semi-weighted full-size keys featuring velocity sensitivity

and after-touch.

•

• Pure analog signal path with legendary IR3109-style VCFs and stereo VCAs.

•

• OSC 1 generates sawtooth and square/pulse waveforms with

pulse width modulation.

•

• OSC 2 generates square/pulse waveforms with tone modulation.

•

• Selectable dual slope 12/24 dB analog low pass  lter per voice with

adjustable resonance.

•

• Envelope faders seamlessly transform individual envelope segments

between linear, exponential and reverse exponential curves.

•

• Powerful unison and poly modes with detune, pan spread and drift

parameters featuring up to 12 voices per note.

•

• Global noise generator dramatically expands waveform generation.

•

• Incredible polyphonic portamento with  exible  xed rate,  xed time and

exponential pitch glide modes.

•

• Sophisticated arpeggiator with tap tempo button and user con gurable

pattern modes.

•

• Chord and Poly Chord memories enable polyphonic performances from

monophonic playing styles.

•

• Global variable 6 dB high pass  lter with bass boost switch.

•

• 26 sliders and one switch per function give direct and real-time access to all

important parameters.

•

• Spring-loaded pitch and assignable modulation wheels provide total

hands-on performance.

•

• LCD Display with encoder, navigation switches and data value fader for rapid

menu parameter editing and program selection.

•

• 1024 user program memories with "compare and match” feature to quickly

match all analog controls to values stored in program.

•

• Fully servo-balanced stereo outputs for highest signal integrity.

•

• CV/pedal input for connection to modular systems.

•

• Comprehensive MIDI implementation (including NRPN/CC control of all

parameters and bulk load/save).

•

• Integrated and con gurable Wi-Fi client / Access point allows easy and

secure connection to home network.

•

• 3-Year Warranty Program*.

•

• Designed and engineered in the U.K.

5DeepMind 12 User Manual

1. Introduction

The DeepMind 12 is a True Analog 12-Voice Polyphonic Synthesizer with 4 FX

Engines, 2 OSCs and LFOs per Voice, 3 ADSR Generators, 8-Channel Modulation

Matrix, 32-Step Sequencer, Tablet Remote Control and Built-In Wi-Fi.

The DeepMind 12 was created to serve the creative needs of players, performers,

artists, sound designers, engineers and producers.

The DeepMind 12 o ers all the features of a traditional analog polyphonic

synthesizer, and adds incredible new features to enhance and expand the

creative possibilities.

! This manual  rst describes the terminology used, so that

you understand the unit and its functions. Please read the manual

carefully and keep it for future reference.

1.1 Before you get started

1.1.1 Shipment

The DeepMind 12 was carefully packed in the factory to guarantee safe transport.

Nevertheless, we recommend that you carefully examine the packaging and

its contents for any signs of physical damage, which may have occurred during

transit.

! If the unit is damaged, please do NOT return it to us, but

notify your dealer and the shipping company im mediately, otherwise

claims for damage or replacement may not be granted.

1.1.2 Initial operation

Be sure that there is enough space around the unit for cooling purposes and, to

avoid over-heating, please do not place the DeepMind 12 on high-temperature

devices such as radiators or power amps.

* Blown fuses must only be replaced by fuses of the same

type andrating!

The console is connected to the mains via the supplied cable. It meets the

required safety standards.

◊

◊ Please make sure that all units have a proper ground connection.

For your own safety, never remove or disable the ground conductor

from the unit or the AC power cord.

1.2 The product manual

The product manual is designed to give you both an overview of the DeepMind 12

analog polyphonic synthesizer, as well as detailed information on each of the

controls and parameters. You will  nd an overview of the physical control

elements in the next chapter.

1.3 Preparation

! Remember to turn your monitors / loudspeakers on last

when powering up your system, and turn your monitors / loudspeakers

o  rst when powering down your system.

2. Features

2.1 Voices

•

• Twelve independent Voices.

•

• Two discrete OSCs per voice.

•

• OSC 1 : Simultaneous Sawtooth and Pulse / Square function.

•

• OSC 2 : Square with Tone Mod wave shape function.

•

• Variable Pulse width (OSC1) Tone Mod (OSC2) manual and variable

modulation depth for each OSC.

•

• Hard sync option: oscillator 2 either syncs to oscillator 1 or can free run.

•

• Variable Pitch o set for OSC2 (+/- 1 octave) for harmonic richness.

•

• Three octave ranges per OSC, 16", 8", 4".

•

• OSC drift amount for controllable tuning instability.

•

• Unison modes (1,2,3,4,6,12 voice) with detune for huge sounds.

•

• Variable Oscillator 2 level.

2.2 Filters

•

• 2/4 pole resonant Midas Low-Pass Filter.

•

• Continuous High-Pass Filter frequency.

•

• LP Filter can be driven into self-oscillation.

•

• Switchable Bi-polar  lter envelope depth.

•

• Variable Keyboard / Frequency tracking.

•

• Switchable +12 db Bass Boost for massive low end.

2.3 Envelopes

• Dedicated VCA, VCF and auxiliary (MOD) envelope Four-stage (ADSR)

envelope generator with continuously variable curves for unique  exibility.

• Trigger modes (Key, Loop, Control Sequencer, LFO1, LFO2).

2.4 LFO

•

• Two LFOs per voice.

•

• Variable slew rate.

•

• Mono / Poly / Spread modes for linking and unlinking LFO phase across

voices.

•

• High maximum LFO rate for cross mod type e ects.

•

• Sine, Triangle, Square, Ramp Up, Ramp Down, Sample and Hold,

Sample and Glide.

•

• Key Sync on/o .

•

• Clock sync (internal or external MIDI clock).

•

• Delay and Fade in Per LFO.

•

• High maximum LFO rate which can track note number via mod matrix for

cross mod type e ects.

2.5 VCA

•

• Stereo VCA per voice with overall pan spread control and individual voice

pan modulation.

6DeepMind 12 User Manual

2.6 E ects

•

• Over 30 high grade studio quality chainable e ects.

•

• E ects from TC Electronic, Behringer X32 and Midas Consoles.

•

• 4 E ects per Program.

•

• True bypass.

•

• Tap Tempo.

•

• Many e ect parameters are a destination in the Mod Matrix allowing endless

possibilities.

•

• 10 di erent E ects con gurations including shimmer routings with

feedback.

•

• TC-DeepVRB, Ambience, Room Rev, VintageRm, Hall Rev, Chamber Rev, Plate

Rev, Rich Plate, Gated Rev, Reverse, ChorusVerb, DelayVerb, FlangeVerb,

4Band EQ, Enhancer, FairComp, MulBndDist, RackAmp, EdisonEX1, Auto-Pan,

NoiseGate, Delay, 3TapDelay, 4TapDelay, T-RayDelay, ModDlyRev, Chorus,

Chorus-D, Flanger, Phaser, MoodFilter, Dual Pitch, RotarySpkr.

2.7 Mod Matrix

•

• 8 Mod matrix busses.

Modulation Sources (22):

•

• Pitch Bend, Mod Wheel, Foot Ctrl, Breath Controller, Pressure, LFO 1, LFO

2, VCA Envelope, VCF Envelope, Mod Envelope (Auxiliary Envelope), Note

Number, Note Velocity, Ctrl Sequencer, LFO1 (unipolar), LFO2 (unipolar), LFO1

Fade, LFO2 Fade, Note O Velocity, Voice Number, CC X-Axis, CC Y-Axis, CC

Z-Axis.

Modulation Destinations (122):

•

• LFO1 Rate, LFO1 Delay, LFO1 Slew, LFO2 Rate, LFO2 Delay, LFO2 Slew, OSC1+2

Pitch, OSC1 Pitch, OSC2 Pitch, LFO Depth, PWM Depth, Tone Mod Depth, OSC2

Pulse Modulation Depth, Portamento Time, VCF Frequency, VCF Resonance,

VCF Envelope, VCF LFO, All Envelope Rates, All Envelope Attacks, All Envelope

Decays, All Envelope Sustains, All Envelope Releases, Envelope (1-3) Rates,

Envelope (1-3) Curves, Envelope (1-3) Attack, Envelope (1-3) Decay, Envelope

(1-3) Sustain , Envelope (1-3) Release, Envelope (1-3) Attack Curve, Envelope

( 1-3) Decay Curve, Envelope (1-3) Sustain Curve , Envelope (1-3) Release

Curve, VCA All, VCA Active, VCA Envelope Depth, LFO Pan Spread, VCA Pan,

OSC2 Level, Noise Level, HP Frequency, Unison Detune, Modulation 1-8

Depth, E ects (1-4) All loaded FX Parameter(1-12).

2.8 Keyboard

•

• Full-sized, semi-weighted, 49-note keyboard with note on and o velocity,

and aftertouch.

•

• Backlit pitch and mod wheel.

•

• Spring-loaded pitch wheel with selectable range per program (1 to 24

semitones up and down).

•

• Transpose controls for an 8-octave range.

•

• Polyphonic Portamento.

2.9 PSU

•

• IEC mains connection - No Wall Wart.

2.10 Clock

•

• Master clock with tap tempo.

•

• BPM control and display.

•

• MIDI clock sync

2.11 Arpeggiator

•

• Variable Gate Time.

•

• Up to six octave range.

•

• 32 Preset and 32 User programmable rhythmic patterns with up to 32 steps

and rests.

•

• Variable swing function.

•

• Arpeggiator Modes :

•

• UP, DOWN, UP-DOWN ,UP-INV, DOWN-INV, UP-DN-INV, UP-ALT, DOWN-ALT,

RAND, AS-PLAYED, CHORD.

•

• User Pattern.

•

• Arp Clock options : 1/2, 3/8, 1/3, 1/4, 3/16, 1/6, 1/8, 3/32, 1/12, 1/16, 1/24,

1/32, 1/48.

•

• Hold switch latches held notes on.

2.12 Chord / Poly Chord

•

• Maps chords to trigger keys.

•

• Up to 12 notes per chord.

•

• Enough storage for 36x 6 note chords.

2.13 Control sequencer

•

• Up to 32 steps and rests. Output routable via the mod matrix.

2.14 Editor

•

• Comprehensive Apple iPad, Apple MacOS and Windows PC editor.

2.15 Program Memory

•

• 1024 Programs arranged in 8 Banks of 128 Programs.

2.16 Input / Output

•

• Built in USB Midi Interface.

•

• USB for iPad/PC/Mac connection MIDI.

•

• USB for bidirectional MIDI communication.

•

• Flexible MIDI routing.

•

• Expression Pedal / CV (0-5v) in.

•

• Left and right balanced audio outputs (2 x 1/4” TRS).

•

• Headphone output (stereo, 1/4” TRS).

•

• MIDI IN, OUT, and THRU ports.

•

• Con gurable Wi-Fi client / Access point allows easy and secure connection to

home network.

•

• Wireless control with RTP (Real-Time Protocol) MIDI support.

7DeepMind 12 User Manual

(5) (6) (7) (1) (3)

(20)

(19)

(18)

(17)

(16)

(15)

(14)

(2) (4) (8) (9) (10) (11) (12)

(13)

(20)

3. Controls

3.1 Top Controls

8DeepMind 12 User Manual

(1) DISPLAY - this large backlit LCD screen shows the synthesizer status,

parameters, and the  ve main menus. The contrast and brightness are

adjustable on the PANEL SETTINGS page of the GLOBAL menu.

(2) NAVIGATION - navigate within the display menus using the UP, DOWN, +/

YES and -/NO buttons.

(3) MENUS - these switches allow access to the display menus.

PROG MENU- the main display of the synthesizer. Shows the current

program, the currently adjusted parameter and a visual representation of

the parameter and the three envelopes.

FX MENU - add up to four e ects from the list available. Change the e ects

routing by selecting one of the ten MODEs available. Each of the e ects has

individual controls for all parameters.

GLOBAL MENU - view and adjust settings for the synthesizer. There are

 ve pages, CONNECTIVITY, KEYBOARD, PEDAL, PANEL and SYSTEM.

COMPARE MENU - in this menu, you can compare the current program

with the stored program and see the di erence in physical fader positions.

WRITE MENU - in this menu, you can write the current program settings

to the program library. You can also rename the program and set its

category type.

(4) DATA ENTRY - selected parameters on the display are adjusted using the

rotary knob or the fader. The rotary knob has a click which allows very

accurate control. The fader allows rapid adjustment across the full range.

MOD- this switch opens the modulation matrix on the display and allows

up to 8 modulations to be created from the list of sources and destinations.

(5) ARP/SEQ - this area controls the arpeggiator and the control sequencer.

ON/OFF - when activated, this generates an arpeggio based on pressed

keys. Note - the control sequencer is turned on from its edit page only.

RATE - adjusts the rate of the arpeggiator / sequencer in beats per minute

(BPM).

GATE TIME - adjusts the duration of the note played based on a

percentage of the time between triggered notes.

CHORD - allows you to play any chord with a single key. The chord is given

a root note and mapped across the keyboard.

POLY CHORD - allows you to play multiple chords from multiple keys. The

chords are mapped to individual keys.

TAP/HOLD - tap this button in time with your performance to set the rate/

BPM, or press and hold to engage the HOLD function.

EDIT - this allows additional arpeggiator/control sequencer parameters to

be edited from the main display.

(6) LFO 1 and 2- low frequency oscillators used to modulate or control other

parameters.

RATE- this sets the rate, or speed of the LFO.

DELAY TIME - the duration of time which will elapse before the LFO starts.

EDIT - this allows additional LFO parameters to be edited from the main

display.

LFO WAVEFORMs - these LEDs indicate the type and status of the

waveforms produced by each LFO.

(7) OSC 1 & 2 - These analog full range oscillators create waveforms which are

the sound source of the synthesizer.

OSC 1 & 2 PITCH MOD - amount of pitch modulation applied to

respective OSC.

OSC 1 SQUAREWAVE- this switch turns the square wave output for

OSC 1 on/o .

OSC 1 PWM - amount of pulse width modulation applied to

the OSC 1 square wave.

OSC 1 SAWTOOTH- this switch turns the sawtooth output for OSC 1 on/o .

OSC 2 TONE MOD- amount of tone modulation applied to OSC 2.

OSC 2 PITCH- controls the base pitch of OSC 2.

OSC 2 LEVEL- controls the level of OSC 2.

NOISE LEVEL- controls the amount of white noise added to the oscillators.

EDIT- this allows additional OSC parameters to be edited from

the main display.

(8) POLY - this area is used to control the polyphony of the synthesizer.

UNISON DETUNE - when voices are playing in unison, this adjusts the

amount of detuning between the voices.

EDIT- this allows additional POLY parameters to be edited from

the main display.

(9) VCF - the voltage controlled low pass  lter used to  lter high frequencies

from the sound of the synthesizer.

FREQ - adjusts the cut-o frequency of the  lter.

2-POLE - changes the roll o slope of the  lter from the default 4-POLE

mode to a 2-POLE mode.

RES - adjusts the resonance of the  lter cut-o point.

EDIT - allows additional VCF parameters to be edited from

the main display.

ENV - adjusts the level of the VCF ENVELOPE which controls the

 lter cut-o frequency.

INVERT - used to invert the polarity of the VCF envelope applied to the

 lter cut-o frequency.

LFO - adjusts the depth of the selected LFO waveform applied to the  lter

cut-o frequency.

KYBD - adjusts the amount of keyboard tracking to be applied to the  lter

cut-o frequency.

(10) VCA - the voltage controlled ampli er used to control the output level.

LEVEL - controls the output level of the VCA.

EDIT - this allows additional VCA parameters to be edited from

the main display.

(11) HPF - the voltage controlled high pass  lter used to  lter low frequencies

from the sound of the synthesizer.

FREQ - used to adjust the frequency of the high pass  lter.

BOOST - this switch applies a +12 dB bass boost to the signal path

(12) ENVELOPE - these are the three envelopes used to modulate

other parameters.

A [ATTACK]- controls the attack time of the envelope.

D [DECAY] - controls the decay time of the envelope.

S [SUSTAIN] - controls the sustain level of the envelope.

R [RELEASE] - controls the release time of the envelope.

VCA - selects the envelope used to control the voltage controlled ampli er.

9DeepMind 12 User Manual

(22) (21)

(23) (24) (25) (26) (27) (28) (29) (30)

VCF - selects the envelope used to control the voltage controlled  lter.

MOD - selects the envelope used for user speci c modulation.

CURVES - changes the ADSR controls to a ect the associated curves for

each stage of the envelope.

(13) VOICES - these LEDs show which voices are active as keys are played.

(14) OCTAVE - these LEDs show the octave shift applied to the keyboard.

(15) PORTAMENTO - changes the slide time between played notes.

(16) VOLUME - controls the output level of the synthesizer.

(17) OCTAVE UP/DOWN - raise or lower the keyboard’s pitch range in

steps of an octave.

(18) PITCH BEND WHEEL - this spring loaded wheel allows you to lower / raise

the pitch expressively.

(19) MOD WHEEL - used for expressive modulation of parameters.

(20) KEYS - 49 semi-weighted full-size keys featuring expressive velocity and

after-touch.

3.2 Rear Panel

10 DeepMind 12 User Manual

Rear Panel

(21) POWER INPUT - connect using the supplied power cable only.

(22) POWER SWITCH - use this to turn the synthesizer on and o . Only turn it

on after all connections have been made.

(23) OUTPUT L / R - this is the main output of the synthesizer. It should be

connected to your audio interface or sound system. Remember to turn your

monitors / loudspeakers on last when turning on your system and turn

your monitors / loudspeakers o  rst when turning your system o .

(24) PHONES - the headphones output of the synthesizer follows the main

output. Connect your headphones here. Ensure the volume control is at

minimum when putting on headphones or when turning the synthesizer

on or o .

(25) SUSTAIN - this ¼" TS jack allows you to connect a sustain pedal, such as a

normally-open switch.

The operation of this pedal can be customized using the GLOBAL /

PEDAL SETTINGS menu.

(26) PEDAL/CV - this ¼" TRS jack allows you to connect an expression pedal.

The operation of this pedal can be customized using the GLOBAL / PEDAL

SETTINGS menu.

(27) MIDI IN - this 5-pin DIN jack receives MIDI data from an external source.

This will commonly be an external hardware sequencer, a computer

equipped with a MIDI interface, etc.

(28) MIDI OUT - this 5-pin DIN jack sends MIDI data to an external source. This

will commonly be an external hardware sequencer, a computer equipped

with a MIDI interface, etc.

(29) MIDI THRU - this 5-pin DIN jack is used to pass through MIDI data received

at the MIDI INPUT. This will commonly be sent to another synthesizer or

drum machine assigned to a di erent DEVICE ID, or MIDI Channel.

(30) USB PORT - this USB type B jack allows connection to a computer. The

DeepMind 12 will show up as a class-compliant USB MIDI device, capable

of supporting MIDI in and out. The DeepMind 12 does not require any

additional drivers to work with Windows, Android, MacOS and iOS devices.

USB MIDI IN - accepts incoming MIDI data from an application.

USB MIDI OUT - sends MIDI data to an application.

11 DeepMind 12 User Manual

4. Program Management

This chapter covers the program management for the DeepMind 12 analog

polyphonic synthesizer. It is important to understand how to manage your

programs and maintain your library.

4.1 Program Library

The DeepMind 12 contains a total of 1,024 programs. There are 8 Banks (A-H)

of 128 programs. All programs can be overwritten as required, please consult

the chapter on restoring factory defaults if you need to return the DeepMind 12

program library to its original state.

All current changes from the stored program are stored in temporary "Editing

Memory". The changes are also placed into "Backup Memory" which can be used

to recover unsaved programs.

Note: The DeepMind 12 Programs are stored in EEPROM memory and will be

retained through a power cycle.

4.2 Selecting Programs

Press the PROG switch to open the PROG menu. This is also the screen which will

be displayed when the DeepMind 12 is turned on.

The PROG (Programming) page will be displayed:

The PROG (Programming) page is the main display of the synthesizer. It shows

the current program name, the category name, the currently adjusted parameter

and a visual representation of the parameter plus the three envelopes.

There are three methods of changing the current program:

•

• Step forwards/backwards through programs using the -NO and+YES

switches, or by stepping up and down through the banks using the BANK/UP

and BANK/DOWN switches.

•

• Using the program browser.

•

• From an external device using a MIDI program change message.

4.2.1 Using the Navigation Switches

Pressing -NO or +YES will load the previous/next program in the bank.

Pressing BANK/UP to BANK/DOWN will change banks.

4.2.2 Using the Program Browser

To access the program browser, press and hold the PROG switch, then move the

rotary knob (or press the GLOBAL switch).

Note: a help menu will appear while the PROG switch is held, showing additional

guidance and commands:

The program browser will then appear:

When in program browser mode you can use the rotary knob to scroll through

the list of programs. When you stop on a program it will be automatically loaded.

Banks A-H

Programs 1-128

Editing Memory

12 DeepMind 12 User Manual

4.2.3 Using MIDI Program Change messages

You can change the program using a MIDI program change message. This special

MIDI message can be sent from your Digital Audio Workstation (DAW) or from an

external MIDI device which is capable of transmitting program change messages.

For details on the message please consult the section on MIDI commands.

4.3 Program Categories

Each program is assigned to a category from the list of options below:

•

• NONE - No category information is stored.

•

• BASS - Used for bass sounds.

•

• PAD - Used for pad sounds.

•

• LEAD - Used for lead sounds.

•

• MONO - Used for monophonic sounds.

•

• POLY - Used for polyphonic sounds.

•

• STAB - Used for stab sounds.

•

• SFX - Used for sound e ects.

•

• ARP - Used for programs with the arpeggiator active.

•

• SEQ - Used for programs with sequencing.

•

• PERC - Used for percussion sounds.

•

• AMBIENT - Used for ambient or texture sounds.

•

• MODULAR -Used for programs with modular type programming.

•

• USER-1/4 - Used for user/project speci c sounds..

For information on how to assign a category, please consult the section on

writing programs.

4.4 Browsing by Category

To access the program browser, press and hold the PROG switch.

Note: a help menu will appear while the PROG switch is held, showing additional

guidance and commands:

To change programs, while you have the PROG switch held you can press the

LEFT/RIGHT switches to select the PREVIOUS/NEXT programs within the category.

To change categories, while you have the PROG switch held you can press the UP/

DOWN switches to select the PREVIOUS/NEXT category.

Note: While the PROG switch is held you can still see the category changes

displayed behind the pop-up menu.

4.5 Default Program

In order to return to a  xed point when creating programs you recall a default

program using the short-cut described here. The default program is con gured

without modulation/e ects and uses basic settings in each of the sections.

To load the default program, press and hold the PROG switch, then press the

COMPARE switch.

Note: a help menu will appear while the PROG switch is held, showing additional

guidance and commands.:The default program will then be loaded.

4.6 Revert to Panel

When you load a program, all the physical controls on the DeepMind 12 may not

match the position stored in memory. In order to send all the physical positions

to the program (rather than moving each individually until you reach the

stored value), follow the procedure below:

Warning: When you do this the sound/character of the program will often

change radically as the multiple parameters are updated.

To revert to the panel controls, press and hold the PROG switch, then press the

WRITE switch.

Note: a help menu will appear while the PROG switch is held, showing additional

guidance and commands:

The current program will then be updated with the positions of the physical

controls on the DeepMind 12.

13 DeepMind 12 User Manual

4.7 Restoring Program Data

If you edit a program and forget to write it before selecting a new program -

don't panic - a backup of the program is stored in memory. Whenever this

happens a pop-up menu will appear with a message saying "Press COMPARE to

restore edits":

By pressing the COMPARE switch your previously editing patch will be

re-instated.

You will then see another pop-up message reminding you to press WRITE to store

your edits:

4.8 Writing Programs

To write a program to memory press the WRITE switch to open the WRITE

PROGRAM menu.

The WRITE PROGRAM menu will then appear:

In this menu you can use the -NO/+YES switches to navigate through the

sections. The selected section will be highlighted by an inverted character (white

on black).

The  rst section is the program location the current program will be saved.

You can use the UP/DOWN switches, the rotary knob, or the fader to select the

required BANK (A-H) and PROGRAM NUMBER (1-128).

The second section is the CATEGORY to select any of the available categories.

Again you can use the UP/DOWN switches, the rotary knob, or the fader to select

the required CATEGORY.

The third section is REPLACED BY which allows you to name the program to be

written. You can use the -NO/+YES switches to step through each character of the

name and use the UP/DOWN switches, the rotary knob, or the faders to change

the character.

There are also two short-cuts for selecting characters indicated by text above the

FX and GLOBAL switches:

a-A-0 - Pressing the FX switch will cycle between lower-case, upper-case and

numbers.

DEL - Pressing the GLOBAL switch will delete the currently selected character.

Note: These short-cuts only appear when you are editing the name of the

REPLACED BY program.

To compare the current program with the intended program location you can

press the COMPARE switch to listen to the di erence. To return to the current

program, press the compare switch again.

Once you have selected the new location and named the program simply press

the WRITE switch again to write the program.

At anytime you decide you do not want to write the program, you can press the

PROG switch to return to the main programming display.

Note: If there is a program in the backup memory then you will see the message

"COMPARE to clear backup".

If you wish to listen to the intended program location as described earlier you will

need to press the COMPARE switch to clear the backup memory. Once the backup

has been cleared then the message will revert to "COMPARE to listen" and you

can listen to the intended program location as normal.

4.9 Re-naming Programs

To rename a program simply follow the procedure for writing a program and

keep the BANK and PROGRAM NUMBER the same.

14 DeepMind 12 User Manual

4.10 The COMPARE function

The COMPARE feature has two main functions:

Firstly you can use it to COMPARE the current (edited) program with the original

program.

Secondly you can use it to COMPARE and/or match the current position of the

physical faders on the surface with the original program. This is necessary when

you wish to maintain the sound/character of the program.

To perform both functions simply press the COMPARE switch.

Note: If you have not edited the program (i.e. changed some parameters) when

you press the COMPARE switch you will restore the backup as described in a

previous chapter.

Firstly the sound/character will return to its original state so that you can

compare your edits.

Note: If you do not want to match the fader positions you can simply press

COMPARE again to return to programming.

Secondly, you now have the option to match the position of the physical faders to

the positions stored in the original program.

You will then see a page of the COMPARE menu (page 1 is displayed below). The

page shown will be the last page you used. If you have never used the COMPARE

function since turning the DeepMind 12 on, it will default to page 1.

Each page of the COMPARE menu shows a section of the faders.

If the position of the fader matches the position of the stored value the fader will

be black.

If the fader does not match the position it will be white with a superimposed

arrow pointing in the direction it needs to move in order to approach the

stored value.

There is also a white bar to show how far the fader needs to move in order to

match the stored value.

Once the fader reaches the stored position it will turn black to indicate it is now

matched.

Note: The pages will switch automatically when you begin to adjust any

of the faders.

There are four pages of faders in the COMPARE menu, to access the other pages

use the +/- switches to select the previous/next pages.

Page 1 Shows the ARP/SEQ and LFO faders:

Page 2 shows the OSC faders:

Page 3 shows the UNISON, VCF, HPF and VCA faders:

Page 4 shows the ENVELOPE faders:

Note: You can still select speci c envelopes to match the faders depending on

your requirements.

15 DeepMind 12 User Manual

5. Playing Guide

This section describes the use of the DeepMind 12 for playing and performance. It

covers all the main aspects of the synthesizer.

There are 64 physical controls on the DeepMind 12 made up of illuminated

switches, faders, rotary knobs and wheels.

There are also many virtual controls/parameters and menu based controls

within the software, please consult the section on programming for detailed

information.

5.1 Display

The PROG (Programming) page is the main display of the synthesizer.

During playing the display can show the status of the synthesizer when the PROG

switch is pressed. The PROG switch will be illuminated when you are in this mode.

Being able to see all this information on one screen allows you to quickly check

any of the following parameters shown on the display:

(1) PROGRAM BANK ("A "in the example above).

(2) PROGRAM NUMBER ("1" in the example above).

(3) PROGRAM NAME ("Default Program" in the example above.

(4) PROGRAM CATEGORY ("NONE" in the example above).

(5) SEQ STATUS / MASTER BPM EXTERNAL / BPM ( "OFF", "MIDI","140.0" in the

example above).

(6) PARAMETER CONTROL ("POLY UNI" in the example above).

(7) CURRENT PARAMETER MIDI VALUE (255 in the example above).

(8) STORED PARAMETER VALUE (20 in the example above).

(9) CURRENT PARAMETER EXPLICIT NAME/VALUE ( "DETUNE +/-50.0cents" in the

example above).

(10) PARAMETER VISUALIZATION (the UNISON waveform in the example above).

(11) VCA ENV VISUALIZATION (VCA ENV in the example above).

(12) VCF ENV VISUALIZATION (VCF ENV in the example above).

(13) MOD ENV VISUALIZATION (MOD ENV in the example above).

Note: The brightness and contrast of the display can be adjusted in the

GLOBAL-PANEL SETTINGS menu.

For more detail on the PROG screen and the status of the synthesiser, please

consult the programming section later in this manual.

5.2 Keyboard (Velocity/Aftertouch)

The DeepMind 12 has 49 semi-weighted full-size keys featuring expressive

velocity and after-touch.

The keyboard spans four octaves with the ability to shift octaves up or down to

meet your playing requirements.

The aftertouch and velocity expression can have individual curves applied to their

response in order to  ne tune your playing style/requirements.

The velocity is expressive in two ways:

The (NOTE) ON VELOCITY - i.e. The velocity that you strike the keys.

The (NOTE) OFF VELOCITY - i.e. The velocity that you release the keys.

The ON/OFF velocities can be set to a  xed value if required which will override

the velocity of the strike and release values.

Note: The settings to adjust the response curves and  xed values can be found in

the GLOBAL-KEYBOARD SETTINGS menu.

Note: You can also turn o the keyboard's LOCAL messages allowing you to play

an external device, without a ecting the DeepMind 12.

5.3 Pitch Bend and Modulation Wheels

PITCH WHEEL - The pitch wheel allows you to lower or raise the pitch of the

notes being played expressively.

The range of the PITCH BEND can be assigned in the second page of the POLY

menu (accessed by pressing the POLY switch twice).

The pitch wheel is spring loaded and will naturally return to its centre point after

you adjust it and release the wheel.

MODULATION WHEEL - The modulation wheel allows you to apply any type of

modulation or expression to a single (or multiple) parameters.

For traditional playing this can be used to create vibrato, or in a more creative

way e.g. to open the  lter by assigning to the VCF FREQUENCY.

The wheels are illuminated so that they can be seen even in low light conditions.

They can be  xed on, turned o or placed in AUTO mode which will increase the

LED intensity as the wheel is moved.

For more detail on controlling advanced parameters relating to the PITCH WHEEL

and the MODULATION WHEEL please consult the section later in this manual.

(2) (3)

(7)

(8)

(4)

(13)

(5)

(6) (10)

(11) (12)

(1)

(9)

16 DeepMind 12 User Manual

5.4 Octave Shift (OCT UP/DOWN)

These switches allow you to raise or lower the keyboard’s pitch range in steps of

one octave.

The LEDs above the switches labelled OCTAVE will show the current octave shift

applied to the keyboard.

Pressing both switches together will reset to Octave 0 (no transpose).

5.5 Voice Indication

The DeepMind 12 has 12 independent voices. There are 12 LEDs above the

keyboard showing the status of each voice.

When playing in traditional POLY mode the voice LEDs will light individually using

the full polyphonic capabilities.

When playing in any of the UNISON or MONO modes the voice LEDs will light

simultaneously depending on the number of voices allocated.

Note: The settings to adjust the polyphony and voice allocation can be found in

the POLY-VOICE PARAMETERS menu.

5.6 Portamento

The PORTAMENTO function makes the pitch of a note glide up or down from

the previously played note. The PORTAMENTO knob controls the time taken to

transition from the previous note to the currently played note.

The knob ranges from 0 seconds (instant change of note, with no pitch gliding) to

10 seconds.

The PORTAMENTO function can be tuned to your speci c playing requirements by

way of 14 di erent modes.

The PORTAMENTO function can also be balanced between the OSCs, allowing you

to set the ratio of PORTAMENTO applied to OSC 1 and OSC 2.

For more detail on controlling advanced parameters relating to PORTAMENTO

please consult the section later in this manual.

5.7 Volume

The volume knob controls the output level for both the main outputs

and the headphones simultaneously. If you  nd the need to compensate

the main output level, please do so using your gain stage on your mixer,

audio interface or ampli er.

5.8 Pedal Input (Rear Panel)

The pedal input is a ¼ " TRS jack that allows you to connect an expression pedal.

The pedal input can be assigned to operate in one of  ve modes: FOOT CONTROL,

MOD WHEEL, BREATH, VOLUME or EXPRESSION.

The operation of this pedal can be customized using the GLOBAL / PEDAL

SETTINGS menu.

For more detail on controlling advanced parameters relating to the pedal input

please consult the section later in this manual.

5.9 Sustain Input (Rear Panel)

The sustain input is a ¼" TS jack that allows you to connect a sustain pedal, such

as a normally-open switch.

The sustain input can be assigned to operate in one of several modes. For more

information please consult the PEDAL SETTINGS section later in this document.

The operation of this pedal can be customized using the GLOBAL / PEDAL

SETTINGS menu.

For more detail on controlling advanced parameters relating to the sustain input

please consult the section later in this manual.

5.10 Slide Fader Operation Modes

The slide faders can operate in two modes: PASS-THRU or JUMP.

For more detail on controlling the way the slide faders respond when adjusted,

please consult the section later in this manual.

Note: You can also turn o the faders LOCAL messages allowing you to control an

external device, without a ecting the DeepMind 12.

17 DeepMind 12 User Manual

6. Signal Path / Voice Structure

The signal path / voice structure from the OSCs to the main outputs is completely analog. The DSP e ects can be bypassed completely to maintain the analog path.

When routed through the DSP e ects all sampling is done at 24-Bit 48 kHz. All internal DSP e ects are processed at 32/40-Bit  oating point resolution.

VCF Env VCA Env

VCF VCA

Key Pitch

OSC-1

Arpeggiator

Noise

OSC-2

FX

1234

HPF BOOST

ANALOG PATH

DIGITAL PATH

Volume

Main Outputs &

Headphones

MODE

INSERT

SEND

BYPASS

ANALOG PATH

OFF

ON

ON

DIGITAL PATH

ON

ON

OFF

18 DeepMind 12 User Manual

Mod Matrix

The Modulation Matrix is a large scale digital routing matrix which allows a massive number of potential modulations. The matrix con guration is stored and recalled

with the program data.

MIDI Routing

The DeepMind 12 o ers extreme MIDI routing possibilities, allowing you to integrate the synthesizer with many di erent pieces of hardware and software.

Modulation

Destinations

Modulation

Sources 8x8 Mod Matrix

22,880 Possible Modulations (All Automatable)

22 SOURCES

130 DESTINATIONS

MOD Env

LFO1&2

Control Sequencer

ROUTING LEVELS

SOFT-THRUSOFT-THRU

MIDI>USB-THRU

MIDI>WIFI-THRU

USB>MIDI-THRU

USB>WIFI-THRU

WIFI>MIDI-THRU

WIFI>USB-THRU

Keyboard Data

Control Data

Wi-Fi

USB

MIDI IN

Wi-Fi

USB

MIDI THRU

MIDI OUT

SOFT-THRUMIDI-CTRL

USB-CTRL

WIFI-CTRL

19 DeepMind 12 User Manual

7. Menu System

The DeepMind 12 Display allows you to access the detailed parameters, controls,

options and features of the synthesizer.

Navigating the MENU system can be done by pressing the top level menu

switches PROG, FX, GLOBAL, COMPARE and WRITE.

Note: The FX and GLOBAL menus have several pages, to access successive pages

simply press the same switch again to cycle through the pages.

Note: The DeepMind 12 will always return you to the last page within a menu

that was accessed. This way you can return to your last change without needing

to cycle though the previous pages. Note: You can change this functionality using

the REMEMBER PAGES option in the GLOBAL SETTINGS.

7.1 PROG (Programming Menu)

To access the PROG menu, press the PROG switch, the PROG switch will remain

illuminated while you are in this menu.

The PROG (Programming) menu will then be shown:

The PROG (Programming) page is the main display of the synthesizer.

During playing the display can show the status of the synthesizer when the PROG

switch is pressed.

Being able to see all this information on one screen allows you to quickly check

any of the following parameters shown on the display:

7.1.1 PROGRAM BANK

(1) ("A "in the example diagram) - There are 8 BANKS of PROGRAMs, each BANK

contains 128 program locations. The DeepMind 12 comes pre-loaded with

1024 programs from leading synthesizer programmers from around the

world.

7.1.2 PROGRAM NUMBER

(2) ("1" in the example diagram) - There are 128 PROGRAMs in each BANK.

7.1.3 PROGRAM NAME

(3) ("Default Program" in the example diagram) - The PROGRAM name can use

up to 16 characters, including uppercase, lowercase, numbers and symbols.

Note: When you see the '*' symbol at the start of a PROGRAM name this

indicates that the PROGRAM has been edited/changed from its stored state.

Once you complete your editing and WRITE the program, the '*' symbol will no

longer be shown.

7.1.4 PROGRAM CATEGORY

(4) ("NONE" in the example diagram) - Each PROGRAM can be assigned to a one

of 17 categories. By assigning a category to a PROGRAM, it helps browsing

for a particular type of sound much easier.

The available categories are listed here:

•

• NONE - No category information is stored.

•

• BASS - Used for bass sounds.

•

• PAD - Used for pad sounds.

•

• LEAD - Used for lead sounds.

•

• MONO - Used for monophonic sounds.

•

• POLY - Used for polyphonic sounds.

•

• STAB - Used for stab sounds.

•

• SFX - Used for sound e ects.

•

• ARP - Used for programs with the arpeggiator active.

•

• SEQ - Used for programs with sequencing.

•

• PERC - Used for percussion sounds.

•

• AMBIENT - Used for ambient or texture sounds.

•

• MODULAR -Used for programs with modular type programming.

•

• USER-1 - Used for user/project speci c sounds.

•

• USER-2 - Used for user/project speci c sounds.

•

• USER-3 - Used for user/project speci c sounds.

•

• USER-4 - Used for user/project speci c sounds.

For information on how to assign a category, please consult the section on

writing programs.

(2) (3)

(7)

(8)

(4)

(13)

(5)

(6) (10)

(11) (12)

(1)

(9)

20 DeepMind 12 User Manual

7.1.5 SEQ STATUS, MIDI SYNC SOURCE, BPM VALUE

(5) It is important to note that on this line there are three separate pieces of

information:

•

• SEQ STATUS ("SEQ" in the example diagram) - This shows the status of

the CONTROL SEQUENCER. If the letters SEQ are inverted (white on a black

background) then the CONTROL SEQUENCER is ON. If the letters SEQ appear as

normal text the CONTROL SEQUENCER is OFF. Note: The CONTROL SEQUENCER

ON/OFF control can only be adjusted from the CONTROL SEQUENCER MENU

described later in this document.

•

• MASTER BPM SOURCE ("MIDI" in the example diagram) - The Master

BPM can be generated internally (shown as "INT"), or the DeepMind 12 can

synchronize to an incoming MIDI clock signal from the MIDI IN socket (shown

as "MIDI"), or USB ports (shown as "USB"). If the letters are inverted (white

on a black background) then the clock is synchronised to the external source.

If the letters appear as normal text the external source is not present and

the DeepMind 12 will use its internal Master BPM until the external source is

present. Note: The settings for the MIDI SYNC can be found in the EDIT page

of the ARPEGGIATOR described later in this document.

•

• BPM VALUE ("BPM:120.0" in the example diagram) - The Arpeggiator,

Control Sequencer and Patterns use a system wide Master BPM (Beats Per

Minute) Clock. The BPM is shown and will auto update if using an external

synchronisation source.

7.1.6 PARAMETER CONTROL

(6) ("POLY UNI" in the example diagram) - This is a fader representation of the

parameter which is currently being adjusted (or was last adjusted). The

name of the parameter is also shown:

If the position of the fader matches the position of the stored value the fader will

be black.

If the fader does not match the position it will be white with a superimposed

arrow pointing in the direction it needs to move in order to approach the stored

value.

When the fader does not match the position there is also a white bar to show

how far the fader needs to move in order to match the stored value.

Note: If the physical fader position is close to the stored value the white bar can

be obscured by the fader.

7.1.7 CURRENT PARAMETER MIDI VALUE

(7) (255 in the example diagram) - This is the value of the parameter which is

currently being adjusted (or was last adjusted).

Note: The parameter is displayed here as a simple value (0-255) which allows you

to quickly compare current and stored values. For explicit values please see the

area at the bottom of the page discussed later in this chapter.

7.1.8 STORED PARAMETER VALUE

(8) (20 in the example diagram) - This is the stored value of the parameter

which is currently being adjusted (or was last adjusted).

The stored parameter is shown in reverse text (i.e. white on a black background)

7.1.9 CURRENT PARAMETER NAME/VALUE

(9) ("DETUNE +/-50.0cents" in the example diagram) - In this area you will see

more detailed information on the parameter being adjusted.

The enhanced information contains:

•

• A more detailed description of the parameter being adjusted.

•

• A more accurate value of the parameter being adjusted.

•

• The type of units used for the value (cents in the example above,

but could be Hz for frequency etc.).

7.1.10 PARAMETER VISUALIZATION

(10) (The UNISON waveform in the example diagram) - This area shows a

visualization of the parameter being adjusted (or last adjusted).

These visualizations are designed to:

•

• Help anyone with limited experience to achieve a deeper understanding of

each of the parameters while learning the synthesizer.

•

• Help the experienced player/sound designer/programmer to work quickly

and get visual con rmation about the adjustment being made.

7.1.11 VCA ENV VISUALIZATION

(11) (VCA ENV in the example diagram) - This area shows a visualization of the

VCA envelope. The full Attack, Decay, Sustain, Release and their respective

curves are represented.

7.1.12 VCF ENV VISUALIZATION

(12) (VCF ENV in the example diagram)- This area shows a visualization of the VCF

envelope. The full Attack, Decay, Sustain, Release and their respective curves

are represented.

7.1.13 MOD ENV VISUALIZATION

(13) (MOD ENV in the example diagram) - This area shows a visualization of the

MOD envelope. The full Attack, Decay, Sustain, Release and their respective

curves are represented.

21 DeepMind 12 User Manual

7.2 FX (E ects Menu)

The on-board virtual FX Rack provides access to four true-stereo, multi-e ects

processors including delay, chorus, dynamics and production-quality true-stereo

reverbs.

You can select any combination of high-end simulations of legendary studio

e ects.

7.2.1 FX OVERVIEW

To access the FX menu simply press the FX switch:, the FX switch will be

illuminated when you are in this menu.

The display will then show the FX OVERVIEW menu:

To navigate within the FX OVERVIEW menu, navigate within the display menus

using the UP, DOWN, +/YES & -/NO switches.

Selected parameters on the display are adjusted using the rotary knob or the

fader. The rotary knob has a click which allows very accurate control. The fader

allows rapid adjustment across the full range.

The options available in the FX OVERVIEW menu are as follows:

FX ROUTING - At the top of the FX OVERVIEW menu you will see the FX ROUTING

shown as a series of 4 boxes representing the individual e ects.

In order to expand the sonic possibilities of the DSP FX inside the DeepMind 12

there are several routing options for the four slots.

! Warning: The routings with feedback are highly creative,

but as they employ feedback loops, careful consideration should be

made while using them. It is recommended to keep the VOLUME knob in

a low position while experimenting.

FX MODE - This allows you to choose if the e ects are to be con gured in INSERT

MODE, SEND(and Return) MODE, or to BYPASS the e ects.

FX SLOTS - These are the four slots you can load e ects modules into.

MIX - The MIX parameter controls how much of the original sound is blended

with the e ected/processed sound for each FX slot.

LEVEL - The LEVEL parameter controls the output level of any e ects which are

con gured in parallel, or any e ects which are the last e ect before reaching the

output stage.

To exit the FX menu press the PROG switch to return to the main programming

screen.

Note: To reduce the possibility of excessive low frequency build up there is

a 30 Hz High Pass Filter used in the feedback path for routing options which

include feedback.

7.2.2 SELECTING FX ROUTING

To select a routing make sure that the '<' symbol is highlighted next to the

routing diagram, then you can either turn the rotary knob, or use the data entry

fader to select from one of the following routings:

SERIAL 1-2-3-4 (M-1)

PARALLEL 1/2 SERIAL 3-4 (M-2)

PARALLEL 1/2 PARALLEL 3/4 (M-3)

PARALLEL 1/2/3/4 (M-4)

PARALLEL 1/2/3 SERIAL 4 (M-5)

SERIAL 1-2 PARALLEL 3/4 (M-6)

SERIAL 1 PARALLEL 2/3/4 (M-7)

PARALLEL (SERIAL 1-2-3)/4 (M-8)

SERIAL 3-4 FEEDBACK4(1-2) (M-9)

SERIAL 4 FEEDBACK4(1-2-3) (M-10)

!

!

22 DeepMind 12 User Manual

7.2.3 SELECTING FX MODE

To select an e ects MODE make sure that the '<' symbol is highlighted next to

the e ects MODE symbol, then you can either turn the rotary knob, or use the

data entry fader to select from one of the following routings.

INSERT - In this con guration the e ects slots are placed as INSERT e ects into

the signal  ow of the synthesizer outputs.

SEND - In this con guration the synthesizer output signals are SENT to the e ects

slots and the returned into the signal  ow of the synthesizer outputs.

BYPASS - In this con guration the e ects are bypassed.

7.2.4 SELECTING FX

To load an e ect into a slot, make sure that the '<' symbol is highlighted next to

the slot you wish to use. Then you can either turn the rotary knob, or use the data

entry fader to select from one of the following e ects:

No Name Type

1 TC-DeepVRB Reverb

2 Ambience Reverb

3 Room Rev Reverb

4VintageRev Reverb

5 Hall Rev Reverb

6 Chamber Rev Reverb

7Plate Rev Reverb

8 Rich Plate Reverb

9Gated Rev Reverb

10 Reverse Reverb

11 ChorusVerb Reverb

12 DelayVerb Reverb

13 FlangeVerb Reverb

14 4Band EQ Processing

15 Enhancer Processing

16 FairComp Processing

17 MulBndDist Processing

18 RackAmp Processing

19 EdisonEX1 Processing

20 Auto-Pan Processing

21 NoiseGate Processing

22 Delay Delay

23 3TapDelay Delay

24 4TapDelay Delay

25 T-RayDelay Delay

26 DecimDelay Delay

27 ModDlyRev Delay

28 Chorus Creative

29 Chorus-D Creative

30 Flanger Creative

31 Phaser Creative

32 MoodFilter Creative

33 Dual Pitch Creative

34 RotarySpkr Creative

When you stop on an e ect it is automatically loaded into the chosen slot.

Warning: If you have made edits to any of the parameters within an e ect you

will be shown a pop-up warning dialog (unless dialogs are disabled in the

GLOBAL MENU):

If you need to save your changes, press the -NO switch and then WRITE the

PROGRAM as described in the chapter on writing programs.

If you don't need to save your changes, press the +/YES switch and continue

selecting a new e ect.

7.2.5 CONTROLLING MIX / LEVEL

To adjust the MIX parameters make sure that the '<' symbol is highlighted next to

the word MIX on the e ect slot you want to adjust. Then you can either turn the

rotary knob, or use the data entry fader to change the value.

7.2.6 CONTROLLING LEVEL

To adjust the LEVEL parameters make sure that the '<' symbol is highlighted next

to the word LEVEL on the e ect slot you want to adjust. Then you can either turn

the rotary knob, or use the data entry fader to change the value.

Note: Not all e ects have a MIX parameter as it is only used on e ects which

are marked as "Processing" types in the E ects List. Also, be aware that the MIX

parameter seen on the FX OVERVIEW and the MIX parameter in the FX editing

pages are the same parameter and are shown in both pages for convenience.

If the either the MIX or LEVEL parameter is not available you will see the "--"

symbols in the FX OVERVIEW screen.

7.2.7 FX PAGES1-4

Each of the e ects pages show individual controls for each e ect slot. There are

up to 12 parameters per slot, depending on the e ect which is loaded.

Note: To access successive FX pages simply press the same switch again to cycle

through the pages.

7.2.8 ADJUSTING EFFECTS PARAMETERS

To navigate to the parameter you wish to adjust, use the UP/DOWN/+/- switches.

The selected parameter will be highlighted in black and its detail shown on the

bottom of the screen. To adjust a parameter you can either turn the rotary knob,

or use the data entry slider.

Note: For detailed information on all e ects and their parameters please consult

the EFFECTS LIBRARY section later in this document.

23 DeepMind 12 User Manual

7.2.9 COPY/PASTE FX SETTINGS

If you need to copy e ects settings from a previously stored e ect, please follow

this procedure.

1) Ensure you have saved any edits you have made to your current program

if required.

2) Load the program which has the e ects settings you intend to copy.

3) Navigate to the 1, 2, 3, 4  ow diagram near the top of the FX screen.

4) Press the FX switch to enter the FX page.

5) Press and hold the FX switch until you see the following message and

the GLOBAL/WRITE switches are  ashing:

6) While continuing to hold the FX switch, press the GLOBAL switch to copy

the e ects settings into memory.

7) Then load the program you intend to paste the e ects settings to.

8) Press the FX switch to enter the FX page.

9) Press and hold the FX switch until you see the following message:

10) While continuing to hold the FX switch, press the WRITE switch to copy

the e ects settings from memory into the program.

Note: All settings relating to e ects will be copied/pasted, these include FX

routing, FX modes and all of the FX slots and their settings.

7.2.10 MOVING EFFECTS

If you need to move an e ect to a di erent slot, please follow this procedure.

1) Ensure you have saved any edits you have made to your current program

if required.

2) Press the FX switch to enter the FX page.

3) Navigate to the e ects slot you wish to move.

4) Press and hold the FX switch until you see the following message and

the BANK UP/DOWN switches begin  ashing:

5) While continuing to hold the FX switch, you can move the e ects slot

to another location using one of these methods:

•

• To move the slot to an adjacent upper slot press the BANK/UP switch.

•

• To move the slot to an adjacent lower slot press the BANK/DOWN switch.

•

• To move the slot to any other slot, turn the rotary knob.

You can continue to move the slot with any of the methods above, the new slot

will be highlighted as shown below:

6) Once you release the FX switch the e ect will be moved to the new slot.

Note: All e ects parameters will be moved with the e ect.

24 DeepMind 12 User Manual

GLOBAL (Global Menu)

Within the GLOBAL menu there are  ve pages:

•

• CONNECTIVITY - All settings relating to connectivity and communication

with external devices including backup and restore functions.

•

• KEYBOARD SETTINGS - All settings relating to the keyboard including

aftertouch and velocity.

•

• PEDAL SETTINGS - All settings relating to the pedal inputs.

•

• PANEL SETTINGS - All settings relating to panel (local), faders, dialogs,

menu functionality, and display brightness and contrast.

•

• SYSTEM SETTINGS - All system settings, including versions, fan speed,

calibration, and backup.

This chapter covers each of the pages in detail.

Note: To access successive GLOBAL pages simply press the GLOBAL switch again

to cycle through the pages. There is a help message on the bottom of each screen

to show you what the next menu will be if you press the GLOBAL switch again.

To access the GLOBAL menu simply press the GLOBAL switch, the switch will

remain illuminated while you are in this menu:

The display will then show the GLOBAL menu.

Note: The  rst time you access the GLOBAL menu after turning on the DeepMind

12, you will see the CONNECTIVITY page. Whenever you access the GLOBAL menu

after that point, you will be returned to the last page you visited within the menu

system. This feature is reset when the unit is powered o .

Note: The page location memory function can be turned o using the

REMEMBER PAGES function in the PANEL SETTINGS menu.

7.2.11 CONN EC TIVIT Y

In this menu there are all the settings relating to connectivity and

communication with external devices including backing up and restoring

programs and data.

To navigate the options in the CONNECTIVITY menu, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range.

DEVICE ID - This is MIDI Device Identi er (ID) which is used to identify the device.

This is important when multiple devices are present in a system, and ensures

that the device in question responds to the system exclusive messages which are

solely for the device in question.

The DEVICE ID can be any number from 1-16.

To change the DEVICE ID, make sure that the '<' symbol next to the DEVICE ID

number is highlighted. Then you can either turn the rotary knob, or use the data

entry slider.

MIDI SETTINGS MENU - This menu contains settings for the MIDI sockets on the

rear of the DeepMind 12.

To access the MIDI SETTINGS menu, make sure that the '<' symbol on the MIDI

SETTINGS line is highlighted. Then press the +/YES switch, you will now see the

MIDI SETTINGS menu.

•

• MIDI-CTRL - This option sets the MIDI CONTROLLER communication mode

for the DeepMind 12 MIDI sockets on the rear of the synthesizer. You can

choose O (No controller messages will be sent), Cc (Continuous Controller)

or NRPN (Non-Registered Parameters).

Note: Both MIDI and NRPN data is always received and actioned.

Note: For more information on controlling the DeepMind 12 via MIDI,

please consult the section on MIDI later in this document.

•

• PROG-CHANGE - This option sets the PROGRAM CHANGE communication

mode for the DeepMind 12 MIDI sockets. You can choose from the following

options:

RX - Program change messages will be received only.

TX - Program changes will be transmitted only.

RX-TX - Program changes will be transmitted and received.

NONE - No program change messages will be sent or received.

•

• RX-CHANNEL - This option sets the MIDI channel that will be used to

RECEIVE MIDI messages. The CHANNEL can be any number from 1-16.

•

• TX CHANNEL - This option sets the MIDI channel that will be used to

TRANSMIT MIDI messages. The CHANNEL can be any number from 1-16

•

• SOFT-THRU - This option enables PASS-THRU mode from the MIDI INPUT

socket to the MIDI OUTPUT socket. The options are On or O .

•

• MIDI>USB-THRU - This option enables PASS-THRU mode from the MIDI

INPUT socket to the USB host. The options are On or O .

•

• MID>WIFI-THRU - This option enables PASS-THRU mode from the MIDI

INPUT socket to the WIFI connection. The options are On or O .

To exit this menu press the GLOBAL switch to return to the CONNECTIVITY menu.

25 DeepMind 12 User Manual

USB SETTINGS MENU- This menu contains settings for the USB port on the rear

of the DeepMind 12.

To access the USB SETTINGS menu, make sure that the '<' symbol on the USB

SETTINGS line is highlighted. Then press the +/YES switch, you will now see the

USB SETTINGS menu..

•

• USB-CTRL - This option sets the MIDI CONTROLLER communication mode for

the DeepMind 12 USB port on the rear of the synthesizer. You can choose O

(No controller messages will be sent), Cc (Continuous Controller) or NRPN

(Non-Registered Parameters.

Note: Both MIDI and NRPN data is always received and actioned.

Note: For more information on controlling the DeepMind 12 via USB-MIDI,

please consult the section on MIDI later in this document.

•

• PROG-CHANGE - This option sets the PROGRAM CHANGE communication

mode for the DeepMind 12 USB host port. You can choose from the following

options:

RX - Program change messages will be received only.

TX - Program changes will be transmitted only.

RX-TX - Program changes will be transmitted and received.

NONE - No program change messages will be sent or received.

•

• RX-CHANNEL - This option sets the MIDI channel that will be used to

RECEIVE MIDI messages. The CHANNEL can be any number from 1-16.

•

• TX CHANNEL - This option sets the MIDI channel that will be used to

TRANSMIT MIDI messages. The CHANNEL can be any number from 1-16.

•

• USB>MIDI-THRU - This option enables PASS-THRU mode from the USB port

to the MIDI-THRU socket. The options are On or O .

•

• USB>WIFI-THRU - This option enables PASS-THRU mode from the USB port

to the WIFI host. The options are On or O .

To exit this menu press the GLOBAL switch to return to the CONNECTIVITY menu.

WIFI SETTINGS MENU- This menu contains settings for the WIFI connection of

the DeepMind 12.

To access the WIFI SETTINGS menu, make sure that the '<' symbol on the WIFI

SETTINGS line is highlighted. Then press the +/YES switch, you will now see the

WIFI SETTINGS menu

•

• WIFI-CTRL - This option sets the MIDI CONTROLLER communication mode

for the DeepMind 12 WIFI connection. You can choose O (No controller

messages will be sent), Cc (Continuous Controller) or NRPN (Non-Registered

Parameters.

Note: Both MIDI and NRPN data is always received and actioned.

Note: For more information on controlling the DeepMind 12 via WIFI-MIDI

please consult the section on MIDI later in this document.

•

• PROG-CHANGE - This option sets the PROGRAM CHANGE communication

mode for the DeepMind 12 WIFI connection. You can choose from the

following options:

RX - Program change messages will be received only.

TX - Program changes will be transmitted only.

RX-TX - Program changes will be transmitted and received.

NONE - No program change messages will be sent or received.

•

• RX-CHANNEL - This option sets the MIDI channel that will be used to

RECEIVE MIDI messages. The CHANNEL can be any number from 1-16.

•

• TX CHANNEL - This option sets the MIDI channel that will be used to

TRANSMIT MIDI messages. The CHANNEL can be any number from 1-16.

•

• WIFI>MIDI-THRU - This option enables PASS-THRU mode from the WIFI

connection to the MIDI-THRU socket. The options are On or O .

•

• WIFI>USB-THRU - This option enables PASS-THRU mode from the WIFI

connection to the USB host. The options are On or O .

To exit this menu press the GLOBAL switch to return to the CONNECTIVITY menu.

26 DeepMind 12 User Manual

NETWORK SETTINGS MENU- This menu contains settings for the WiFi

connection of the DeepMind 12.

The DeepMind 12 supports the Real-Time MIDI (RTP) protocol for use with

network devices/applications.

To access the NETWORK SETTINGS menu, make sure that the '<' symbol on the

NETWORK SETTINGS line is highlighted. Then press the +/YES switch, and you

will now see the NETWORK SETTINGS menu:

There are three modes for the NETWORK connection:

•

• O - Network connection is disabled.

•

• Client - This mode allows the DeepMind 12 to act as a client so that it can

connect to an access point.

•

• Access Point (Software Enabled Access Point) - The DeepMind 12 can create

an access point which will allow clients/devices to connect to it.

The default mode for the NETWORK connection is O . This mode persists across

power cycles.

Client Mode - When Client mode is selected, additional options are displayed:

To navigate the options in Client mode, use the UP and DOWN switches.

In order to change any of the parameters, make sure that the '<' symbol is on the

respective line, and press the +YES switch to edit.

•

• ENABLE - This shows the current state of the Client Mode connection - there

are 4 states: Disconnected, Connecting, Connected, and Disconnecting.

It is possible to initiate a connection using the YES switch, and cancel a

connection using the NO switch.

•

• SSID and Password - These are the SSID and Password strings the

DeepMind12 uses to connect to the desired network. Editing the values of

these strings will bring up a text editing pop up dialog.

When editing any of the details, the dialog allows you to enter alphanumeric

characters and also shows CANCEL, DELETE, CAPS LOCK and INSERT options.

Once you have changed the details to your requirements, press the OK switch

to con rm the settings.

•

• IP - Shows the IP address assigned to the DeepMind12 by the DHCP server

running on the Access Point it is connected to.

Access Point Mode - When this mode is selected, additional options

are displayed:

In Access Point mode, you will need to enter the details of the access point you

wish to create.

To navigate the options in Access Point mode, use the UP and DOWN switches.

In order to change any of the parameters make sure that the '<' symbol is on the

respective line, and press the +YES switch to edit.

•

• ENABLE - This shows the current state of the Access Point connection - there

are 7 states: Disabled, Enabling, Enabled, Disabling, Connecting, Connected,

and Disconnecting. It is possible to enable the AP using the YES switch, and

disable the AP using the NO switch. Once the AP is enabled, the connection

status of any client that connects to the DeepMind12 will be shown as either

Connecting, Connected, or Disconnecting. It is possible to reject a client that

has already connected, by pressing NO.

•

• SSID and Password - These are the SSID and Password strings the

DeepMind12 uses to create the Access Point network. Editing the values of

these strings will bring up a text editing pop up dialog:

When editing any of the details, the dialog allows you to enter alphanumeric

characters and also shows CANCEL, DELETE, CAPS LOCK and INSERT options.

Once you have changed the details to your requirements, press the OK switch

to con rm the settings.

•

• IP - Shows the IP address the DeepMind12 uses for the Access Point.

•

• Channel - This shows the Wireless channel used by the Access Point.

27 DeepMind 12 User Manual

SYSEX EXPORT MENU- This menu contains settings for the EXPORT menu of the

DeepMind 12.

Note: Backing up your data is an important factor when working with the

DeepMind 12. It allows you to keep a safe copy of your programming, manage

settings depending on your use, and share your work with others.

To access the SYSEX EXPORT menu, press the GLOBAL switch until the

CONNECTIVITY menu appears. Make sure that the '<' symbol on the EXPORT line

is highlighted. Then press the +/YES switch, you will now see the

SYSEX EXPORT menu.

•

• DESTINATION - This option sets the communication mode for the DeepMind

12 SYSTEM EXCLUSIVE (SysEx) messages.

Midi - SysEx messages will be transmitted from the MIDI sockets on the rear

of the synthesizer).

USB - SysEx messages will be transmitted to the USB host.

WiFi - SysEx messages will be transmitted to the WiFi connection.

•

• DUMP TYPE - This option sets the type of data which be exported. You can

choose from the following:

Prog - A single PROGRAM.

Bank - An entire BANK of 128 PROGRAMs.

EditProg -The PROGRAM in the EDIT BUFFER, i.e. the program you are

currently working on.

Glob - The GLOBAL settings, useful if you need di erent settings depending

on your location/activity/requirements).

UserPat - Any one of the 32 USER PATTERNs from the Arpeggiator.

EditPat -The current PATTERN stored in the EDIT BUFFER, i.e. the PATTERN

which is assigned in the program you are currently working on.

AllPat - All user PATTERNs.

All - All Banks, Programs, Patterns, and Global Settings.

CalData - The data from the calibration routine.

•

• DUMP BANK - You can select the appropriate BANK here, from one of the 8

available (A-H). This option is only available when exporting.

•

• SOURCE - You can select the appropriate PROGRAM or PATTERN here. This

option is only available when exporting.

•

• SYSEX DUMP (EXPORTING) - Pressing the +/YES switch while this option is

selected will initiate the EXPORT based on the selected options.

To exit this menu press the GLOBAL switch to return to the CONNECTIVITY menu.

To exit the CONNECTIVITY menu press the PROG switch to return to the main

programming screen, or press GLOBAL to cycle to the KEYBOARD SETTINGS menu.

7.2.12 KEYBOARD SETTINGS

Note: To access successive GLOBAL pages just press the GLOBAL switch again to

cycle through the pages.

In this menu there are all the settings relating to keyboard.

To navigate the options in the KEYBOARD SETTINGS menu, use the UP and DOWN,

switches.

In order to change any of the parameters make sure that the '<' symbol on the

respective line is highlighted.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range.

LOCAL - This option turns LOCAL CONTROL for the DeepMind 12 keyboard ,

aftertouch, pitch wheel and modulation wheel On and O . It is sometimes

useful to turn LOCAL CONTROL o when using the DeepMind 12 to control other

hardware/software synthesizers, e ects and/or applications.

OCTAVE - This option allow you to adjust the OCTAVE setting for the keyboard.

The OCTAVE setting a ects the whole keyboard.

The default setting is 0, which means if you play the lowest note it will be a C2.

The OCTAVE can be adjusted from -2 to +2, allowing you to use the 49 keys to

access the full eight octaves (98 keys).

Please refer to Appendix 1 - Octave Shifting at the end of this document for a

diagram.

FIXED-ON-VEL - This option  xes the NOTE ON VELOCITY at a set value, so that

regardless of how hard you strike the note, the value will always be the same. The

higher the value, the higher the volume of the note. The value can range from

0-127. When this option is set to O , the NOTE ON VELOCITY will be dependant

upon how hard you strike the note.

Note: The NOTE ON VELOCITY sensitivity can be adjusted in the VCA edit page.

Please refer to the VCA section later in this document for more details.

FIXED-OFF-VEL - This option  xes the NOTE OFF VELOCITY at a set value, so

that regardless of how fast you release the note, the value will always be the

same. The higher the value, the higher the volume of the note. The value can

range from 0-127. When this option is set to O , the NOTE OFF VELOCITY will be

dependant upon how fast you release the note.

Note: The NOTE OFF VELOCITY is only available within the MOD MATRIX as a

MODULATION SOURCE. It is not used elsewhere in the synthesizer. Please refer to

the MOD MATRIX section later in this document for more details.

28 DeepMind 12 User Manual

VEL CURVE - You can adjust the response curve for the VELOCITY here. The Hard

setting will reduce the dynamic range of played notes. The Soft setting will

increase the dynamic range of played notes.

The default setting is Soft.

AFT-CURVE - You can adjust the response curve for the AFTERTOUCH here. The

Hard setting will reduce the dynamic range of key pressure. The Soft setting will

educe the dynamic range of key pressure.

The default setting is Soft.

Note: The DeepMind 12 keyboard sends "Channel Aftertouch", meaning the MIDI

message created is common to all keys.

WHEEL-LEDS - Both the PITCH WHEEL and the MODULATION WHEEL have the

possibility to be illuminated, depending on your requirements. You can control

the illumination mode here by selecting one of the following options:

Auto - In this mode, the illumination will get brighter as the respective wheel is

moved, reaching its brightest point at the end of its travel.

On - In this mode the illumination is  xed on.

O - In this mode the illumination is turned o .

The default setting is Auto.

To exit this menu press the PROG switch to return to the main

programming screen, or press GLOBAL to cycle to the PEDAL SETTINGS menu.

7.2.13 PEDAL SETTINGS

In this menu there are all the settings relating to PEDAL/CV and SUSTAIN inputs

on the rear of the DeepMind 12.

To navigate the options in the PEDAL SETTINGS menu, use the UP and DOWN

switches.

In order to change any of the parameters make sure that the '<' symbol on the

respective line is highlighted.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range.

PEDAL/CV - This option allows you to choose the PEDAL/CV MODE from the

following options:

The PEDAL/CV input can work with a typical foot pedal, where the voltage is

supplied by the DeepMind 12 and fed back at a level which is dependant on the

position of the pedal. The further the pedal is pressed, the higher the voltage.

The PEDAL/CV input can also work with a CV (Control Voltage) input

from any source with a 0 to +5V output e.g. the Control Voltage from a

modular synthesizer.

Note: For wiring diagrams and pin connections information please consult the

guide later in this document.

The PEDAL input takes the voltage from the connector and turns it into a control

signal. The control signal can be mapped to any of the following:

•

• Foot-ctrl - The Foot-Ctrl (Foot Controller) is available as a modulation source

in the MOD MATRIX.

•

• Mod-Wheel - Here the PEDAL input is mapped to the MODULATION WHEEL

which is available as a modulation source in the MOD MATRIX.

•

• Breath - Here the PEDAL input is mapped to the BREATH controller which is

available as a modulation source in the MOD MATRIX.

•

• Volume - Here the PEDAL input is mapped to the VOLUME controller.

•

• Expression - Here the PEDAL input is mapped to the EXPRESSION controller.

The default setting is Foot-ctrl.

SUSTAIN - This option allows you to choose the SUSTAIN MODE from the

following options:

The SUSTAIN input can work with a switched input which is either open when

pressed, or closed when pressed.

Soft

Med

Hard

Velocity Sensitivity Curve Settings

Strike Speed

Slow Fast

Velocity

AfterTouch Sensitivity Curve Settings

Key Pressure

Velocity

Soft

Med

Hard

Soft Hard

29 DeepMind 12 User Manual

Gate Functionality - The SUSTAIN input can also be used with a GATE signal

from a CV and GATE interface or a modular synthesizer. This functionality requires

the GATE signal to operate between +5V and 0V.

Note: For wiring diagrams and pin connections information please consult the

guide later in this document.

•

• Norm-Open Here when the connected switch is pressed the notes are held

in the SUSTAIN stage of all ENVELOPEs. In this mode the correct operation is

designed for a switch whose contacts close when pressed.

•

• Norm-Closed Here when the connected switch is pressed the notes are held

in the SUSTAIN stage of all ENVELOPEs. In this mode the correct operation is

designed for a switch whose contacts open when pressed.

•

• Tap-N.O Here the SUSTAIN input is mapped to the TAP function so when

the switch is pressed a signal is sent to the Master BPM Generator. In this

mode the correct operation is designed for a switch whose contacts close

when pressed.

•

• Tap-N.C Here the SUSTAIN input is mapped to the TAP function so when

the switch is pressed a signal is sent to the Master BPM Generator. In this

mode the correct operation is designed for a switch whose contacts open

when pressed.

•

• Arp+Gate Here the SUSTAIN input is mapped to the ARPEGGIATOR notes, so

when a GATE input from a CV & GATE interface, or a modular synthesizer is

connected, the gate signal will step though the notes of the ARPEGGIATOR.

In this mode the ARPEGGIATOR note duration is set by length of time that the

gate signal is high (+5V).

•

• Arp-Gate Here the SUSTAIN input is mapped to the ARPEGGIATOR notes, so

when a GATE input from a CV & GATE interface, or a modular synthesizer is

connected, the gate signal will step though the notes of the ARPEGGIATOR.

In this mode the ARPEGGIATOR note duration is set by length of time that the

gate signal is low (0V).

•

• Seq+Gate Here the SUSTAIN input is mapped to the CONTROL SEQUENCER

steps, so when a GATE input from a CV & GATE interface, or a modular

synthesizer is connected, the gate signal will move though the steps of the

CONTROL SEQUENCER. In this mode the CONTROL SEQUENCER will transition

to the next step each time a positive edge (a transition from 0V to 5V)

is received.

•

• Seq-Gate Here the SUSTAIN input is mapped to the CONTROL SEQUENCER

steps, so when a GATE input from a CV & GATE interface, or a modular

synthesizer is connected, the gate signal will move though the steps of the

CONTROL SEQUENCER. In this mode the CONTROL SEQUENCER will transition

to the next step each time a negative edge (a transition from 5V to 0V)

is received.

•

• Arp&Seq+Gate Here the SUSTAIN input is mapped to the ARPEGGIATOR

notes, and to the CONTROL SEQUENCER steps. When a GATE input from a CV

& GATE interface, or a modular synthesizer is connected, the gate signal will

step though the notes of the ARPEGGIATOR, and also move though the steps

of the CONTROL SEQUENCER. In this mode the ARPEGGIATOR note duration

is set by length of time that the gate signal is high (+5V). Also in this mode

the CONTROL SEQUENCER will transition to the next step each time a positive

edge (a transition from 0V to 5V) is received.

•

• Arp&Seq-Gate Here the SUSTAIN input is mapped to the ARPEGGIATOR

notes, and to the CONTROL SEQUENCER steps. When GATE input from a CV &

GATE interface, or a modular synthesizer is connected, the gate signal will

step though the notes of the ARPEGGIATOR, and also move though the steps

of the CONTROL SEQUENCER. In this mode the ARPEGGIATOR note duration is

set by length of time that the gate signal is low (0V). Also in this mode the

CONTROL SEQUENCER will transition to the next step each time a negative

edge (a transition from 5V to 0V) is received.

The default setting is Norm-Open.

To exit this menu press the PROG switch to return to the main programming

screen, or press GLOBAL to cycle to the PANEL SETTINGS menu.

7.2.14 PANEL SETTINGS

PANEL-LOCAL - This option turns LOCAL CONTROL for the DeepMind 12 panel

controls (including all faders, non menu edit switches and portamento knobs)

On and O . It is sometimes useful to turn LOCAL CONTROL o when using

the DeepMind 12 to control other hardware/software synthesizers, e ects

and/or applications.

The default setting is On.

FADER MODE - This option allows you to choose the mode in which the faders

respond when you initially move a fader which has a di erent physical position to

the stored value. You can choose one of the following options:

•

• Pass-thru - In this mode, when the fader is moved, it will need to "Pass-

thru" the stored value before it will start to change.

•

• Jump - In this mode, when the fader is moved the value of the parameter

will "Jump" to the physical position of the fader.

The default setting is Jump.

INFO DIALOGS - This option allows you to disable the pop-up dialogs and

messages which are designed to aid you while learning how the DeepMind 12

operates. The default setting is Enable.

CYCLE TO PROG - When this option is turned On, the menu cycle function will

return you to the programming screen. When this option is O , the menu cycle

function will return you to the  rst menu page. The default setting is On.

REMEMBER PAGES - With this option turned on your position in any menu

will be remembered so that you return to the same position you left. When this

option is o , any access of a menu will always position you in the  rst menu page.

The default setting is On.

BRIGHTNESS - This option allows you to control the brightness of the display.

The range is 0-100, with 0 being dim and 100 being the brightest setting. This is

useful if you are operating in low light conditions and want to protect your vision,

or if you are working under strong lighting conditions and want to maximise

viability.

The default setting is 100.

CONTRAST - This option allows you to control the contrast of the display. The

range is 0-14, with 0 being least contrast and 14 being the most contrast. This is

useful to compensate for di erent viewing angles, and/or light conditions.

The default setting is 10.

To exit this menu press the PROG switch to return to the main programming

screen.

30 DeepMind 12 User Manual

7.2.15 SYSTEM SETTINGS

Note: To access successive GLOBAL pages just press the GLOBAL switch again to

cycle through the pages.

In this menu are all the SYSTEM SETTINGS of the DeepMind 12. These include

VERSION NUMBERS of the hardware/ rmware, settings for the fan speed and

access to the CALIBRATION routines.

To navigate the options in the SYSTEM SETTINGS menu, use the UP and DOWN

switches.

In order to change any of the parameters make sure that the '<' symbol on the

respective line is highlighted.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range.

HOST-VER - This is the version number of the host  rmware.

VOICE-VER - This is the version number of the voice circuit board.

DSP-VER - This is the version of the DSP  rmware.

BOOT-VER - This is the version of the bootloader used to initialize the synthesizer.

WIFI-VER - This is the version of the WiFI.

FAN-SPEED - This allows you to adjust the fan speed. The fan speed is adjustable

from 0 (o ) to 255 (maximum). Adjust the fan speed to suit your listening

conditions and preference. If the local temperature is high, please make sure

that the fans are not turned o . The DeepMind 12 is equipped with 2 fans, one

internal and one at the rear. At an approximate setting of 40 the internal fan is

running and the rear fan is o .

7.2.16 CALIBRATE

This menu allows you to perform CALIBRATION of the VOICES, MOD WHEEL, PITCH

WHEEL, AFTERTOUCH and PEDAL INPUT.

To navigate the options in the CALIBRATION menu, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range.

In order to start a calibration routine make sure that the '<' symbol on the

appropriate CALIBRATE line is highlighted and press the +/YES switch.

The DeepMind 12 has 12 voices. Each voice has its own LFO, OSC, VCF, ENV and

VCA stages.

The CALIBRATION routine is used for the Voice checking, OSC wave shapes, VCF

self-oscillation, Pulse Width modulation and the VCA bias.

VCF - Unlike many other synthesizers, the DeepMind 12 is capable of

accurate pitch tracking even when the  lter resonance is pushed to (and

past) the point where the  lter starts to self-oscillate. When using this self-

oscillating feature of the VCF as a sound source, the VCF calibration ensures

the correct response when playing the entire scale of the keyboard.

The DeepMind 12 VCFs are calibrated at the factory during production.

However, because its  lters are voltage controlled and can be a ected

by extremes of temperature, you may need to use the built-in calibration

function to  ne tune them occasionally. Calibration may also be required

after a  rmware upgrade or when being requested to do so by an authorised

Behringer support technician.

OSC - The DeepMind 12 OSCs are calibrated at the factory during production.

The oscillators are discrete analog circuits but they are digitally controlled.

Compared to a Voltage Controlled oscillator (VCO), the OSC has far superior

stability, especially when they have a very high frequency, low-jitter master

clock sources, as used in the DeepMind 12. This stage calibrates the slope of

the sawtooth waveform to ensure even volume and pulse-width across the

full range of the synthesizer.

This means that the OSCs should never need re-calibrating except for after

a  rmware upgrade or being requested to do so by an authorised Behringer

support technician.

31 DeepMind 12 User Manual

CALIBRATE VOICES

Overview of the calibration routines:

ALL - This will initiate all of the routine.

VOICE CHECK - This performs a series of functionality tests on each voice.

VCF - This routine puts the voice into self oscillation and tunes to 1 kHz in order to

calibrate the resonance of the VCF for that voice. The routine then puts the voice

into self oscillation and checks the tuning at 50 Hz, 220 Hz, 880 Hz and 10 kHz to

ensure the VCF is performing as expected. The test is repeated for all voices.

OSC - This routine adjusts the slope of the sawtooth at octave intervals. This

ensures the precision of the slope so that it performs as designed. The test is

repeated for all voices.

PW - This routine adjusts the pulse width (mark to space ratio) of the pulsewave.

This ensures the precision of the ratio so that it performs as designed. The test is

repeated for all voices.

VCA - The Voltage Controlled Ampli er (VCA) uses a bias voltage to set its

operating level. This bias voltage is balanced so that the VCA responds as

designed. The test is repeated for all voices.

In order to start the calibration routine make sure that the '<' symbol on the

appropriate CALIBRATE line is highlighted and press the +/YES switch.

Note: The calibration run time is shown on the bottom of the screen so that you

can plan your work around any of the calibration phases.

The calibration routine will then start. Throughout the tests you will see various

waveforms being played. It is safe to turn down the volume while the calibration

routine is running.

Note: There is the option while the calibration is running to mute the signal

using the BANK/DOWN switch and un-mute using the BANK/UP switch.

Once the calibration routine is complete you will see a summary of the test

results as shown below:

Note: During the calibration the GLOBAL and -/NO switches will be  ashing. If

at any time you want to cancel the calibration routine, you can press the -/NO

switch. No previous calibration data will be changed if you do cancel the routine.

CAL MOD WHEEL

To calibrate the MOD WHEEL, please use the following process:

Note: During the calibration the GLOBAL, -NO and +/YES switches will be

 ashing. If at any time you want to cancel the calibration routine, you can press

the -/NO switch. No previous calibration data will be changed if you do cancel the

routine. To con rm the calibration at each stage press +/YES as described below.

First move the MOD WHEEL to its minimum position (shown on the panel)

In order to start the calibration routine make sure that the '<' symbol on the CAL

MOD WHEEL line is highlighted and press +/YES.

You will see the following display showing a bar representing the MOD WHEEL

value. Also on this screen you can see the stored calibration data above the bar

and the current value below the bar.

Then move the MOD WHEEL to its maximum position (shown on the panel).

You will see the following display showing the new position of the MOD WHEEL

and the associated values:

Note: To cancel the routine you can press the -/NO switch.

To con rm the CALIBRATION of the MOD WHEEL, press the +/YES switch: The

calibration data will then be stored for the MOD-WHEEL and you will be returned

to the CALIBRATE menu. From here you can perform another calibration from the

menu, or press the GLOBAL switch again to return to the SYSTEM SETTINGS menu.

CAL PITCH WHEEL

To calibrate the PITCH WHEEL, please use the following process:

In order to start the calibration routine make sure that the '<' symbol on the CAL

PITCH WHEEL line is highlighted and press +/YES.

You will see the following display showing a bar representing the PITCH WHEEL

value. Also on this screen you can see the stored calibration data above the bar

and the current value below the bar:

32 DeepMind 12 User Manual

Then move the PITCH WHEEL to its maximum position (shown on the panel).

You will see the following display showing the maximum position of the PITCH

WHEEL and the associated values:

Then move the PITCH WHEEL to its minimum position (shown on the panel).

You will see the following display showing the maximum position of the PITCH

WHEEL and the associated values:

To con rm the CALIBRATION of the PITCH WHEEL press the +/YES switch and you

will be moved on to the PITCH CENTRE page:

At this point move the PITCH WHEEL within the dead zone where you don't feel

the tension of the spring. This is ensure that no pitch information is sent while the

pitch wheel is not being touched. You will see the following display showing a

guide to assist you:

Note: To cancel the routine you can press the -/NO switch.

To con rm the CALIBRATION of the PITCH CENTRE press the +/YES switch: The

calibration data will then be stored for the PITCH CENTRE and you will be returned

to the CALIBRATE menu. From here you can perform another calibration from the

menu, or press the GLOBAL switch again to return to the SYSTEM SETTINGS menu.

CAL AFTERTOUCH

To calibrate the KEYBOARD AFTERTOUCH please use the following process:

Note: During the calibration the GLOBAL, -NO and +/YES switches will be

 ashing. If at any time you want to cancel the calibration routine, you can press

the -/NO switch. No previous calibration data will be changed if you do cancel the

routine. To con rm the calibration at each stage press +/YES as described below.

In order to start the calibration routine make sure that the '<' symbol on the CAL

AFTERTOUCH line is highlighted and press +/YES.

You will see the following display showing a bar representing the current

AFTERTOUCH value (0% for no pressure). Also on this screen you can see the

stored calibration data above the bar and the current value below the bar:

Then apply pressure to any one of the keys (or multiple keys) until the value stops

increasing.

You will see the following display showing the maximum position of the

AFTERTOUCH and the associated value:

Note: To cancel the routine you can press the -/NO switch.

To con rm the CALIBRATION of the AFTERTOUCH press the +/YES switch: The

calibration data will then be stored for the AFTERTOUCH and you will be returned

to the CALIBRATE menu. From here you can perform another calibration from the

menu, or press the GLOBAL switch again to return to the SYSTEM SETTINGS menu.

33 DeepMind 12 User Manual

CALIBRATE PEDAL

To calibrate the PEDAL please use the following process:

Note: During the calibration the GLOBAL, -NO and +/YES switches will be

 ashing. If at any time you want to cancel the calibration routine, you can press

the -/NO switch. No previous calibration data will be changed if you do cancel the

routine. To con rm the calibration at each stage press +/YES as described below.

In order to start the calibration routine make sure that the '<' symbol on the CAL

CALIBRATE PEDAL line is highlighted and press +/YES.

You will see the following display showing a bar representing the current PEDAL

value (0% for no pressure). Also on this screen you can see the stored calibration

data above the bar and the current value below the bar:

Then press the pedal until the value stops increasing.

You will see the following display showing the maximum position of the PEDAL

input and the associated value:

Note: To cancel the any routine you can press the -/NO switch, you will see the

following message:

To con rm the CALIBRATION of the PEDAL input press the +/YES switch: The

calibration data will then be stored for the PEDAL and you will be returned to the

CALIBRATE menu. From here you can perform another calibration from the menu,

or press the GLOBAL switch again to return to the SYSTEM SETTINGS menu.

7.2.17 BACKUP (backup Menu)

The last item in the SYSTEM SETTINGS menu is BACKUP.

Pressing +/YES when “BACKUP -->” is selected, will bring up the BACKUP MENU.

(The "RESTORE BANK" lines only appear after the  rst backup is done).

Pressing /YES when “BACKUP PROGRAMS” is selected, will bring up a

con rmation dialog:

Pressing YES again, copies all Banks of programs from EEPROM to  ash, and

overwrites the “factory default” data.

Pressing +/YES when any of the RESTORE-BANK-A to RESTORE-BANK-H lines is

selected, will bring up a con rmation dialog:

Pressing YES again will restore the selected bank from  ash.

34 DeepMind 12 User Manual

7.3 COMPARE (Compare Menu)

The COMPARE feature has two main functions:

Firstly you can use it to COMPARE the current (edited) program with the original

program.

Secondly you can use it to COMPARE and/or match the current position of the

physical faders on the surface with the original program. This is necessary when

you wish to maintain the sound/character of the program.

To perform both functions simply press the COMPARE switch.

Note: If you have not edited the program (i.e. changed some parameters) when

you press the COMPARE switch you will restore the backup as described in a

previous chapter.

Firstly the sound/character will return to its original state so that you can

compare your edits. Note: If you do not want to match the fader positions you can

simply press COMPARE again to return to programming.

Secondly, you now have the option to match the position of the physical faders to

the positions stored in the original program.

You will then see a page of the COMPARE menu (page 1 is displayed below). The

page shown will be the last page you used. If you have never used the COMPARE

function since turning the DeepMind 12 on, it will default to page 1.

Each page of the COMPARE menu shows a section of the faders .

If the position of the fader matches the position of the stored value the fader will

be black.

If the fader does not match the position it will be white with a superimposed

arrow pointing in the direction it needs to move in order to approach the stored

value.

There is also a white bar to show how far the fader needs to move in order to

match the stored value.

Once the fader reaches the stored position it will turn black to indicate it is now

matched.

Note: The pages will switch automatically when you begin to adjust any of the

faders.

There are four pages of faders in the COMPARE menu, to access the other pages

use the +/- switches to select the previous/next pages.

Page 1 Shows the PORTAMENTO rotary and the ARP/SEQ/LFO faders:

Page 2 shows the OSC faders:

Page 3 shows the UNISON, VCF, HPF and VCA faders:

Page 4 shows the ENVELOPE faders:

Note: You can still select speci c envelopes to match the faders depending on

your requirements.

35 DeepMind 12 User Manual

7.4 WRITE (Write Menu)

To write a program to memory press the WRITE switch to open the WRITE

PROGRAM menu.

The WRITE PROGRAM menu will then appear:

In this menu you can use the -NO/+YES switches to navigate through the

sections. The selected section will be highlighted by an inverted character (white

on black).

The  rst section is the program location the current program will be saved.

You can use the UP/DOWN switches, the rotary knob, or the fader to select the

required BANK (A-H) and PROGRAM NUMBER (1-128).

The second section is the CATEGORY to select any of the available categories.

Again you can use the UP/DOWN switches, the rotary knob, or the fader to select

the required CATEGORY.

The third section is REPLACED BY which allows you to name the program to be

written. You can use the -NO/+YES switches to step through each character of the

name and use the UP/DOWN switches, the rotary knob, or the faders to change

the character.

There are also two short-cuts for selecting characters indicated by text above the

FX and GLOBAL switches:

a-A-0 - Pressing the FX switch will cycle between lower-case, upper-case and

numbers.

DEL - Pressing the GLOBAL switch will delete the currently selected character.

Note: These short-cuts only appear when you are editing the name of the

REPLACED BY program.

To compare the current program with the intended program location you can

press the COMPARE switch to listen to the di erence. To return to the current

program, press the compare switch again.

Once you have selected the new location and named the program simply press

the WRITE switch again to write the program.

At anytime you decide you do not want to write the program, you can press the

PROG switch to return to the main programming display. Note: If there is a

program in the backup memory then you will see the message "COMPARE to clear

backup".

If you wish to listen to the intended program location as described earlier you will

need to press the COMPARE switch to clear the backup memory. Once the backup

has been cleared then the message will revert to "COMPARE to listen" and you

can listen to the intended program location as normal.

7.5 Re-naming Programs

To rename a program simply follow the procedure for writing a program and

keep the BANK and PROGRAM NUMBER the same.

36 DeepMind 12 User Manual

8. Programming

8.1 CHORDS/ARP/SEQ/SYNC SETTINGS

The ARP/SEQ section controls all parameters relating to the internal

ARPEGGIATOR, CONTROL SEQUENCER and PATTERN editing. This section also

contains the controls for CHORD and POLY CHORD programming.

CHORD / POLY CHORDS - You can program a single chord to be mapped across

the entire keyboard, or multiple chords to individual keys/notes.

ARPEGGIATOR - The DeepMind 12 ARPEGGIATOR allows you to play a pattern

based on the individual keys being held. The patterns note order can be selected

from a number of modes. The tempo of the ARPEGGIATOR can be sourced from

either an internal or external clock. The clock can be divided from the Master BPM

allowing you to select di erent timing structures.

The ARPEGGIATOR also has a looping pattern editor which allows you to adjust

velocity and gate values for each step. The pattern editor has 32 "Fixed Presets"

allowing you to start using the patterns quickly and 32 "User Presets" so that

you can store your own unique patterns. The patterns can be up to 32 steps long

allowing a large range of creative possibilities.

There is also a clock swing feature which allows you to  ne tune the swing (or

"groove") to your speci c requirements.

The ARPEGGIATOR can be set to synchronize with the  rst key you strike, or

synchronised with the Master BPM clock (internal or external).

CONTROL SEQUENCER - The DeepMind 12 CONTROL SEQUENCER is not part of the

ARPEGGIATOR. The CONTROL SEQUENCER is a modulation source in the same way

an LFO or ENVELOPE is. The CONTROL SEQUENCER allows you to create a pattern

which can be used to modulate other parameters. The tempo of the CONTROL

SEQUENCER can be sourced from either an internal or external clock. The clock

can be divided from the Master BPM allowing you to select di erent timing

structures.

The CONTROL SEQUENCER has a looping editor which allows you to adjust the

values for each step. The modulation waveform that is produced can have

negative or positive values. The CONTROL SEQUENCER can be up to 32 steps long

allowing a large range of creative possibilities.

There is also a clock swing feature which allows you to  ne tune the swing (or

"groove") to your speci c requirements.

The CONTROL SEQUENCER can be set to synchronize with the  rst note you strike,

or synchronised with the Master BPM clock (internal or external).

For more information on using the CONTROL SEQUENCER as a modulation source

please consult the MOD MATRIX section later in this document.

CLOCK NOTES - One the great advantages of having a Master BPM is that the

LFOs, ENVELOPES, and many EFFECTS parameters of the DeepMind 12 can be

synchronised to the BPM.

8.1.1 CHORD SWITCH

The DeepMind 12 CHORD switch allows you to program a chord to memory. That

chord is then transposed across the full range of the keyboard.

CHORD SCREEN UPPER SECTION

On the upper section of the CHORD screen there is a visual representation of the

four physical octaves of the keyboard. The words next to the keyboard describe

what is shown (NOTE or TRIG). The bracket shows the zoom position for the lower

section. The number in the top left hand corner shows the MIDI note number.

CHORD SCREEN LOWER SECTION

On the lower section of the CHORD screen there is a visual representation

of the keyboard which is zoomed to the two octaves represented by the

vertical brackets on the top section. The letter T shows the last played trigger

key. The small indicator dots on the keys show the currently played notes

during recording.

CHORD SCREEN SOFT KEYS

At the bottom of the CHORD page you will see three areas which indicate the

software function of the PROG, GLOBAL and WRITE switches.

PROG switch - Always perform the EXIT function and return you to the

PROG screen.

GLOBAL switch - Only used to RECORD a new CHORD. Otherwise the area above

the switch is used to show the status of the CHORD programming function i.e.

Armed, Learning, or Press Trigger.

WRITE switch - Used to DELETE the chord, but only once a chord is programmed

(otherwise this area will be blank and the switch will not be illuminated)

Note: The CHORD is stored in persistent memory and will be retained through a

power cycle.

Note: The CHORD memory can also be cleared using the bootloader menu

described later in this document.

37 DeepMind 12 User Manual

CHORD PROGRAMMING - To program a chord, press the CHORD switch (or the

RECORD soft switch if replacing an existing chord). The CHORD switch will begin

double  ashing and you will then see the screen with the message "Armed" as

shown below:

While the message "Armed" is shown, hold the keys of the chord down and you

will then see the screen with the message "Learning" below:

At this point you can add additional notes to the chord. Once you have all the keys

required held down simultaneously you can release them all. The chord will then

be ready to be assigned and the CHORD switch will  ash slowly.

Note: The CHORD size is limited to 12 notes.

You will see a message to "Press Trigger" as shown below:

Now press the root note key for the chord to be transposed up or down from.

Once you press a key, the chord you played will have its root note assigned to that

key. The CHORD switch will then stay illuminated (no  ashing) and the CHORD

mode will be active for the entire keyboard (including any OCTAVE shift applied).

Note: In CHORD mode you can only play one key/CHORD at a time. I.e. when you

hold a key down then press another key, the CHORD will be played from the last

pressed key only.

The screen will now show the following:

Now playing any key on the keyboard will play the CHORD you have programmed.

The CHORD will be transposed from the root note to the key that you are playing.

RECORDING A NEW CHORD - To record a new chord (and overwrite the exisiting

chord), press the RECORD soft switch. The existing chord will be deleted and you

will see the message "Armed" indicating that the synthesizer is ready to program

a new CHORD.

DELETING THE CHORD - To delete the chord press the DELETE soft switch. The

chord will be deleted and you will see the message "Armed" indicating that the

synthesizer is ready to program a new CHORD.

EXITING THE CHORD SCREEN - Press the EXIT soft switch to exit the CHORD

page. This will return you to the PROG screen but CHORD mode will still be active

and the CHORD switch will be illuminated.

EXITING CHORD MODE - Press the CHORD switch again to turn o CHORD MODE,

the switch will no longer be illuminated.

Note: When the keyboard local control is on, all chords will be sent to any

connected devices. When keyboard local control is o only the trigger note

will be sent to any connected devices. When the trigger notes are received the

DeepMind 12 will play respective chords based on incoming trigger notes.

2X FLASHING FAST

2X FLASHING FAST

FLASHING SLOW

ILLUMINATED

2X FLASHING FAST

38 DeepMind 12 User Manual

8.1.2 POLY CHORD SWITCH

The DeepMind 12 POLY CHORD switch allows you to program multiple chords to

memory. The chords can be assigned to any of the 49 physical keys.

POLY CHORD SCREEN UPPER SECTION

On the upper section of the POLY CHORD screen there is a visual representation

of the four physical octaves of the keyboard. The words next to the keyboard

describe what is shown (NOTE or TRIG). The bracket shows the zoom position for

the lower section. The number in the top left hand corner shows the MIDI note

number. The number in the top right hand corner indicates how much of the

available memory has been used.

POLY CHORD SCREEN LOWER SECTION

On the lower section of the POLY CHORD screen there is a visual representation

of the keyboard which is zoomed to the two octaves represented by the vertical

brackets on the top section. The letter T is shown on all trigger keys, i.e. the

keys which are programmed to play a chord when pressed. The small indicator

dots on the keys show the currently played notes in the selected chord or during

recording.

POLY CHORD SCREEN SOFT KEYS

At the bottom of the POLY CHORD page you will see three areas which indicate

the software function of the PROG, GLOBAL and WRITE switches.

PROG switch - Always performs the EXIT function and returns you to the

PROG screen.

GLOBAL switch - Used to RECORD (add or overwite) a new POLY CHORD.

Otherwise the area above the switch is used to show the status of the POLY

CHORD programming function i.e. Armed, Learning, or Press Trigger.

WRITE switch - Used to DELETE a chord, but only once a chord is programmed

(otherwise this area will be blank and the switch will not be illuminated) Note:

The CHORD is stored in persistent memory and will be retained through a power

cycle.

Note: The CHORD memory can also be cleared using the bootloader menu

described later in this document.

POLY CHORD PROGRAMMING - To program a chord, press the POLY CHORD

switch (or the RECORD switch if replacing or adding an existing chord). The POLY

CHORD switch will begin double  ashing and you will then see the screen with

the message "Armed" as shown below :

While the message "Armed" is shown, hold the keys of the chord down and you

will then see the screen with the message "Learning" below:

At this point you can add additional notes to the chord. Once you have all the keys

required held down simultaneously you can release them all. The chord will then

be ready to be assigned and the POLY CHORD switch will  ash slowly.

Note: The POLY CHORD size is limited to 12 notes.

You will see a message to "Press Trigger" as shown below:

Now press the root note key for the chord to be assigned to. Once you press a key,

the chord you played will be assigned to that key. The POLY CHORD switch will

then stay illuminated (no  ashing) and the POLY CHORD mode will be active for

the entire keyboard (including any OCTAVE shift applied).

The screen will now show the following:

Now playing any of the trigger keys will play the chords assigned to the

respective keys.

2X FLASHING FAST

2X FLASHING FAST

FLASHING SLOW

ILLUMINATED

39 DeepMind 12 User Manual

RECORDING / ADDING A NEW POLY CHORD - To record/add a new chord , press

the RECORD soft switch. You will see now see the message "Armed" indicating

that the synthesizer is ready to program a new CHORD.

Each of the keys which have been assigned to trigger a chord, will be marked

with the letter T as shown below:

DELETING A POLY CHORD - To delete a chord you  rst need to select the trigger

key. This can be done using the rotary knob, the -/NO and +/YES switches, or by

pressing the trigger key for the chord you wish to delete.

The selected key will be highlighted by a dotted line as shown above. When the

key is selected press the DELETE soft switch. The chord will be deleted and the

letter T will no longer be shown. You will also see the message "Armed"

indicating that the synthesizer is ready to record a new CHORD.

EXITING THE POLY CHORD SCREEN - Press the EXIT soft switch to exit the POLY

CHORD page. This will return you to the PROG screen but POLY CHORD mode will

still be active and the POLY CHORD switch will be illuminated.

EXITING POLY CHORD MODE - Press the POLY CHORD switch again to turn o

POLY CHORD MODE, the switch will no longer be illuminated.

Note: In POLY CHORD mode you can play a sequence of chords using the trigger

keys while playing individual notes using unassigned keys.

Note: You can use the rotary knob and/or the -NO and +/YES switches to scroll

the zoomed view up and down the keyboard. This is useful when you want to see

any playing notes which are outside of the current zoom position.

Note: When the keyboard local control is on, all chords will be sent to any

connected devices. When keyboard local control is o only the trigger note

will be sent to any connected devices. When the trigger notes are received the

DeepMind 12 will play respective chords based on incoming trigger notes.

Note: The number of POLY CHORDs you can program is limited, depending on the

number of notes used in each POLY CHORD. There is enough space for 216 notes,

e.g. 36 x 6 note POLY CHORDs.

8.1.3 ARP ON/OFF SWITCH

The ON/OFF switch in the ARP/SEQ section turns the ARPEGGIATOR function ON

and OFF. When the ARPEGGIATOR is switched ON and you hold down one or more

keys the ARPEGGIATOR will start playing. When you release all keys the

ARPEGGIATOR will stop playing.

Note: The ON/OFF switch only a ects the ARPEGGIATOR, it does not a ect the

CONTROL SEQUENCER.

The default ON/OFF setting is OFF.

8.1.4 TAP/HOLD SWITCH

The TAP/HOLD switch has two functions:

TAP - When you strike the TAP switch successively the DeepMind 12 will calculate

the Master BPM value from the tempo of your tapping. After 5 taps the BPM will

update to the tempo of your tapping.

The BPM is calculated on an average of the last 5 taps, so you can continue

tapping until you feel the displayed tempo is correct.

Note: If you are using an external sync source the TAP/HOLD switch will  ash at

the rate of the external source.

The supported TAP TEMPO range for both internal and external sources is from

20.0-275.0 BPM

HOLD - When you press and hold the TAP/HOLD switch for more than 1 second,

the switch is illuminated and HOLD mode is active. In this mode when you press

any key it will be held on and the ARPEGGIATOR will continue playing.

If you press a key and hold it down, you can add other notes to the ARPEGGIATOR.

Once you release all keys the ARPEGGIATOR will continue to play until you press

another key.

Note: The HOLD switch can also be used without the ARPEGGIATOR function.

When the ARPEGGIATOR is o and the HOLD switch is pressed it will hold and

played notes in their SUSTAIN phase of all ENVELOPEs. This can be useful during

sound design when you want to work on the sustained content of a program and

operate the surface controls with both hands.

To turn HOLD mode o press and hold the TAP/HOLD switch again for more than 1

second, the switch is no longer illuminated and HOLD mode is no longer active.

The default HOLD setting is OFF.

ARPEGGIATOR

ON/OFF

TAP=FLASH

HOLD=ON

40 DeepMind 12 User Manual

8.1.5 ARP RATE FADER

The RATE fader controls the Master BPM RATE of the ARPEGGIATOR. The Master

BPM is used by the ARPEGGIATOR, CONTROL SEQUENCER and is also used in any

parameters which can be linked to the Master BPM, such as the LFO, Envelopes

and some E ect parameters.

Decreasing the value will make the Master BPM RATE slower, and increasing the

value will make the Master BPM rate faster as shown below:

The Master BPM RATE range is from 20.0 to 275.0 BPM. The default Master BPM

RATE value is 120.0 BPM.

The fader position, current value and stored value for the ARP RATE fader is

shown on the PROG screen. There is also a visualization of the ARP RATE as

shown below:

8.1.6 ARP GATE TIME FADER

The GATE TIME fader controls the length of the note as shown below.

With the fader in the middle position, the GATE TIME is equally split so that the

note length is exactly half of a step. Decreasing the value will make the GATE

TIME shorter, and increasing the value will make the GATE TIME longer as shown

below:

Note: The GATE TIME FADER on the front panel, and the GATE TIME PARAMETER in

the PATTERN EDITOR both a ect the length of the notes.

With the GATE TIME FADER at maximum the note length matches the full length

of the PATTERN GATE TIME.

When the GATE TIME fader is in the middle then the note length is half of the

PATTERN GATE TIME.

The GATE TIME range is from 0 to 255, with 0 being no note and 255 being a full

note. The default GATE TIME value is 128, which represents half of a step.

The fader position, current value and stored value for the ARP GATE TIME fader is

shown on the PROG screen. There is also a visualization of the ARP GATE TIME

period, using the width of two consecutive notes as shown below:

FAST

MED

SLOW

MASTER BPM (RATE) LONG

EQUAL

SHORT

GATE TIME

41 DeepMind 12 User Manual

8.1.7 EDIT ARP/SEQ SWITCH

The DeepMind 12 ARPEGGIATOR allows you to play a pattern of notes based on

the individual keys being held. This section covers in detail all the parameters

related to the ARPEGGIATOR.

To enter the EDIT page for the ARPEGGIATOR & CONTROL SEQUENCER press the

EDIT switch.

The EDIT switch will then start  ashing and the ARPEGGIATOR menu will

then appear:

Note: In the ARP/SEQ EDIT menu there are three pages (ARPEGGIATOR, CONTROL

SEQUENCER and SYNC SETTINGS). This section covers the ARPEGGIATOR menu. To

cycle through the pages use consecutive presses of the EDIT switch. The bottom

line of the screen will show guidance to the next page.

To navigate the options in the ARPEGGIATOR menu, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range.

KEY SYNC - This option allows you to turn KEY-SYNC (Key Synchronisation) On and

O . When KEY-SYNC is On, the arpeggiator will start playing at soon as you strike

the  rst note (when no keys are pressed). When KEY-SYNC is O , the arpeggiator

will start playing using the Master BPM (internal or external) and ARP CLOCK

(after division) as its timing source. The default value is O .

OCT - This option allows you to choose how many OCTAVES the ARPEGGIATOR will

cycle through. The OCTAVE range is from 1 to 6. If you only choose one OCTAVE

the ARPEGGIATOR will simply cycle the notes based on the root note and the

MODE. If you choose more than one OCTAVE the ARPEGGIATOR will cycle through

the notes/MODEs for each OCTAVE sequentially.

The default value is 2 OCTAVES.

MODE - This option allows you to select the note order for the arpeggiator from

one of the options below:

•

• UP - Notes are played from the lowest to the highest, then repeated.

•

• DOWN - Notes are played from the highest to the lowest, then repeated.

•

• UP-DOWN - Notes are played from the lowest to the highest, then from the

highest to the lowest, then repeated. There is no repetition at the highest

and lowest notes.

FLASHING=EDIT

ARP CLOCK

KEY PRESS

ARP NOTES

(KEY SYNC OFF)

ARP NOTES

(KEY SYNC ON)

ARPEGGIATOR KEY SYNC

1 OCTAVE

2 OCTAVES

3 OCTAVES

4 OCTAVES

5 OCTAVES

6 OCTAVES

ARPEGGIATOR OCTAVES

ARPEGGIATOR MODE - UP

ARPEGGIATOR MODE - DOWN

ARPEGGIATOR MODE - UP/DOWN

42 DeepMind 12 User Manual

•

• UP-INV - Notes are played from the lowest to the highest, then the chord is

inverted and the notes are played from the lowest to the highest. This is then

repeated. There is no repetition at the highest and lowest notes.

•

• DOWN-INV - Notes are played from the highest to the lowest, then the

chord is moved to its 2nd inversion and lowered one octave then the notes

are played from the highest to the lowest. This is then repeated. There is no

repetition at the highest and lowest notes.

•

• UP-DN-INV -Notes are played from the lowest to the highest, then the chord

is moved to its 1st inversion and the notes are played from the lowest to the

highest. Next the chord is moved to its 2nd inversion and the notes are

played from the highest to the lowest. Then the chord is moved back to the

1st inversion and the notes are played from the highest to the lowest. This is

then repeated. There is no repetition at the highest and lowest notes.

•

• UP-ALT - Notes are played as lowest, then highest, then next lowest, then

next highest and so on until the notes have all been played. This is then

repeated. There is no repetition at the highest and lowest notes.

•

• DOWN-ALT - Notes are played as highest, then lowest, then next highest,

then next lowest and so on until the notes have all been played. This is then

repeated. There is no repetition at the highest and lowest notes.

•

• RAND - The notes are played at random.

•

• AS PLAYED - The notes are played by the ARPEGGIATOR in the order that you

play the notes. This is then repeated. There is no repetition at the highest

and lowest notes.

ARPEGGIATOR MODE - UP/INV

ARPEGGIATOR MODE - DOWN/INV

ARPEGGIATOR MODE - UP/DOWN/INV

ARPEGGIATOR MODE - UP/ALT

ARPEGGIATOR MODE - DOWN/ALT

ARPEGGIATOR MODE - RANDOM

ARPEGGIATOR MODE - AS PLAYED

123

43 DeepMind 12 User Manual

•

• CHORD -The notes are played together for each step of the ARPEGGIATOR.

The default mode of the ARPEGGIATOR is UP.

HOLD - This option is the same as the HOLD switch on the surface when the

ARPEGGIATOR is switched on. The switch will follow any changes made here, and

changes on the surface will be re ected here. The default HOLD mode is OFF.

CLOCK DIVIDER - This option allows you divide the Master BPM in a number of

ways to produce the ARPEGGIATOR CLOCK.

Note: When the SUSTAIN input is set to any of the GATE modes in the PEDAL

SETTINGS the value will be replaced by "(Gate)" to indicate that the CLOCK

DIVIDER is not used and the ARPEGGIATOR notes are controlled by the GATE input.

You can select one of the division modes from the list below:

Note: For a timing diagram please consult the section later in this document.

RATIO DESCRIPTION

1/2 Half note

3/8 Dotted quarter note

1/3 Third note (Half note triplets)

1/4 Quarter note

3/16 Dotted eighth note

1/6 Sixth note(Quarter note triplets)

1/8 Eighth note

3/32 Dotted sixteenth note

1/12 Twelfth note (Eighth note triplets)

1/16 Sixteenth note

1/24 Twenty-fourth note (Sixteenth note triplets)

1/32 Thirty-second note

1/48 Forty-eighth note (Thirty-second note triplets)

The default value is 1/16 (sixteenth note).

RATE(BPM) - This option is the same as the RATE fader on the surface. Any

changes on the surface will be re ected here.

The Master BPM RATE range is from 20.0 to 275.0 BPM. The default RATE value is

120.0 BPM.

Note: When the SUSTAIN input is set to any of the GATE modes in the PEDAL

SETTINGS the value will be replaced by "(Gate)" to indicate that the RATE is not

used and the ARPEGGIATOR notes are controlled by the GATE input.

SWING - This option allows you to adjust the swing (or groove) of the

ARPEGGIATOR.

When applying SWING, every other step is delayed by an amount set by the

swing value. The swing value represents the ratio of time between two steps. I.e.

When the swing is at 50% there will be equal timing between the steps. When

wanting to adjust the SWING timing to fall where a triplet would, you should set

the SWING to 66%.

You can use the SWING parameter to add timing element which can help create

propulsive rhythms, or laid back styles which can help give the sequence of notes

movement, or allow it to breath, or make room for other parts of the mix.

The SWING RATE range is from 50 to 75. The default SWING value is 50.

Note: When the SUSTAIN input is set to any of the GATE modes in the PEDAL

SETTINGS the value will be replaced by "(Gate)" to indicate that the SWING is not

used and the ARPEGGIATOR notes are controlled by the GATE input.

PATTERN - The ARPEGGIATOR has a looping PATTERN function which can

dynamically control the VELOCITY and GATE TIME values for each step.

When the ARPEGGIATOR starts playing and a PATTERN is selected, the VELOCITY

and GATE TIME values from the PATTERN editor will be applied to the notes of

the ARPEGGIATOR. The PATTERN will continue to cycle while the ARPEGGIATOR is

playing.

You can set the PATTERN LENGTH to match the ARPEGGIATOR notes, or use a

di erent PATTERN LENGTH to create variations and movement. E.g. When using

DOWN-INV 6 notes are played during each cycle of the ARPEGGIATOR. With a

PATTERN LENGTH setting of 4, you will hear the pattern moving through the

ARPEGGIATOR cycle.

The pattern editor has 32  xed "Preset Patterns" allowing you to start using the

patterns quickly and 32 "User Patterns" so that you can store your own unique

patterns. The patterns can be up to 32 steps long allowing a large range of

creative possibilities.

ARP PATTERN SELECTION - To select an ARPEGGIATOR PATTERN, make sure that

the '<' symbol on the PATTERN line is highlighted. The default setting is O , to

select a PATTERN (Preset or User) use the rotary knob, or the fader.

ARPEGGIATOR MODE - CHORD

NO SWING (50%)

TRIPLET SWING (66%)

SWING SETTING

FULL SWING (75%)

Pattern Memory

Preset Patterns 1-32 User Patterns 1-32

Locked - Can be edited but not overwritten Can be edited and saved

44 DeepMind 12 User Manual

ARP PATTERN EDITING - To use the PATTERN EDITOR make sure that the '<'

symbol on the PATTERN line is highlighted. Then press the +/YES switch and the

PATTERN EDITOR will then be displayed.

If no PATTERN is selected it will look like this:

If a PATTERN is selected it will look something like this:

The controls for the PATTERN EDITOR are as follows:

Note: The parameter being edited is selected using the switches directly under

the tabs at the bottom of the screen.

(1) PATTERN NAME - The PATTERN name is displayed at the top of the screen.

The pattern can be changed by pressing the -NO/+YES switches.

Note: If a PATTERN is edited a * will be displayed by its name to indicate that

editing has been done and is not yet saved.

Note: Navigating away from edited pattern allows you to return to it

without losing changes. However, if you begin to edit a di erent pattern,

your edits to the original PATTERN will be lost.

(2) STEP INDICATORS - The STEP values are shown at the top of the screen. The

current step can be selected using the rotary knob, each click will move the

selection forward or backward one step. The current step number is

displayed in the header and the step is highlighted in black and indicated

using a dotted rectangle.

Note: When the ARPEGGIATOR is ON and running, you will see a PATTERN

POSITION POINTER (PPP) under the step being played. The PPP is a small

black bar which is updated in real-time.

Note: To duplicate steps, start by. selecting the step to duplicate, hold the

PROG switch then navigate to the target step and release the PROG switch.

(3) VELOCITY - The VELOCITY of each step is shown by the height of the bar

within the step. To adjust the velocity for a step, press the PROG switch

(under the VEL text) to enter VELOCITY editing mode. When you are in

VELOCITY editing mode the virtual switch will be reversed (white on black).

The height of the bar indicates the current velocity setting.

The VELOCITY for each step can then be changed by using the UP/DOWN switches

or using the data entry fader.

(4) GATE - The GATE TIME of each is shown by the width of the bar within each

step. To adjust the GATE TIME for a step, press the FX switch (under the GATE

text) to enter GATE TIME editing mode. When you are in GATE TIME editing

mode the virtual switch will be reversed (white on black).

(

2)

(3) (7)(4) (5) (6)

(1)

VELOCITY

PATTERN STEP VELOCITY

45 DeepMind 12 User Manual

The GATE TIME for each step can then be changed by using the UP/DOWN

switches or using the data entry fader.

Note: To tie steps start by selecting the step you want to tie to the next one,

hold the FX switch, then turn rotary knob clockwise. You can tie several steps

together by continuing to rotate the rotary knob without having to release

the FX switch. To remove the tie, select the note that is tied to previous, hold

FX switch, turn rotary knob anti-clockwise. You can also do this with several

steps in the same way as creating a tie.

Note: The GATE TIME FADER on the front panel, and the GATE TIME

PARAMETER in the PATTERN EDITOR both a ect the length of the notes.

With the GATE TIME FADER at maximum the note length matches the full

length of the PATTERN GATE TIME.

With the GATE TIME fader is in the middle then the note length is half of the

PATTERN GATE TIME.

(5) LENGTH - To adjust the LENGTH of the pattern (the number of steps), press

the GLOBAL switch (under the LEN text) to enter LENGTH editing mode.

When you are in LENGTH editing mode the virtual switch will be reversed

(white on black).

The LENGTH of the PATTERN can then be changed by using the UP/DOWN

switches or using the data entry fader.

(6) COMP - This switch allows you to COMPARE the current status of the

PATTERN being edited against the stored PATTERN. To use the PATTERN

COMPARE function, press the COMPARE switch (under the COMP text) to

enter COMPARE mode. When you are in COMPARE mode the virtual switch

will be reversed (white on black).

Note: The COMP switch is only available when a USER PATTERN is selected.

(7) SAVE/IMPORT -This switch allows you to SAVE the current PATTERN, or

IMPORT a PATTERN. When you press the WRITE switch (under the SAVE/

IMPORT text) you will be presented with two options:

You can now use the -/NO and +/YES switches to select SAVE or IMPORT, or

the EDIT ARP/SEQ switch to exit the dialog. All three switches will  ash to

show that they are the available options:

SAVE - This will save your edits into the currently selected location. This will

overwrite the PATTERN stored in the current location.

Note: You can only SAVE into USER PATTERN locations, as the PRESET

PATTERNS are protected.

IMPORT - Selecting IMPORT will open a read only version of the PATTERN

EDITOR page, so that you can preview the pattern which will be imported

into the current location. Parameters cannot be edited in this page.

To select a PATTERN to IMPORT use the -/NO and +/YES switches. To IMPORT a

PATTERN press the WRITE switch (under the IMPORT text). To cancel the IMPORT,

press the PROG switch (under the BACK text).

CANCEL - This will cancel the SAVE/IMPORT function and return you to the

PATTERN EDITOR.

Note: The SAVE/IMPORT switch is only available when a USER PATTERN is

selected.

GATE TIME

PATTERN STEP GATE TIME

NO=SAVE YES=IMPORT EDIT=CANCEL

46 DeepMind 12 User Manual

Note: If you have edited a PATTERN and then go to select another PATTERN

without saving your changes you will be presented with a warning message that

unsaved edits will be lost. You can press +/YES to allow the change, or -/NO to

cancel the change.

To exit the PATTERN page press the ARP/SEQ EDIT switch to return to the main

ARPEGGIATOR/CONTROL SEQUENCE/SYNC SETTINGS menu.

To exit the ARPEGGIATOR/CONTROL SEQUENCE/SYNC SETTINGS menu press the

EDIT switch again (or press the PROG switch) to return the main display.

8.1.8 EDIT CTRL SEQUENCER

The CONTROL SEQUENCER allows you to create a pattern which can be used to

modulate other parameters. This section covers in detail all the parameters

related to the CONTROL SEQUENCER.

For more information on using the CONTROL SEQUENCER as a modulation source

please consult the MOD MATRIX section later in this document.

To enter the EDIT page for the ARPEGGIATOR & CONTROL SEQUENCER press the

EDIT switch.

In the ARP/SEQ EDIT menu there are three pages, this section covers the CONTROL

SEQUENCER menu. To cycle through the pages use consecutive presses of the EDIT

switch. The bottom line of the screen will show guidance to the next page.

To access the CONTROL SEQUENCER menu directly you can press the ARP/SEQ EDIT

switch twice. The CONTROL SEQUENCER menu is then shown:

To navigate the options in the CONTROL SEQUENCER menu, use the UP, DOWN,

switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range.

ENABLE - This option turns the CONTROL SEQUENCER function On and O .

CLOCK DIVIDER - This option allows you divide the Master BPM in a number

of ways to produce the CONTROL SEQUENCER CLOCK. You can select any of the

options from the following table:

Note: For a timing diagram please consult the section later in this document.

RATIO DESCRIPTION

4Four bars

3Three bars

2Two bars

1One bar

1/2 Half note

3/8 Dotted quarter note

1/3 Third note (Half note triplets)

1/4 Quarter note

3/16 Dotted eighth note

1/6 Sixth note(Quarter note triplets)

1/8 Eighth note

3/32 Dotted sixteenth note

1/12 Twelfth note (Eighth note triplets)

1/16 Sixteenth note

3/64 Dotted thirty-second note

1/24 Twenty-fourth note (Sixteenth note triplets)

1/32 Thirty-second note

3/128 Dotted sixty-fourth note

1/48 Forty-eighth note (Thirty-second note triplets)

1/64 Sixty-fourth note

The default value is 1/16.

Note: When the SUSTAIN input is set to any of the GATE modes in the PEDAL

SETTINGS the value will be replaced by "(Gate)" to indicate that the CLOCK

DIVIDER is not used and the CONTROL SEQUENCER steps are controlled by the

GATE input.

LENGTH - This option allows you to adjust the length (number of steps) of the

CONTROL SEQUENCE. This can also be adjusted within the SEQUENCE EDITOR.

The default value is 6.

SWING - This option allows you to adjust the swing (or groove) of the CONTROL

SEQUENCER.

When applying SWING, every other step is delayed by an amount set by the swing

value. The swing value represents the ratio of time between two steps. I.e. When

the swing is at 50% there will be equal timing between the steps. When wanting

to adjust the SWING timing to fall where a triplet would, you should set the

SWING to 66%.

You can use the SWING parameter to add timing element which can help create

propulsive rhythms, or laid back styles which can help give the sequence of notes

movement, or allow it to breath, or make room for other parts of the mix.

The SWING RATE range is from 50 to 75. The default SWING value is 50.

Note: When the SUSTAIN input is set to any of the GATE modes in the PEDAL

SETTINGS the value will be replaced by "(Gate)" to indicate that the SWING is not

used and the CONTROL SEQUENCER steps are controlled by the GATE input.

FLASHING=EDIT

47 DeepMind 12 User Manual

SLEW-RATE - This option allows you to adjust the SLEW RATE of the CONTROL

SEQUENCER. The SLEW RATE is the rate at which the value changes from one step

to the next. With a high slew rate you will get a sloped transition between steps,

and with a SLEW RATE of 0, you will get an instantaneous change from one step

to the next.

The SLEW RATE range is from 0-255, with 0 being no change and 255 full

smoothing.

The default SLEW RATE setting is 0.

KEY/LOOP - The KEY/LOOP mode controls how the CONTROL SEQUENCER looping

and key synchronisation operate. The choices are as follows:

•

• Loop On - This option makes the CONTROL SEQUENCE loop continuously

but does not restart when keys are pressed. This mode is useful when using

the CONTROL SEQUENCER in conjunction with the ARPEGGIATOR and the

SEQUENCE LENGTH is longer than the ARPEGGIATOR CLOCK DIVIDER.

•

• Key Sync On - This option will force the SEQUENCE to restart when a key is

pressed. Note in this mode the CONTROL SEQUENCER will not loop.

•

• Key&Loop On - This option makes the CONTROL SEQUENCE loop

continuously and also forces a reset when keys are pressed.

SEQUENCE EDITING - To use the SEQUENCE EDITOR make sure that the '<' symbol

on the SEQUENCE line is highlighted. Then press the +/YES switch and the

SEQUENCE EDITOR will then be displayed:

The controls for the SEQUENCE EDITOR are as follows:

Note: The parameter being edited is selected using the switches directly under

the tabs at the bottom of the screen.

(1) TITLE - The top bar shows the text "SEQUENCE EDITOR".

(2) STEP INDICATORS - The STEP values are shown at the top of the screen. The

current step can be selected using the rotary knob, each click will move the

selection forward or backward one step. The current step number is

displayed in header and the step is highlighted in black and indicated using a

dotted rectangle.

Note: When the CONTROL SEQUENCER is ON and running, you will see a

SEQUENCE POSITION POINTER (SPP) under the step being played. The SPP is a

small black bar which is updated in real-time.

Note: To duplicate steps start by selecting the step to duplicate, hold the

PROG switch, then navigate to target step and release the PROG switch.

(3) VALUE - The VALUE of each step is shown by the height of the bar within the

step. To adjust the value for a step, press the PROG switch (under the VALUE

text) to enter VALUE editing mode. When you are in VALUE editing mode the

virtual switch will be reversed (white on black).

0

85

170

CONTROL SEQUENCER SLEW RATE

255

(2)

(3) (4) (5) (6)

(1)

48 DeepMind 12 User Manual

The height of the bar indicates the current value setting.

The VALUE for each step can then be changed by using the UP/DOWN

switches or using the data entry fader.

(4) LENGTH - To adjust the LENGTH of the SEQUENCE (the number of steps),

press the GLOBAL switch (under the LEN text) to enter LENGTH editing mode.

When you are in LENGTH editing mode the virtual switch will be reversed

(white on black).

The LENGTH of the SEQUENCE can then be changed by using the UP/DOWN

switches or using the data entry fader.

(5) COMP - This switch allows you to COMPARE the current status of the

SEQUENCE being edited against the stored SEQUENCE. To use the SEQUENCE

COMPARE function, press the COMPARE switch (under the COMP text) to

enter COMPARE mode. When you are in COMPARE mode the virtual switch

will be reversed (white on black).

(6) SAVE -This switch takes you to the WRITE PROGRAM dialog (i.e. the normal

use of the WRITE switch).

To exit this menu press the ARP/SEQ EDIT switch to return to the main

ARPEGGIATOR/CONTROL SEQUENCE/ARP SETTINGS menu.

To exit the ARPEGGIATOR/CONTROL SEQUENCE/ARP SETTINGS menu press the

EDIT switch twice, (cycling past the ARP SETTINGS menu to exit), or press the

PROG switch to return the main display.

8.1.9 ARP SETTINGS

To access the ARP SETTING menu directly you can press the ARP/SEQ EDIT switch

three times. The ARP SETTINGS menu is then shown

To navigate the options in the SYNC SETTINGS menu, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range

CLOCK - This option allows you to select the Master BPM clock source for the

DeepMind 12 ARPEGGIATOR, CONTROL SEQUENCER, LFOs, ENVELOPEs and certain

time based FX parameters.

•

• Internal - The Master BPM clock is generated internally and uses the RATE

fader to control the tempo.

•

• MIDI (Auto) - The Master BPM clock is sourced from the MIDI IN socket and

uses the RATE fader to control the CLOCK DIVIDER. If no MIDI clock is present

at the MIDI IN socket, the DeepMind 12 will AUTO revert to the internally

generated clock.

•

• USB Auto - The Master BPM clock is sourced from the USB port and uses

the RATE fader to control the CLOCK DIVIDER. If no MIDI clock is present at

the USB port, the DeepMind 12 will AUTO revert to the internally generated

clock.

The default CLOCK setting is MIDI(Auto).

ARP-TO-MIDI - This option sends the notes played by the ARPEGGIATOR to all

MIDI sources. This allows you to record the ARPEGGIATOR note sequence.

The default ARP-TO-MIDI setting is O .

Note: When an external source (MIDI or USB) is used you can nudge the sync

point back and forward by using the -NO/+YES switches when "ARP RATE" is

selected in the ARPEGGIATOR menu. This allows you to o set the synchronisation

if required when working with other hardware/software and associated

latencies.

Note: Please ensure that you do not create any MIDI loops in your DAW MIDI

routing, as feeding back the ARPEGGIATOR notes will cause unpredictable results.

ARP-PARAMS - This option controls how the ARPEGGIATOR is linked.

•

• PROGRAM - In this mode the ARPEGGIATOR is stored with the program.

•

• GLOBAL - In this mode the ARPEGGIATOR keeps its current settings and

status even when you change programs. This can be useful for creating a

sequence and then browsing programs while the ARPEGGIATOR continues to

play the same notes/pattern/sequence.

Note: The CONTROL SEQUENCER remains una ected by this option.

Note: When switching from GLOBAL to PROGRAM mode, the current settings

are preserved and are used in place of the settings contained in the selected

program.

To exit the ARPEGGIATOR/CONTROL SEQUENCE/ARP SETTINGS menu press the EDIT

switch again (or press the PROG switch) to return the main display.

VALUE

SEQUENCE STEP VALUE

49 DeepMind 12 User Manual

8.2 LFO (1&2)

Note: The operation of LFO1 and LFO2 is identical and therefore only described

once in this section.

The Low Frequency Oscillator (LFO) creates signals which are used to modulate

or control other parameters. LFOs are traditionally used to add vibrato by

modulating the pitch, tremolo by modulating the amplitude or a ripple e ect

by modulating the  lter cut o frequency. The DeepMind 12 LFO uses traditional

shapes such as sinusoidal and ramping, but also o ers advanced LFO shapes such

as sample and hold, and sample and glide.

The LFOs are also MOD MATRIX sources and can be applied to any of 130

destinations allowing for a huge amount of options to enhance your sound

design.

The LFOs can also be used to trigger any of the ENVELOPES, for more detail please

consult the ENVELOPE section later in this document.

The DeepMind 12 o ers an LFO speed which can reach into audio frequencies,

opening another door to creative modulation possibilities.

8.2.1 LFO RATE FADER

The LFO RATE fader controls the speed of the LFO.

Decreasing the value will make the LFO RATE slower, and increasing the value will

make the LFO RATE faster as shown below:

The LFO RATE range is from 0 to 255, with 0 being 0.041 Hz (24.1 s) and 255 being

65.4 Hz (15.3 ms) The default LFO RATE value is 0.

Note: The LFO RATE can extend beyond the rate set by the fader when the LFO1

RATE MOD MATRIX DESTINATION is modulated by a MOD MATRIX SOURCE. The

maximum rate when controlled via the MOD MATRIX is 1280 Hz. When the NOTE

NUMBER is used as the source for modulation you can create cross modulation

type e ects.

Note: When the ARP-SYNC is on, the LFO RATE fader no longer controls the RATE

directly but chooses a time division of the Master BPM RATE as described in the

EDIT LFO section.

The fader position, current value and stored value for the LFO RATE fader is shown

on the PROG screen. There is also a visualization of the waveform as shown

below:

8.2.2 LFO DELAY TIME FADER

The DELAY TIME fader controls the amount of delay before the LFO starts.

When the LFO waveform starts it is faded in over a period of time. If you think of

the time to reach the full LFO waveform as 100%, then 40% of that time is used

for the delay period where no waveform is produced and 60% of that time is used

for the fade duration.

The DELAY TIME range is from 0.00s to 6.59s. The default DELAY TIME value is

0.00s.

FAST

MED

SLOW

LFO RATE

NONE

MED

NO LFO FADE IN

NO LFO FADE IN

SLOW

LFO DELAY TIME

50 DeepMind 12 User Manual

The fader position, current value and stored value for the LFO DELAY TIME fader is

shown on the PROG screen. There is also a visualization of the waveform as

shown below:

8.2.3 LFO WAVEFORMS INDICATORS

The LFO waveform shape setting is always shown on the LEDs.

The LFO waveform shape in use will have an illuminated LED next to it.

The LED will glow to show the status of the waveform as shown below:

8.2.4 LFO EDIT MENU

To access the LFO EDIT menu press the LFO EDIT switch.

Shortcut Note: To change the LFO waveform shape press and hold the LFO EDIT

switch. While holding the switch you can use the LFO RATE fader to set the LFO

waveform shape.

The LFO EDIT switch will then start  ashing and the LFO EDIT menu is then shown:

To navigate the options in the LFO EDIT menu, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range .

SHAPE - This option allows you to select one of the waveform shapes from the

following options (shown with their respective visualization waveforms from the

PROG display).

Sine - A mathematically correct sinusoidal waveform.

Triangle - A symmetrical triangular waveform.

Square - A symmetrical square waveform.

Ramp Up - An up ramping triangular waveform.

Ramp Down - An up ramping triangular waveform.

Smp&Hold (Sample and Hold) - A random stepped waveform which

transitions instantly from step to step.

Smp&Glide (Sample and Glide) - A random stepped waveform which glides

from step to step.

The default LFO SHAPE setting is Triangle.

FULL BRIGHTNESS

HALF BRIGHTNESS

OFF

LFO WAVEFORM INDICATORS

FLASHING=EDIT

51 DeepMind 12 User Manual

RATE - This option is the same as the LFO RATE fader on the surface. Any changes

on the surface will be re ected here.

The LFO RATE range is from 0 to 255, with 0 being 0.05371 Hz (18.6 s) and 255

being 85 Hz The default LFO RATE setting is 0.

Note: When the ARP-SYNC is ON, the RATE parameter is not shown,

but CLOCK-DIVIDE instead. This shows values based on time division of the

Master BPM RATE as shown below:

Note: For a timing diagram please consult the section later in this document.

RATIO DESCRIPTION

4Four bars

3Three bars

2Two bars

1One bar

1/2 Half note

3/8 Dotted quarter note

1/3 Third note (Half note triplets)

1/4 Quarter note

3/16 Dotted eighth note

1/6 Sixth note(Quarter note triplets)

1/8 Eighth note

3/32 Dotted sixteenth note

1/12 Twelfth note (Eighth note triplets)

1/16 Sixteenth note

3/64 Dotted thirty-second note

1/24 Twenty-fourth note (Sixteenth note triplets)

1/32 Thirty-second note

3/128 Dotted sixty-fourth note

1/48 Forty-eighth note (Thirty-second note triplets)

1/64 Sixty-fourth note

KEY SYNC - This option allows you to turn KEY-SYNC (Key Synchronisation) On

and O . When KEY-SYNC is On, the LFO waveform generation will be reset as you

strike a note (keeping in mind the LFO DELAY TIME is also part of the waveform

generation). When KEY-SYNC is O , the LFO will free run.

The default KEY-SYNC setting is O .

ARP SYNC - This option allows you to turn ARP-SYNC (Arpeggiator

Synchronisation) On and O . When ARP-SYNC is On, the LFO waveform will

synchronize to the Master BPM. When ARP-SYNC is o the LFO will run at the rate

set by the LFO RATE fader/parameter.

The default ARP-SYNC setting is O .

SLEW-RATE - This option allows you to smooth out the transitions of the LFO

waveform. The SLEW RATE reduces the rate of change of the LFO waveform

shape.

The SLEW RATE range is from 0-255, with 0 being no change and 255 full

smoothing.

The default SLEW RATE setting is 0.

PHASE - As each voice has independent LFOs, this option allows you to control

the phase relationship between the LFO waveforms.

•

• POLY - All voices use an independent LFO. This is the default mode.

•

• MONO - All voices use a common LFO.

•

• SPREAD - With a setting of 1 there is a 1 degree shift between the LFOs for

each voice. As you begin to increase the SPREAD value the phase of the LFO

for each consecutive voice will be shifted by the amount of SPREAD applied.

I.e. with a 90 degree setting, the  rst voice will always be at 0 degrees, and

each consecutive voice will be shifted by an additional 90 degrees. So with 4

voice UNISON, voice 1 would be at 0 degrees, voice 2 would be at 90 degrees,

voice 3 would be at 180 degrees and voice 4 would be at 270 degrees.

The PHASE range is from 1-254 degrees.

The default PHASE setting is POLY.

To exit the LFO EDIT menu press the EDIT switch again (or press the PROG switch).

to return the main display.

LFO (KEY SYNC OFF)

KEY GATE

LFO (KEY SYNC ON)

LFO KEY SYNC

LFO (ARP SYNC OFF)

ARP CLOCK

LFO (ARP SYNC ON)

LFO ARP SYNC

0

85

170

LFO SLEW RATE

255

45

90

180

225

LFO PHASE SPREAD (UNISON 4 SHOWN)

VOICE 1 LFO VOICE 2 LFO VOICE 3 LFO VOICE 4 LFO

52 DeepMind 12 User Manual

8.3 OSC

The Oscillators (OSCs) have a completely analog implementation. The signal path

of the waveform is purely analog circuitry. The pitch of these analog oscillators

is controlled digitally to ensure superior tuning accuracy and stability across the

entire range of playable notes.

OSC 1 - This dual oscillator generates two di erent waveforms - one SAWTOOTH,

and one SQUARE. The waveforms can be used independently or together to create

harmonically rich content.

Features include pitch modulation of both the sawtooth and square waveforms,

and pulse width modulation of the square waveform.

OSC 2 - This single oscillator generates a SQUARE waveform.

Features include pitch o set, independent level control, pitch modulation and

tone control modulation of the square waveform.

NOISE - This generates a NOISE waveform. The NOISE generator is a completely

analog implementation and produces pink noise with a gentle roll o of

lower frequencies.

8.3.1 OSC 1 PITCH MOD FADER

The OSC 1 PITCH MOD fader controls the amount of PITCH MODULATION applied

to the OSC1 waveforms. The PITCH MODULATION SOURCE is selected in the OSC

EDIT page described later in this section. Pitch modulation is often used to create

a vibrato e ect, but can be used in many other ways. The range of modulation is

very wide, allowing both traditional and creative modulations.

Controlling the frequency using an external signal is a form of frequency

modulation (FM), however as FM is more commonly used to describe the

use of an audio oscillator modulating another audio oscillator the use of the

term PITCH MODULATION is preferred in this instance.

Note: Because the DeepMind 12 LFO can reach well into the audio range

(1280 Hz) it is possible to create traditional frequency modulation (FM) when the

LFO is used as the source for PITCH MODULATION of the OSCs.

The diagram below shows the waveforms obtained with LFO control of OSC 1:

As you increase the amount of PITCH MODULATION the variance in the pitch of

oscillator will increase resulting in larger increases and decreases as

demonstrated in the diagram below. The PITCH MODULATION will a ect both the

SAWTOOTH and SQUARE waveforms produced by OSC 1.

The OSC 1 PITCH MOD range is from 0.00cents to 36.0 semitones. The default OSC

1 PITCH MOD setting is 0.00cents.

The OSC 1 PITCH MOD fader has a non-linear response which gives more

resolution at smaller settings, to allow delicate or  ne use of the modulation. The

response of the OSC 1 PITCH MOD fader is shown below:

OSC 1 (SAW)

LFO (SIN)

PITCH MOD

OSC 1 PITCH MODULATION (LFO AS SOURCE)

OSC 1 (SQR)

LFO (SIN)

PITCH MOD

OSC 1 PITCH MODULATION AMOUNT (LFO AS SOURCE)

OSC 1 (SQR)

LFO (SIN)

PITCH MOD LOW

PITCH MOD MED

PITCH MOD HIGH

36

0

010

PITCH MOD Fader Response

Fader Position

Modulation Depth (semitones)

53 DeepMind 12 User Manual

The fader position, current value and stored value for the OSC 1 PITCH MOD fader

is shown on the PROG screen. There is also a visualization of the modulation as

shown below. The arrows indicate the polarity of the modulation..

Note: for ENVELOPE sources the arrow will only point in the UP direction

indicating that the modulation will be positive from the base pitch.

Note: for Uni-polar LFO sources the arrow will only point in the UP direction

indicating that the modulation will be positive from the base pitch.

The default source for the pitch modulation is LFO1. For more information on

selecting the OSC 1 pitch modulation source please consult the section later in

this document.

8.3.2 OSC 1 PWM FADER

The OSC 1 PWM fader controls the PULSE WIDTH of the OSC 1 SQUARE waveform,

or the depth of PULSE WIDTH MODULATION (PWM) applied to the OSC1 SQUARE

waveform. The PWM SOURCE is selected in the OSC EDIT page described later

in this section. When the PWM source is set to MANUAL, the fader controls the

PULSE WIDTH. When the PWM source is set to any of modulation sources the

fader controls the depth of PULSE WIDTH MODULATION.

PWM adds harmonic structure to the sound and is often used to create a phasing/

movement e ect, or used when creating string type sounds and sonic drones.

The pulse wave (aka rectangle wave) is often described as more"narrow

sounding" than a fully symmetrical square wave. As the pulse width modulation

is increased the "thinner" or "more hollow" the sound will become. Very high

values of PWM played at very low frequencies will start to sound like clicks, pops

or thumps.

As you increase the PULSE WIDTH the ratio of the positive cycle to the negative

cycle (also jointly known as duty cycle) will increase. The PULSE WIDTH

MODULATION does not a ect the SAWTOOTH waveform.

The OSC 1 PWM range is from 50.0% (symmetrical square-wave) to 99.0% (short

pulsewave). The default OSC 1 PWM setting is 50.0%.

With a PULSE wave, the harmonic content changes depending on the pulse

width. It is characterized by a lack of the nth harmonic series when the pulse

width is 1/n. The example below does not have 3rd, 6th, or 9th harmonics

because the pulse width is 1/3 (33%).

PULSE WIDTH MODULATION

50%

75%

99%

54 DeepMind 12 User Manual

The characteristics of the PULSE waveform are shown below:

The fader position, current value and stored value for the OSC 1 PWM fader is

shown on the PROG screen. There is also a visualization of the modulation as

shown below.

Note: Whenever two waveforms are shown, the top waveform represents the

summed output of the OSCs and the bottom waveform shows the parameter

being adjusted.

The summed output shows 4 cycles and the parameter being adjusted shows a

single cycle allowing you to see the detail of the changes you are making while

adjusting the parameter.

Note: When an LFO is used as a PWM source, the arrows indicate the range of

modulation as shown below. In this mode the PWM fader is used to adjust the

amount of modulation from 0 to +/- 49%..

Note: When an ENVELOPE is used as a PWM source, the arrows indicate the range

of modulation as shown below. In this mode the PWM fader is used to adjust the

amount of modulation from 0 to +/- 49%:.

8.3.3 SAWTOOTH WAVEFORM SWITCH

This switch controls the SAWTOOTH waveform output for OSC 1.

The SAWTOOTH waveform has a rasping, buzzy and hard sound. Classic

synthesizer basses, strings, brass and pad sounds are often created using

sawtooth waveforms. The large range of harmonic content makes the SAWTOOTH

waveform a good candidate to start with when creating a program that you want

to sound "fat".

The SAWTOOTH waveform contains a fundamental sine wave and all of its

integral harmonic sine waves at a  xed ratio.

The characteristics of the SAWTOOTH waveform are shown below:

The SAWTOOTH waveform output can be On/O . The default program

setting is On.

HARMONIC

CONTENT

f 2nd 7th 8th

PULSE WAVE

OSC

(33% PULSE)

4th 5th

ON=SAWTOOTH

OSC (SAW)

HARMONIC

CONTENT

f 2nd 3rd 4th 5th 6th 7th 8th 9th 10th

SAWTOOTH WAVE

55 DeepMind 12 User Manual

Note: The OSC 1 SAWTOOTH waveform output can be used independently or in

combination with the OSC 1 SQUARE waveform output.

There is also a visualization of the SAWTOOTH waveform as shown below:

8.3.4 SQUARE WAVEFORM SWITCH

This switch controls the SQUARE waveform output for OSC 1.

The SQUARE waveform has a hollow sound, which does not sound as rich as

a sawtooth waveform due to the lack of even harmonics. Traditionally it is

often used to emulate a clarinet because of its similarity to the output of the

instrument. However in modern electronic music it is commonly used to thin,

nasal or cavernous sounds.

The SQUARE waveform contains a fundamental sine wave and its odd numbered

harmonics at a  xed ratio. The level of each harmonic is the same as sawtooth

wave. I.e. the content of nth harmonic is 1/n, except there are no even numbered

harmonics present.

The characteristics of the SQUARE waveform are shown below:

The SQUARE waveform output can be On/O . The default program setting is On.

Note: The OSC 1 SQUARE waveform output can be used independently or in

combination with the OSC 1 SAWTOOTH waveform output.

There is also a visualization of the SQUARE waveform as shown below:

8.3.5 OSC 2 PITCH MOD FADER

The OSC 2 PITCH MOD fader controls the amount of PITCH MODULATION applied

to the OSC 2 SQUARE waveform. The PITCH MODULATION SOURCE is selected in

the OSC EDIT page described later in this section. Pitch modulation is often used

to create a vibrato e ect, but can be used in many other ways. The range of

modulation is very wide, allowing both traditional and creative modulations.

Controlling the frequency using an external signal is a form of frequency

modulation (FM), however as FM is more commonly used to describe the use of

an audio oscillator modulating another audio oscillator the use of an LFO signal

the term PITCH MODULATION is preferred in this instance.

Note: Because the DeepMind 12 LFO can reach well into the audio range

(1280 Hz) it is possible to create traditional frequency modulation (FM) when the

LFO is used as the source for PITCH MODULATION of the OSCs

The diagram below shows the waveforms obtained with LFO control of OSC 2.

ON=SQUARE

HARMONIC

CONTENT

f 3rd 5th 7th 9th

SQUARE WAVE

OSC (SQR)

OSC 2 PITCH MODULATION

OSC 2

LFO (SIN)

PITCH MOD

56 DeepMind 12 User Manual

As you increase the amount of PITCH MODULATION the variance in the pitch of

oscillator will increase resulting in larger increases and decreases as

demonstrated in the diagram below:.

The OSC 2 PITCH MOD range is from 0.00cents to 36.0 semitones. The default OSC

2 PITCH MOD setting is 0.00cents.

The OSC 2 PITCH MOD fader has a non-linear response which gives more

resolution at smaller settings, to allow delicate or  ne use of the modulation. The

response of the OSC 2 PITCH MOD fader is shown below:

The fader position, current value and stored value for the OSC 2 PITCH MOD fader

is shown on the PROG screen. There is also a visualization of the waveform as

shown below. The arrows indicate the polarity of the waveform.

Note: for ENVELOPE sources the arrow will only point in the UP direction

indicating that the base modulation will be positive from the base pitch.

Note: for Uni-polar LFO sources the arrow will only point in the UP direction

indicating that the base modulation will be positive from the base pitch.

The default source for the pitch modulation is LFO1. For more information on

selecting the OSC 1 pitch modulation source please consult the section later in

this document.

8.3.6 OSC 2 TONE MOD FADER

The OSC 2 TONE MOD fader controls the TONE MODULATION of the OSC 2 SQUARE

waveform, The TONE MOD SOURCE is selected in the OSC EDIT page described

later in this section. When the TONE MOD source is set to MANUAL, the fader

controls the TONE MODULATION. When the TONE MOD source is set to any of the

modulation sources the fader controls the depth of TONE MODULATION.

TONE MODULATION can be used in many ways e.g. to create a double phasing

e ect, or used when creating complex string type sounds. The harmonic

structure of the OSC changes considerably when using TONE MODULATION, and

the results can often have a metallic quality.

OSC 2 PITCH MODULATION AMOUNT (LFO AS SOURCE)

OSC 2

LFO (SIN)

PITCH MOD LOW

PITCH MOD MED

PITCH MOD HIGH

36

0

010

PITCH MOD Fader Response

Fader Position

Modulation Depth (semitones)

57 DeepMind 12 User Manual

As you increase the amount of TONE MODULATION the positive and negative parts

of the cycle are split by a pulse. The further you increase the fader, the width of

the pulse increases.

The TONE MOD range is from 50%(symmetrical square-wave) to 100% (pulse

interrupt is 60% of half cycle). The default TONE MOD setting is 50%.

The fader position, current value and stored value for the TONE MOD fader is

shown on the PROG screen. There is also a visualization of the waveform as

shown below

Note: for ENVELOPE sources the arrow will only point in the UP direction

indicating the range of modulation. In this mode the TONE MOD fader is used to

adjust the amount of modulation from 0 to +/- 49%

Note: for Uni-polar LFO sources the arrow will only point in the UP direction

indicating the range of modulation. In this mode the TONE MOD fader is used to

adjust the amount of modulation from 0 to +/- 49%.

8.3.7 OSC 2 PITCH FADER

The OSC 2 PITCH fader controls the PITCH of the OSC 2 SQUARE waveform. The

pitch can be tuned to match the pitch of OSC1, o set slightly to create a wider

sound, or o set more to create harmonic overtones.

As you increase/decrease the PITCH fader the pitch of the oscillator will increase/

decrease.

The OSC 2 PITCH range is from -12.0 semitones to +12.0 semitones. The default

OSC 2 PITCH setting is 0 semitones.

The fader position, current value and stored value for the OSC 2 PITCH fader is

shown on the PROG screen. There is also a visualization of the pitch setting as

shown below:

Note: The centre of the line shown on the visualization highlights the  ne

resolution that is available around the centre point. Here the units of adjustment

will change from semitones to cents

TONE MODULATION

50%

62.5%

75%

87.5%

100%

100%

60%

OSC 2 PITCH

0 (KEY PITCH)

-12 SEMITONES

+12 SEMITONES

58 DeepMind 12 User Manual

8.3.8 OSC 2 LEVEL FADER

The OSC 2 LEVEL fader controls the LEVEL of the OSC 2 SQUARE waveform. The

level setting can be used to adjust balance between OSC 1 and OSC 2.

The balance between OSC 1 and and OSC 2 when when used together allows you

to increase the sonic palette of the program. Combing oscillators can be done to

create new waveforms and the harmonic structure of the program. By slightly

detuning the oscillators you can create bigger, thicker sounds. Detuning in small

and equal increments will not make a noticeable di erence to the base pitch of

the sound, but as you increase the amount of detuning it will start to become

noticeable. Detuning can be done in musical intervals e.g. a  fth, or a seventh,

to add harmony to a pad sound or even an entire octave to give a bass program a

deeper sound.

The OSC 2 LEVEL can be set to O , or its operational range is from -48 to 0.0 dB.

The default OSC 2 LEVEL setting is 0 .

The fader position, current value and stored value for the OSC 2 LEVEL fader

is shown on the PROG screen. There is also a visualization of the waveform as

shown below.

Note: It is important to note that the visualization shows the combination of OSC

1 and OSC 2.

8.3.9 OSC SYNC SWITCH

This switch controls the synchronisation of the OSCs.

The OSC 1 pitch is set by the keys that you play, and the OSC 2 pitch may be tuned

to (or detuned from) this frequency. By applying hard synchronisation of OSC 2 to

OSC1, every time the OSC 1 cycle starts again, the OSC 2 will be re-triggered,

regardless of its position. If OSC 2 is tuned to a lower frequency than OSC 1 it will

be re-triggered before it completes an entire cycle, and if it is tuned to a higher

frequency it will be re-triggered during a later cycle. This ensures that the OSCs

are playing at the same frequency, however the irregular cycle of OSC 2 can create

complex timbres and rich harmonies.

OSC 2 LEVEL

0FF

-12.0 dB

0.0 dB

ON=SYNC ACTIVE

OSC 1 (SAW)

MASTER

OSC SYNC EXAMPLE 1 - OSC2 LOWER FREQUENCY THAN OSC1

OSC SYNC EXAMPLE 1 - OSC2 LOWER THAN 1/2 OF OSC1

OSC SYNC EXAMPLE 1 - OSC2 HIGHER FREQUENCY THAN OSC1

OSC 1 (SQR)

MASTER

OSC 2 SYNC OFF

OSC 2 SYNC OFF

OSC 2 SYNC ON

OSC 2 SYNC ON

OSC 1 (SQR)

MASTER

OSC 2 SYNC OFF

OSC 2 SYNC ON

59 DeepMind 12 User Manual

Note: If OSC 2 is lower than 1/2 of the frequency of OSC 1 then there will be no

output from OSC 2 when SYNC is ON because the waveform will never reach its

negative cycle.

The OSC SYNC option can be On/O . The default program setting is O .

There is also a visualization of the SYNC waveform as shown below

8.3.10 NOISE LEVEL FADER

The NOISE LEVEL fader controls the LEVEL of the NOISE signal.

The noise generator is implemented using analog circuitry and creates pink

noise with a low frequency roll-o designed speci cally for the DeepMind 12.

The noise generator is commonly used with non-pitched sounds or non-pitched

components of a sound e.g. a snare drum or an atmospheric sound.

Pink noise contains equal amounts of energy in each octave. As human hearing is

roughly logarithmic, this type of noise sounds as if it has an equal amount of all

frequencies and produces a rushing sound similar to that of a waterfall.

The NOISE LEVEL can be set to O , or its operational range is from -48.1 dB to

0.0 dB. The default NOISE LEVEL setting is 0 .

The fader position, current value and stored value for the NOISE LEVEL fader is

shown on the PROG screen. There is also a visualization of the noise signal as

shown below:

8.3.11 OSC EDIT SWITCH (OSC 1)

To access the OSC EDIT menu press the OSC EDIT switch.

The OSC EDIT switch will then start  ashing and the OSC 1 EDIT menu

is then shown:

To navigate the options in the OSC 1 EDIT menu, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range:

Note: At this point if you wish to access the OSC 2 EDIT menu, press the EDIT

switch again.

Shortcut Note: To change any of the OSC Modulation sources press and hold the

OSC EDIT switch. While holding the switch you can use any of the following faders

to set the source for the respective parameter

8.3.12 OSC 1 MENU

The following options are available in the OSC 1 EDIT menu:

RANGE - This option allows you selects the base pitch of the OSC as follows:

16' - The lowest note on the keyboard (C) is tuned to 16.35 Hz.

8' - The lowest note on the keyboard (C) is tuned to 32.7 Hz.

4'- The lowest note on the keyboard (C) is tuned to 65.4 Hz.

The default setting for the RANGE is 8'.

FLASHING=EDIT

60 DeepMind 12 User Manual

P. M OD -S RC - This option allows you to select the source for the amount of PITCH

MODULATION from the following:

•

• LFO-1 - Bipolar use of the LFO 1 waveform.

•

• LFO-2 - Bipolar use of the LFO 2 waveform.

There is also a visualization of the modulation as shown below. The arrows

indicate the polarity of the modulation.

•

• ENV-1 - Unipolar use of the ENV 1 envelope.

•

• ENV-2 - Unipolar use of the ENV 2 envelope.

•

• ENV-3 - Unipolar use of the ENV 3 envelope.

Note: In the visualization for ENVELOPE sources the arrow will only point in the

UP direction indicating that the modulation will be positive from the base pitch.

•

• LFO-1(Uni) - Unipolar use of the LFO 1 waveform.

•

• LFO-2(Uni) - Unipolar use of the LFO 1 waveform.

Note: In any of the Unipolar (Uni) modes the waveform is only used for positive

modulation. This is useful when you want the note to play at the original

frequency and modulation uses that as a reference point (Unipolar), rather than

have the note modulated to positive and negative o sets (Bipolar).

The default setting for the P.MOD-SRC is LFO-1.

Note: In the visualization for Uni-polar LFO sources the arrow will only point in

the UP direction indicating that the modulation will be positive from the base

pitch.

AFT>P.MOD - This option controls how much PITCH MODULATION is increased

by AFTERTOUCH pressure. This allows you to expressively control the PITCH

MODULATION and its e ect using key pressure

The AFT>P.MOD range is from 0-255, and the default setting is 0 (O ).

WHEEL>P.MOD -This option controls how much PITCH MODULATION depth is

increased by the MOD WHEEL position. This allows you to expressively control the

PITCH MODULATION and its e ect using the MOD WHEEL.

The AFT>P.MOD range is from 0-255, and the default setting is 0 (O ).

PWM-SRC - This option allows you to select the source for the amount of PULSE

WIDTH MODULATION from the following:

•

• MANUAL - In this mode the PWM fader is used to manually adjust the PULSE

WIDTH.

OSC 1 (SAW)

LFO (SIN)

PITCH MOD

OSC 1 PITCH MODULATION (LFO AS SOURCE)

OSC 1 (SQR)

LFO (SIN)

PITCH MOD

OSC 1 PITCH MODULATION AMOUNT (ENVELOPE AS SOURCE)

OSC 1 (SQR)

ENVELOPE

ATTACK DECAY

SUSTAIN

RELEASE

PITCH MOD

OSC 1 (SAW)

OSC 1 WITH

PITCH MOD

OSC 1 WITH

PITCH MOD

OSC 1 PITCH MODULATION (BIPLOAR/UNIPOLAR LFO AS SOURCE)

OSC 1 (SQR)

LFO (SQR)

BIPOLAR

LFO (SQR)

UNIPOLAR

61 DeepMind 12 User Manual

•

• LFO-1 - Bipolar use of the LFO 1 waveform. In this mode the PWM fader is

used to adjust the amount of modulation from 0 to +/- 49%.

•

• LFO-2 - Bipolar use of the LFO 2 waveform. In this mode the PWM fader is

used to adjust the amount of modulation from 0 to +/- 49%.

Note: When an LFO is used as a PWM source, the arrows indicate the range of

modulation as shown below:

•

• ENV-1 - Unipolar use of the ENV 1 envelope. In this mode the PWM fader is

used to adjust the amount of modulation from 0 to +/- 49%.

•

• ENV-2 - Unipolar use of the ENV 2 envelope. In this mode the PWM fader is

used to adjust the amount of modulation from 0 to +/- 49%.

•

• ENV-3 - Unipolar use of the ENV 3 envelope. In this mode the PWM fader is

used to adjust the amount of modulation from 0 to +/- 49%.

Note: When an ENVELOPE is used as a PWM source, the arrows indicate the range

of modulation as shown below:.

P.MOD MODE - This option allows you to select which oscillators are controlled

by the OSC 1 PITCH MOD fader.

Note: It is useful to have both OSCs responding for e ects like tremolo.

•

• OSC1+2 -Both OSCs have PITCH MODULATION applied to them.

•

• OSC1 - Only OSC 1 has PITCH MODULATION applied to it.

KEY-DN-RESET - This option allows you to reset the phase of oscillator waveform

to start from its reset point each time a key is pressed.

The default setting for KEY-DN-RESET is O .

To exit the OSC EDIT menu press the PROG switch to return the main display, or to

continue to the OSC 2 EDIT menu press the OSC EDIT switch again.

8.3.13 OSC EDIT SWITCH (OSC 2)

To access the OSC EDIT menu press the OSC EDIT switch.

The OSC EDIT switch will then start  ashing and the OSC 1 EDIT menu is then

shown. Press the EDIT switch again to show the OSC 2 EDIT menu:

To navigate the options in the OSC 2 EDIT menu, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range.

8.3.14 OSC 2 MENU

The following options are available in the OSC 2 EDIT menu:

RANGE - This option allows you selects the base pitch of the OSC as follows:

16' - The lowest note on the keyboard (C) is tuned to 16.35 Hz.

8' - The lowest note on the keyboard (C) is tuned to 32.7 Hz.

4'- The lowest note on the keyboard (C) is tuned to 65.4 Hz.

The default setting for the RANGE is 8'.

OSC 1 PULSE WIDTH MODULATION (LFO AS SOURCE)

OSC 1 (SQR)

LFO (SIN)

PWM

OSC 1 PULSE WIDTH MODULATION (ENVELOPE AS SOURCE)

OSC 1 (SQR)

ENVELOPE

ATTACK DECAY

SUSTAIN

RELEASE

PWM

OSC 1 (SAW)

KEY-DN-RESET

OFF

KEY-DN-RESET

ON

OSC 1 KEY DOWN RESET

KEY PRESS KEY PRESS KEY PRESS

FLASHING=EDIT

62 DeepMind 12 User Manual

P. M OD -S RC - This option allows you to select the source for the amount of PITCH

MODULATION from the following:

•

• LFO-1 - Bipolar use of the LFO 1 waveform.

•

• LFO-2 - Bipolar use of the LFO 2 waveform.

There is also a visualization of the modulation as shown below. The arrows

indicate the polarity of the modulation..

•

• ENV-1 - Bipolar use of the ENV 1 envelope.

•

• ENV-2 - Bipolar use of the ENV 2 envelope.

•

• ENV-3 - Bipolar use of the ENV 3 envelope.

Note: In the visualization for ENVELOPE sources the arrow will only point in the

UP direction indicating that the modulation will be positive from the base pitch.

•

• LFO-1(Uni) - Unipolar use of the LFO 1 waveform.

•

• LFO-2(Uni) - Unipolar use of the LFO 1 waveform.

Note: In any of the Unipolar (Uni) modes the waveform is only used for positive

modulation.

The default setting for the P.MOD-SRC is LFO-1.

Note: In the visualization for Uni-polar LFO sources the arrow will only point in

the UP direction indicating that the modulation will be positive from the base

pitch.

The default setting for the P.MOD-SRC is LFO-1.

AFT>P.MOD - This option controls how much PITCH MODULATION is increased

by AFTERTOUCH pressure. This allows you to expressively control the PITCH

MODULATION and its e ect using key pressure.

The AFT>P.MOD range is from 0-255, and the default setting is 0 (O ).

WHEEL>P.MOD -This option controls how much PITCH MODULATION depth is

increased by the MOD WHEEL position. This allows you to expressively control the

PITCH MODULATION and its e ect using the MOD WHEEL.

The MOD WHEEL>P.MOD range is from 0-255, and the default setting is 0 (O ).

T.MOD-SRC - This option allows you to select the source for the amount of TONE

MODULATION from the following:

•

• MANUAL - In this mode the TONE MOD fader is used to manually adjust the

PWM.

•

• LFO-1 - Bipolar use of the LFO 1 waveform. In this mode the TONE MOD fader

is used to adjust the amount of modulation from 0 to +/- 49%.

•

• LFO-2 - Bipolar use of the LFO 2 waveform. In this mode the TONE MOD fader

is used to adjust the amount of modulation from 0 to +/- 49%.

OSC 2 PITCH MODULATION AMOUNT (LFO AS SOURCE)

OSC 2

LFO (SIN)

PITCH MOD LOW

PITCH MOD MED

PITCH MOD HIGH

OSC 2 PITCH MODULATION AMOUNT (ENVELOPE AS SOURCE)

OSC 1 (SQR)

ENVELOPE

ATTACK DECAY

SUSTAIN

RELEASE

PITCH MOD

OSC 2 PITCH MODULATION (UNIPOLAR LFO AS SOURCE)

OSC 1 (SQR)

PITCH MOD

LFO (SIN)

UNIPOLAR

OSC 2 TONE MODULATION (LFO AS SOURCE)

OSC 2 (SQR)

LFO (SIN)

TONE MOD

63 DeepMind 12 User Manual

Note: When an LFO is used as a TONE MOD source, the arrows indicate the range

of modulation as shown below:

•

• ENV-1 - Bipolar use of the ENV 1 envelope. In this mode the TONE MOD fader

is used to adjust the amount of modulation from 0 to +/- 49%.

•

• ENV-2 - Bipolar use of the ENV 2 envelope. In this mode the TONE MOD fader

is used to adjust the amount of modulation from 0 to +/- 49%.

•

• ENV-3 - Bipolar use of the ENV 3 envelope. In this mode the TONE MOD fader

is used to adjust the amount of modulation from 0 to +/- 49%.

Note: When an ENVELOPE is used as a TONE MOD source, the arrows indicate the

range of modulation as shown below:.

To exit the OSC EDIT menu press the PROG switch to return the main display, or

because you are in the OSC 2 EDIT menu you can press the OSC EDIT switch again

to return to the main display.

8.4 POLY

The POLY section is where you can control all settings related to the POLYPHONY

of the DeepMind 12. The options allow you to be highly creative in your use of the

polyphonic, unison and monophonic capabilities of the voice structure.

Having 12 voices gives you the ability to play 12 simultaneous notes, allowing

the creation of large chords, or being able to play complex sequences without

needing to worry about a note being cut o because there are not enough voices.

When playing voices in unison, you also have the ability to de-tune the voices.

The POLY EDIT menu also allows access to all settings related to PITCH

management, including transposition, portamento, pitch bend and tuning.

8.4.1 UNISON DETUNE FADER

The UNISON DETUNE fader controls how much detuning is applied across voices

when using any of the UNISON modes. The UNISON DETUNE can be used to

create thicker and richer sounds. This is a powerful aspect of the DeepMind 12

architecture. Having 12 independent analog voices can make some extremely

luxurious and sonically gigantic sounds.

When UNISON DETUNE is applied, up to +/- 50 cents of tuning is spread over the

number of voices used in UNISON.

The UNISON DETUNE range is from +/-0.0cents to 50.0cents. The default UNISON

DETUNE setting is 0.0cents(O ).

Note: When using UNISON DETUNE in combination with the OSC KEYDOWN

RESET setting you will hear the a ects of phase drift much more clearly as the

OSCs will all start from the same point on their waveforms.

OSC 2 TONE MODULATION (ENVELOPE AS SOURCE)

OSC 2 (SQR)

ENVELOPE

ATTACK DECAY

SUSTAIN

RELEASE

TONE MOD

64 DeepMind 12 User Manual

The fader position, current value and stored value for the UNISON DETUNE fader is

shown on the PROG screen. There is also a visualization of the detuning amount

as shown below:

8.4.2 POLY EDIT SWITCH

To access the POLY EDIT menu press the POLY EDIT switch.

The POLY EDIT switch will then start  ashing and either the VOICE PARAMETERS

or PITCH PARAMETERS menu is then shown (depending on what you had last

worked on, as the location is remembered.

8.4.3 VOICE PARAMETERS MENU

This is the VOICE PARAMETERS menu:

To navigate the options in the VOICE PARAMETERS menu, use the UP, DOWN,

switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range:

Note: At this point if you wish to access the PITCH PARAMETERS menu, press the

EDIT switch again.

The following options are available in the VOICE PARAMETERS menu:

POLYPHONY - This allows you to choose how the DeepMind 12 voices are

allocated from one of the following options:

•

• Poly - A single voice is allocated to each note.

•

• Unison-2 - The next available two voices are allocated to each note played.

Detuning is applied as shown below:

Unison-3 - The next available three voices are allocated to each note played.

Detuning is applied as shown below:

•

• Unison-4 - The next available four voices are allocated to each note played.

Detuning is applied as shown below:

FLASHING=EDIT

UNISON 2

WAVEFORM

UNISON 2

SPECTRUM

ROOT NOTE

FREQUENCY

MAX -VE

DETUNE

MAX +VE

DETUNE

UNISON 2

12

UNISON 3

WAVEFORM

UNISON 3

SPECTRUM

ROOT NOTE

FREQUENCY

MAX -VE

DETUNE

MAX +VE

DETUNE

UNISON 3

123

UNISON 4

WAVEFORM

UNISON 4

SPECTRUM

ROOT NOTE

FREQUENCY

MAX -VE

DETUNE

MAX +VE

DETUNE

UNISON 4

1234

65 DeepMind 12 User Manual

•

• Unison-6 - The next available six voices are allocated to each note played.

Detuning is applied as shown below:

•

• Unison-12 - All 12 voices are allocated to each note played

•

• Mono - The same voice is allocated to every note played.

•

• Mono-2 - The same two voices are allocated to each note played. Voices are

spread in the same way as Unison-2 mode.

•

• Mono-3 - The same three voices re allocated to each note played. Voices are

spread in the same way as Unison-3 mode.

•

• Mono-4 - The same four voices are allocated to each note played. Voices are

spread in the same way as Unison-4 mode.

•

• Mono-6 -The same six voices are allocated to each note played. Voices are

spread in the same way as Unison-6 mode.

•

• Poly-6 - A single voice is allocated to each note played, but polyphony is

limited to the next available six notes.

•

• Poly-8 - A single voice is allocated to each note played, but polyphony is

limited to the next available eight notes.

Note: When an even number of voices are used (Unison2/4/6/12, Mono 2/4/6)

the voices are spread across the spectrum evenly which means the root note

is not actually played. However if an odd number of voices are used, when the

voices are spread across the spectrum one voice will be playing the root note.

UNISON DETUNE - This option is the same as the UNISON DETUNE fader on the

surface. Any changes on the surface will be re ected here.

The UNISON DETUNE range is from +/-0.0cents to 50.0cents (0 to 255).

The default UNISON DETUNE setting is 0.0cents(O ).

PRIORITY - When in monophonic mode, or when more notes are played than

there are voices available (due to polyphonic/unison settings), this mode controls

which notes are prioritized.

•

• Lowest - In lowest note priority, when a newly requested note is lower

in pitch than the notes currently being played then it will be given priority

and will steal the voice that is playing the highest note.

•

• Highest - In highest note priority, when a newly requested note is

higher in pitch than the notes currently being played then it will be given

priority and will steal the voice that is playing the lowest note.

•

• Last - In this mode the notes are prioritized based on the order in which they

are played. When a newly requested note is triggered while all voices are

playing, it steals the voice used by the note played least recently.

The default PRIORITY setting is Last.

ENV-TRIGGER - The envelopes can be triggered in di erent ways. This allows you

to choose a mode from the following options:

•

• Mono - In this triggering mode the voice will start its attack stage from the

current envelope level. I.e. its last level from the previous release.

•

• Retrigger - In this triggering mode the envelope will be reset to zero and

then start its attack stage.

•

• Legato - In this triggering mode the envelope does not re-trigger when a

new note is played. The only time the envelope will start the attack stage

again is once the note is released.

•

• One-shot - In this triggering mode the envelope will be reset to zero and

then start its attack stage. Once the decay phase is complete the envelope

will jump immediately to its release stage (i.e. there is no sustain phase)

The default triggering mode is Mono.

OSC-DRIFT - This option allows you to recreate the tuning drift that vintage

analog synthesizers have.

As you increase the OSC-DRIFT value, the pitch of the oscillators will be slowly

modulated at random.

OSC-DRIFT is applied to both OSC 1 and OSC 2.

The OSC-DRIFT range is from 0 to 255. The default OSC-DRIFT setting is 0.

PARAM-DRIFT - This option allows you to recreate the drift that many

parameters in a vintage analog synthesizers have.

As you increase the PARAM-DRIFT value, the drift distances will increase.

Note: The parameters which DRIFT is applied to are OSC1 PITCH MOD, OSC1 PWM,

OSC2 PITCH MOD, OSC2 TONE MOD, VCF FREQ, VCF RES, VCF ENV DEPTH, VCF LFO

DEPTH, VCA ENV DEPTH and MOD ENV DEPTH.

The PARAM-DRIFT range is from 0 to 255. The default PARAM-DRIFT setting is 0.

DRIFT-RATE - This controls the RATE at which the OSC-DRIFT and PARAM-DRIFT

operate at. It is important to note that each voice has independent random DRIFT

generators for the OSC-DRIFT and the PARAM-DRIFT to more closely replicate the

characteristics of a vintage synthesizer.

The rate is controlled by a random timer which generates a ramp between a

multiplier of 1x and a multiplier of 2x the rate set by the DRIFT-RATE parameter.

The OSC-DRIFT range is from 0(25 ms-50 ms) to 255(2.5 s-5.0 s). The default

OSC-DRIFT setting is 0.

To summarize, if at 0, each “drift” will be a random time between 25 and 50 ms

and then the parameter drifts to another random value. At 255, each “drift”

will be a random time between 2.5 s and 5.0 s and then the parameter drifts to

another random value.

To exit the VOICE PARAMETERS menu press the PROG switch to return the main

display.

UNISON 6

WAVEFORM

UNISON 6

SPECTRUM

123456

ROOT NOTE

FREQUENCY

MAX -VE

DETUNE

MAX +VE

DETUNE

UNISON 6

UNISON 12

WAVEFORM

UNISON 12

SPECTRUM

ROOT NOTE

FREQUENCY

MAX -VE

DETUNE

MAX +VE

DETUNE

UNISON 12

2 4 61 3 5 7 98 11 1210

66 DeepMind 12 User Manual

8.4.4 PITCH PARAMETERS MENU

To access the PITCH PARAMETERS menu press the POLY EDIT switch.

The POLY EDIT switch will then start  ashing and the VOICE PARAMETERS menu is

then shown. Press the EDIT switch again to show the PITCH PARAMETERS menu:

Note: The page location memory function can be turned o using the

REMEMBER PAGES function in the GLOBAL SETTINGS menu.

To navigate the options in the PITCH PARAMETERS menu, use the UP, DOWN,

switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range:

The following options are available in the PITCH PARAMETERS menu:

TRANSPOSE - This option allows you to TRANSPOSE notes played on the

keyboard. The notes played can be transposed in steps of single semitones.

The TRANSPOSE range is from -48 to +48. The default TRANSPOSE setting is 0.

So a transpose of -7 would mean that all played keys would be transposed down

by seven semitones.

PORTA-TIME - This option is the same as the PORTAMENTO knob on the surface.

Any changes on the surface will be re ected here.

The PORTAMENTO function makes the pitch of a note glide up or down from

the previously played note. The PORTAMENTO knob controls the time taken to

transition from the previous note to the currently played note.

The PORTAMENTO range is from 0(0.00s - instant change of note) to 255(10.00s of

glide). The default PORTAMENTO setting is 0(0.00s/O ).

PORTA-MODE - This option allows you to con gure the PORTAMENTO function

to operate in di erent ways depending on your requirements. The options are as

follows:

•

• Normal - In this mode the slide time between played notes is a  xed time,

regardless of overlapping notes or pitch distance. The sliding between notes

is linear.

•

• Fingered - In this mode the slide time between played notes is a  xed time,

regardless of pitch distance. Sliding is only applied when notes overlap. The

sliding between notes is linear.

•

• Fix-Rate - In this mode the slide time between played notes is a  xed rate,

regardless of overlapping notes. The pitch distance from note to note will

a ect the time it takes to slide between notes. The sliding between notes is

linear.

•

• Fix-Fing - In this mode the slide time between played notes is a  xed rate.

The pitch distance from note to note will a ect the time it takes to slide

between notes. Sliding is only applied when notes overlap. The sliding

between notes is linear.

•

• Exp - In this mode the slide time between played notes is a  xed rate. The

pitch distance from note to note will a ect the time it takes to slide between

notes. Sliding is only applied when notes overlap. The sliding between notes

is exponential.

•

• Exp-Fing - In this mode the slide time between played notes is a  xed

rate. The pitch distance from note to note will a ect the time it takes to

slide between notes. Sliding is only applied when notes overlap. The sliding

between notes is exponential.

•

• Fixed+2 - In this mode the note always starts at a pitch two semitones

above the played note regardless of overlapping notes or pitch distance. The

sliding between notes is exponential.

•

• Fixed-2 - In this mode the note always starts at a pitch two semitones below

the played note regardless of overlapping notes or pitch distance. The sliding

between notes is exponential.

•

• Fixed+5 - In this mode the note always starts at a pitch  ve semitones

above the played note regardless of overlapping notes or pitch distance. The

sliding between notes is exponential.

•

• Fixed-5 - In this mode the note always starts at a pitch  ve semitones below

the played note regardless of overlapping notes or pitch distance. The sliding

between notes is exponential.

•

• Fixed+12 - In this mode the note always starts at a pitch twelve semitones

(one octave) above the played note regardless of overlapping notes or pitch

distance. The sliding between notes is exponential.

•

• Fixed-12 - In this mode the note always starts at a pitch twelve semitones

(one octave) below the played note regardless of overlapping notes or pitch

distance. The sliding between notes is exponential.

•

• Fixed+24 - In this mode the note always starts at a pitch twenty-four

semitones (two octaves) above the played note regardless of overlapping

notes or pitch distance. The sliding between notes is exponential.

•

• Fixed-24 - In this mode the note always starts at a pitch twenty-four

semitones (two octaves) below the played note regardless of overlapping

notes or pitch distance. The sliding between notes is exponential .

FLASHING=EDIT

67 DeepMind 12 User Manual

PORTA-OSC-BAL - This option allows you to balance the application of PORTA-

TIME (I.e. the slide time between played notes) between OSC 1 and OSC 2.

When a positive setting is chosen, the OSC 1 PORTA-TIME will decrease. At its

maximum value (127) the OSC 1 PORTA-TIME will be zero and the pitch change

will happen immediately (no sliding).

When a negative setting is chosen, the OSC 2 PORTA-TIME will decrease. At its

minimum value (-127) the OSC 2 PORTA-TIME will be zero and the pitch change

will happen immediately (no sliding).

The PORTA-OSC-BAL parameter ranges from -128 to 127. The default setting is 0.

P.B EN D R ANG E+ - This option allows you to set the upper limit of the PITCH

WHEEL.

The P.BEND RANGE+ parameter can be varied from 0(0 notes) to 24(24 notes). The

default P.BEND RANGE+ setting is 2(2 notes).

P.B EN D R ANG E- - This option allows you to set the lower limit of the PITCH

WHEEL.

The P.BEND RANGE- parameter can be varied from 0(0 notes) to 24(24 notes). The

default P.BEND RANGE- setting is 2(2 notes).

GLOBAL-TUNE - This option allows you to adjust the GLOBAL TUNING for the

synthesizer. The range is -128 to 127.

To exit the PITCH PARAMETERS menu press the PROG switch to return the main

display, or because you are in the PITCH PARAMETERS menu you can press the

POLY EDIT switch again to return to the main display.

8.5 VCF

The VOLTAGE CONTROLLED FILTER (VCF) is an advanced  lter designed speci cally

for the DeepMind 12. The VCF  lter changes the tone color created by the OSCs

and NOISE generator by cutting o , or emphasizing frequencies/harmonics. The

VCF stage allows the low frequencies to pass and cuts o higher frequencies. This

approach is used by many classic subtractive synthesizers.

The VCF is a fully analog  lter, with the ability to be switched from a 2-pole/12 dB

per octave  lter to 4-pole/24 dB per octave  lter. The dB per octave refers to the

angle of the  lter's slope/response curve.

The VCF also has adjustable resonance which creates a narrow peak around

the  lter cut-o frequency. The DeepMind 12  lter is capable of being driven

into self oscillation when the resonance setting is high. Unlike many other

synthesizers, the synthesizer is capable of accurate pitch tracking even when the

 lter resonance is pushed to (and past) the point where the  lter starts to self-

oscillate. The self-oscillation is tuned so that you can play it as a fully polyphonic

3rd oscillator across the entire range of playable notes.

The VCF can be modulated dynamically by the VCF Envelope, LFO or Keyboard

Tracking. The VCF Frequency is also available in the Mod Matrix as a destination

where it can be modulated from any of the Mod Matrix sources.

8.5.1 VCF FREQ FADER

The VCF FREQ fader controls the cut-o frequency of the VCF. The VCF will begin

cutting frequencies below the cut-o frequency and continue to cut them at a

rate depending on the number of poles used.

You can use the  lter to sculpt the sonic characteristics of the OSCs and noise

generator, or you can dynamically adjust the fader to create sweeps of the  lter

which will create distinctive movement.

Modulating the cut-o frequency with sources such as an envelope generator,

with fast attack settings can help emulate the attack transients of natural

instruments, or be used to creative e ect.

PITCH (Hz)

Start Pitch PORTA-BAL 0

OSC 1 and OSC 2

Stop Pitch

TIME (seconds)

PORTAMENTO BALANCE

PITCH (Hz)

Start Pitch PORTA-BAL +VE

OSC 1 OSC 2

Stop Pitch

TIME (seconds)

PITCH (Hz)

Start Pitch PORTA-BAL +VE

OSC 2 OSC 1

Stop Pitch

TIME (seconds)

68 DeepMind 12 User Manual

The diagram below shows the results from high, medium and low settings of the

cut-o frequency when applied to the SAWTOOTH and SQUARE waveforms.

The VCF FREQ range is from 50.0 Hz to 20000.0 Hz. The default VCF FREQUENCY

setting is 20000.0 Hz(fully open).

The fader position, current value and stored value for the VCF FREQ fader is shown

on the PROG screen. There is also a visualization of the  lter curve as shown

below.

Note: The slope of the  lter will update depending on the use of a 2-pole or

4-pole con guration.

8.5.2 VCF RES FADER

The VCF RES fader controls the resonance of the  lter. When resonance is

increased the frequencies/harmonics/partials around the cut-o frequency are

emphasized. The resonance along with the  lter slope help de ne the character

of the  lter.

The DeepMind 12  lter is capable of being driven into self oscillation. Unlike many

other synthesizers, the synthesizer can guarantee an accurate pitch even when

the  lter resonance is pushed to (and past) the point where the  lter starts to

self-oscillate. When using this self-oscillating feature of the VCF as a sound

source, the VCF calibration ensures the correct response when playing the entire

scale of the keyboard. For more information please consult the section on

calibration later in this document.

The VCF RES range is from 0.0% to 100.0%. The default VCF RES setting is 0.0%.

The fader position, current value and stored value for the VCF RES fader is shown

on the PROG screen. There is also a visualization of the resonance as shown below

8.5.3 2-POLE SWITCH

This switch controls the con guration of poles used in the VCF.

The number of poles used in the  lter determines the angle of the  lters slope/

response curve.

The VCF uses 4-poles, but can be switched into 2-pole operation. If con gured for

4-pole operation the low-pass  lter rolls o signals above the cut-o frequency

at a rate of 24 dB/octave. When con gured for 2-pole operation the low-pass

 lter rolls o signals above the cut-o frequency at a rate of 12 dB/octave.

LEVEL (dB)

FREQUENCY (Hz)

HIGH

SAWTOOTH SQUARE

MED

LOW

VCF FREQUENCY

LEVEL (dB)

-3 dB

FREQUENCY (Hz)

LEVEL (dB)

-3 dB

FREQUENCY (Hz)

LEVEL (dB)

FREQUENCY (Hz)

LOW

SAWTOOTH SQUARE

MED

HIGH

VCF RESONANCE

LEVEL (dB)

FREQUENCY (Hz)

LEVEL (dB)

FREQUENCY (Hz)

ON=2P / OFF=4P

69 DeepMind 12 User Manual

This can be useful to control the sonic character of the  lter as the 2-pole mode

will allow more of the signal above the cut-o frequency to pass and sound

brighter / more natural. The 4-pole mode allows less of the signal above the

cut-o frequency to pass and sounds deeper/ more unusual.

The 2-POLE con guration can be On(2-Pole) or O (4-Pole). The default program

setting is O (4-Pole).

8.5.4 VCF EDIT SWITCH

To access the VCF menu press the VCF EDIT switch.

The VCF EDIT switch will then start  ashing and the VCF PARAMETERS menu is

then shown:

To navigate the options in the VCF PARAMETERS menu, use the UP, DOWN,

switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range:

The following options are available in the VCF PARAMETERS menu:

BASS-BOOST - This option engages an analog bass boost circuit. This setting

follows the BOOST switch status.

VELOCITY-SENS - This option controls how much the velocity at which you strike

the keys will a ect how much VCF envelope modulation is applied. I.e. the harder

you strike the keys, the more the  lter will open and the brighter the sound will

become (unless the operation is inverted using the INVERT switch).

The VELOCITY-SENS range is from 0 to 255. The default VELOCITY-SENS setting

is 128.

P. BE ND - FRE Q - This option controls how much the PITCH BEND WHEEL position

will a ect the cut-o frequency. I.e. the further you move the wheel forward

from its central position, the more the  lter will open and the brighter the sound

will become, the further you move the wheel backward from its central position,

the more the  lter will close and the darker the sound will become.

The P.BEND-FREQ range is from 0 to 255. The default P.BEND-FREQ setting is 128.

LFO-SELECT - This option allows you to select which LFO is assigned to the VCF

LFO MODULATION FADER.

You can select either LFO 1 or LFO 2. The default setting is LFO 2, which allows

you to use LFO 1 for voice modulation and keep the functionality separated. You

can of course use the same LFO to modulate the OSC and VCF if you desire.

AFT-LFO-DEPTH - This option controls how much the AFTERTOUCH pressure will

increase the LFO MODULATION DEPTH. This allows you to add LFO modulation of

the  lter frequency expressively while you play.

The AFT-LFO-DEPTH range is from 0 to 255. The default AFT-LFO-DEPTH setting

is 0.

MW-LFO-DEPTH - This option controls how much the MOD WHEEL position will

a ect the LFO MODULATION DEPTH. This allows you to add LFO modulation of the

 lter frequency expressively while you play.

The MW-LFO-DEPTH range is from 0 to 255. The default MW-LFO-DEPTH setting

is 0.

LPF-TYPE - This option is the same as the 2-POLE switch on the surface. Any

changes on the surface will be re ected here.

The LPF-TYPE con guration can be 2-POLE or 4-POLE. The default program

setting is 4-POLE.

8.5.5 VCF ENV FADER

The VCF ENV fader controls the amount of VCF ENVELOPE modulation that will be

applied to the cut-o frequency value.

When the cut-o frequency is modulated by the VCF ENVELOPE each note will be

a ected by the ADSR (and Curves) stages for the VCF ENVELOPE. You can use this

to apply subtle or aggressive modulation to the harmonic characteristics of each

note played for the duration they are playing.

When modulating the cut-o frequency using the VCF ENVELOPE, it is advised

to set the fader to a lower level when using normal polarity, and set it to a

higher level when using the INVERT function of the VCF ENVELOPE MODULATION

parameter.

When no ENV MODULATION is applied the  lter cut-o frequency will stay  xed

(unless other sources of modulation are applied).

The cut-o frequency setting can limit the modulation from the VCA ENVELOPE.

If the VCF FREQ fader is already at its maximum setting, and the  lter is already

wide open then no positive modulation can take the cut-o frequency higher.

VCF POLES ( CUT OFF SLOPE)

LEVEL (dB)

4-Pole 2-Pole

FREQUENCY (Hz)

FLASHING=EDIT

70 DeepMind 12 User Manual

This is also true for negative values when the VCF ENVELOPE is inverted.

The VCF ENV range is from 0.0% to 100.0%. The default VCF ENV setting is

0.0%(O ).

The fader position, current value and stored value for the VCF ENV fader is shown

on the PROG screen. There is also a visualization of the envelope amount (the

arrow pointing to the right) as shown below:

Note: When you invert the polarity of the envelope, the arrow indicating the

envelope modulation will be reversed and point to the left to indicate negative

modulation.

8.5.6 INVERT SWITCH

This switch controls the polarity of the VCF ENVELOPE modulation. When the

switch is on, the polarity of the envelope will be inverted.

It is advised to set the fader to a lower level when using normal polarity, and

set it to a higher level when using the INVERT function of the VCF ENVELOPE

MODULATION parameter.

The INVERT switch can be set to On or O . The default program setting is On.

8.5.7 VCF LFO FADER

The VCF LFO fader controls the amount of VCF LFO modulation that will be applied

to the cut-o frequency value. You can select which LFO will be used as the

modulation source in the VCF PARAMETERS menu.

When the cut-o frequency is modulated by the VCF LFO each note will be

a ected by the shape and speed of the LFO. You can use this aggressively to

create a wah pedal type e ect, or used subtly to add movement and variation to

the program.

When no LFO MODULATION is applied the  lter cut-o frequency will stay  xed

(unless other sources of modulation are applied).

The cut-o frequency setting can limit the modulation from the LFO. If the VCF

FREQ fader is already at its maximum setting, and the  lter is already wide open

then no positive modulation can take the cut-o frequency higher.

The VCF LFO range is from 0.0% to 100.0%. The default VCF LFO setting is

0.0%(O ).

The fader position, current value and stored value for the VCF LFO fader is shown

on the PROG screen. There is also a visualization of the LFO amount (the arrows

pointing left and right below the LFO-1 text) as shown below:

Note: The distance between the arrows represents the amount of LFO

modulation which is being applied to the  lter cut-o frequency.

Shortcut Note: To change the VCF LFO source press and hold the VCF EDIT

switch. While holding the switch you can use the VCF LFO fader to select the

source LFO. The following message will be shown to give you guidance while

holding the LFO 1 EDIT switch.

ON=INVERTED

71 DeepMind 12 User Manual

8.5.8 VCF KYBD FADER

The VCF KYBD fader controls the keyboard tracking of the VCF. The keyboard

tracking can be used to compensate the cut-o frequency of the  lter depending

on the notes being played.

It can prevent inconsistencies in the harmonic content caused by pitch changes.

When the VCF KYBD fader is raised, the higher the note (above the middle C)

played on the keyboard, the more the  lter opens. At the same time the lower the

note (below the middle C) played on the keyboard, the more the  lter closes.

This modulation can be used to emulate the response of a natural instrument, or

used to creative e ect.

The VCF KYBD range is from 0.0% to 100.0%. The default VCF KYBD setting is

0.0%(O ).

The fader position, current value and stored value for the VCF KYBD fader is

shown on the PROG screen. There is also a visualization of the modulation

amount as shown below:

8.6 VCA

The VOLTAGE CONTROLLED AMPLIFIER (VCA) is split into two stages. The  rst

is a per voice stereo VCA which can be modulated by the VCA ENVELOPE, the

PAN-SPREAD setting, the VELOCITY SENSITIVITY of the keyboard and the Pan

Destination in the Mod Matrix.

The second stage is a common VCA used to correct, or compensate the level so

that it is consistent between programs.

Both stages use a voltage to control the amount of signal passed through to the

next stage. The higher the control voltage, the more of the signal will be passed.

The per voice VCA Level is also available in the Mod Matrix as a destination where

it can be modulated from any of the Mod Matrix sources.

8.6.1 LEVEL

The VCA LEVEL fader controls the second stage of the VCA, I.e. how much

ampli cation or attenuation is applied to the summed voice signals.

The VCA LEVEL range is from -12.0 dB to 6.0 dB. The default VCA LEVEL setting is

0.0 dB(O ).

The fader position, current value and stored value for the VCA LEVEL fader is

shown on the PROG screen. There is also a visualization of the position as

shown below:

72 DeepMind 12 User Manual

8.6.2 VCA EDIT MENU

To access the VCA PARAMETERS menu press the VCA EDIT switch.

The VCA EDIT switch will then start  ashing and the VCA PARAMETERS menu is

then shown.

To navigate the options in the VCA PARAMETERS menu, use the UP,

DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range:

The following options are available in the VCA PARAMETERS menu:

ENVELOPE-DEPTH - This option allows you to control how much the VCA

ENVELOPE will be used to modulate the per voice VCA.

This is the primary method to sculpt the shape of a sound. For more information

please consult the section on the VCA ENVELOPE

The ENVELOPE-DEPTH range is from 0 to 255. The default ENVELOPE-DEPTH

setting is 255.

VELOCITY-SENS - This option allows you to control how much the velocity at

which you strike the keys will a ect the per voice VCA. I.e. the harder you strike

the keys, the louder the sound and the softer you strike the keys the quieter the

sound will be.

The VELOCITY-SENS range is from 0 to 255. The default VELOCITY-SENS setting

is 128.

PAN-SPREAD - This option allows you to control how much the individual voices

will be spread across the stereo image.

The PAN-SPREAD range is from 0 to 255. The default PAN-SPREAD setting is 0.

8.7 HPF

The HIGH PASS FILTER (HPF) is applied to the output of the VCA. Because the VCA

has summed all the voices the HPF will a ect all voice simultaneously by design.

8.7.1 HPF FREQ FADER

The HPF FREQ fader controls the cut-o frequency of the HPF. The HPF will begin

cutting frequencies above the cut-o frequency at continue to cut them at a rate

of -6 dB per octave.

The HPF  lter can be useful to remove subsonic frequencies from your sound

if required. You can also use the  lter to sculpt the sonic characteristics of the

program, or you can dynamically adjust the fader to create sweeps of the  lter

which will create distinctive movement.

The HPF Frequency is available in the Mod Matrix as a destination where it can be

modulated from any of the Mod Matrix sources.

The HPF FREQ range is from 20.0 Hz to 2000.0 Hz. The default HPF FREQ setting is

20.0 Hz (fully open).

FLASHING=EDIT

+VE

PAN SPREAD

VCA PAN SPREAD

24 61 3 5 7 98 11 1210

-VE

PAN SPREAD

2

46 13579 81112 10

LEVEL (dB)

FREQUENCY (Hz)

LOW

SAWTOOTH SQUARE

MED

HIGH

HPF FREQUENCY

LEVEL (dB)

FREQUENCY (Hz)

LEVEL (dB)

FREQUENCY (Hz)

73 DeepMind 12 User Manual

The fader position, current value and stored value for the HPF FREQ fader is

shown on the PROG screen. There is also a visualization of the  lter curve as

shown below.

8.7.2 BOOST SWITCH

This switch controls the BOOST stage of the DeepMind 12.

The boost function enables an analog circuit which is designed to boost

low frequencies at 100 Hz using a shelving equalization and DC blocking

functionality..

The BOOST function can be used to give programs an enhanced low frequency

response resulting in more depth and body

The BOOST function can be On/O . The default program setting is O .

There is also a visualization of the BOOST  lter curve on the PROG screen as

shown below.

Note: You will only see the BOOST visualization if the HPF fader was the last fader

that was moved..

8.8 ENVELOPES

The DeepMind 12 has three envelope generators. Each of these generates a

control signal with 4 stages (Attack, Decay, Sustain and Release).

The VCA envelope is used to adjust the level of the note being played over time.

The VCF envelope is used to adjust the cut-o frequency of the  lter for each note

played over time.

The MOD envelope can be used to modulate any of the MOD MATRIX destinations

for each note being played over time.

The envelopes are normally triggered by the playing of a key, but they also have

di erent triggering modes (LFO, Looping & Sequencer).

It is important to note that the ATTACK, DECAY and SUSTAIN stages are measured

in units of time, and the SUSTAIN stage is measured in units of level.

The stages of the ENVELOPE are shown below:

Note: In any of the looping modes the sustain stage is not considered and as

soon as the envelope reaches the sustain stage it immediately starts the release

stage.

ON=BASS BOOST

BOOST RESPONSE

LEVEL (dB)

100 Hz

0 dB

6 dB

FREQUENCY (Hz)

ATTACK DECAY

SUSTAIN

ENV

LEVEL

KEY

GATE

RELEASE

KEY PRESSED KEY RELEASED

ENVELOPE STAGES

74 DeepMind 12 User Manual

8.8.1 VCA ENVELOPE SWITCH

To access the VCA ENVELOPE page press the VCA Envelope switch.

The VCA ENVELOPE switch will then start  ashing and the VCA ENVELOPE menu is

then shown:

To navigate the options in the VCA ENVELOPE menu, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the dedicated fader. The rotary knob has a click which allows very accurate

control. The fader allows rapid adjustment across the full range:

The following options are available in the VCA ENVELOPE menu:

VCA-ENV-TRIG - This option allows you to select the triggering mode for the VCA

ENVELOPE from the following:

•

• Key - This option will force the envelope to be triggered each time a key is

pressed.

•

• LFO-1 - This option will force the envelope to be triggered each time LFO 1

starts a new cycle.

•

• LFO-2 - This option will force the envelope to be triggered each time LFO 2

starts a new cycle.

•

• Loop - This option will force the envelope to be re-triggered each time the

end of the release stage is reached.

•

• Seq - This option will force the envelope to be re-triggered on every step of

the CONTROL SEQUENCER.

ADSR ATK: - This controls the attack time of the VCA envelope. I.e. the time is

take for the sound to transition from zero to its maximum level. As the value

increases, the slower the attack time becomes and the longer it takes for the

sound to reach its maximum level.

ADSR DCY: This controls the decay time of the VCA envelope. After a sound

reaches the maximum level, the decay time controls how quickly the level will

transition to the sustain level. As the value increases, the longer the decay time

becomes.

ADSR SUS: This controls the level for the sustain stage of the VCA envelope. The

sound will stay at this level while a note is held on the keyboard.

ADSR REL: This option control the release time of the VCA envelope. This controls

how quickly it takes the sound to decay from the sustain level to zero when a key

is released.

8.8.2 VCF ENVELOPE SWITCH

To access the VCF ENVELOPE page press the VCF ENVELOPE switch.

The VCF ENVELOPE switch will then start  ashing and the VCF ENVELOPE menu is

then shown:

To navigate the options in the VCF ENVELOPE menu, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range:

The following options are available in the VCF ENVELOPE menu:

VCF-ENV-TRIG - This option allows you to select the triggering mode for the VCF

ENVELOPE from the following:

•

• Key - This option will force the envelope to be triggered each time a key is

pressed.

•

• LFO-1 - This option will force the envelope to be triggered each time LFO 1

starts a new cycle.

•

• LFO-2 - This option will force the envelope to be triggered each time LFO 2

starts a new cycle.

•

• Loop - This option will force the envelope to be re-triggered each time the

end of the release stage is reached.

•

• Seq - This option will force the envelope to be re-triggered on every step of

the CONTROL SEQUENCER.

ADSR ATK: This controls the attack time of the VCF envelope. I.e. the time is take

for the  lter to open from the VCF FREQ fader setting to the level set by the VCF

ENV fader. As the value increases, the slower the attack time becomes and the

longer it takes for the  lter to open.

ADSR DCY: Sets the decay time of the VCF envelope. After a sound reaches the

frequency set at its attack stage, the decay controls how quickly the  lter then

transitions to the frequency set with the sustain knob.

ADSR SUS: Sets the  lter cut-o frequency for the sustained portion of the

sound. The sound will stay at this  lter frequency for as long as a note is held on

the keyboard.

ADSR REL: Sets the release time of the envelope. This controls how quickly the

 lter closes when a key is released.

FLASHING=EDIT FLASHING=EDIT

75 DeepMind 12 User Manual

MOD ENVELOPE SWITCH

To access the MOD ENVELOPE page press the MOD ENVELOPE switch.

The MOD ENVELOPE switch will then start  ashing and the MOD ENVELOPE menu

is then shown:

To navigate the options in the MOD ENVELOPE menu, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range:

The following options are available in the MOD ENVELOPE menu:

MOD-ENV-TRIG - This option allows you to select the triggering mode for the

MOD ENVELOPE from the following:

•

• Key - This option will force the envelope to be triggered each time a key is

pressed.

•

• LFO-1 - This option will force the envelope to be triggered each time LFO 1

starts a new cycle.

•

• LFO-2 - This option will force the envelope to be triggered each time LFO 2

starts a new cycle.

•

• Loop - This option will force the envelope to be re-triggered each time the

end of the release stage is reached.

•

• Seq - This option will force the envelope to be re-triggered on every step of

the CONTROL SEQUENCER.

ADSR ATK: - This controls the attack time of the MOD envelope. I.e. the time is

take for the envelope to reach its peak setting. As the value increases, the slower

the attack time becomes and the longer it takes for the envelope to reach its

maximum point.

ADSR DCY: This controls the decay time of the MOD envelope. After the envelope

reaches the maximum value, the decay time controls how quickly the envelope

will transition to the sustain level. As the value increases, the longer the decay

time becomes.

ADSR SUS: This controls the value for the sustain stage of the MOD envelope. The

sound will stay at this level while a note is held on the keyboard.

ADSR REL: This option control the release time of the MOD envelope. This

controls how quickly it takes the envelope to decay from the sustain value to zero

when a key is released.

8.8.3 CURVES SWITCH

This switch changes the operation of the ADSR faders from adjusting the ADSR

stages to adjusting the curve of each stage.

To activate CURVES mode press the CURVES switch. The switch will illuminate and

the faders will now control the curve of each stage.

CURV ATK: This controls the curve shape of the attack stage.

CURV DCY: This controls the curve shape of the decay stage.

CURV SUS: This controls the curve shape (or slope) of the sustain stage.

CURV REL: This controls the curve shape of the release stage.

Using the curve functionality of the waveforms allows advanced sculpting of any

of the envelopes. An example is shown below:

Note: When you adjust any of the envelope faders while viewing the PROG screen

you will see a visualization of the envelope. Below the visualization you will see

the standard or curve parameter values as shown below:

To return to normal operation of the ADSR stages press the CURVES switch again.

The switch will no longer illuminate and the faders will now control the ADSR

stages.

FLASHING=EDIT

ON=CURVES

ATTACK

CURVE DECAY

CURVE SUSTAIN

CURVE(SLOPE)

RELEASE

CURVE

ENVELOPE CURVES

76 DeepMind 12 User Manual

Note: The curve values and the respective response curves are shown below for

guidance:

8.9 MOD MATRIX

The MODULATION MATRIX (MOD MATRIX) is one of the most powerful aspects

of the DeepMind 12 synthesizer. To understand how and why the modulation

matrix is so important we need to understand one simple concept, modulation.

Modulation is the process of controlling one or more properties (destinations) of

a signal using another signal (source).

A simple example would be the control of the VCF cut-o frequency by an

sinusoidal LFO signal. The LFO would open and close the  lter automatically

which you could of course do by moving the fader manually. However, by using

a modulation signal you not only free up your hands and mind, you also open up

additional options such as:

•

• Synchronisation with other parameters and actions

•

• Speeds of modulation well past what you could achieve by hand

•

• Accuracy, or programmed inaccuracy of modulation signal

•

• Modulating multiple destinations from the same source

•

• Using multiple sources to modulate the same destination.

•

• Using a source to modulate a parameter e.g. LFO Rate, which indirectly

a ects another modulation e.g. Velocity to Attack Time.

•

• Using a source to modulate the depth of another modulation

Taking the concept further the DeepMind 12 o ers a huge amount of sources and

destinations. For a full list please consult the tables at the end of this section.

The DeepMind 12 MOD MATRIX allows creation of eight "busses". Each bus has a

source, a destination modulations and a routing depth.

To access the MOD MATRIX page press the MOD switch.

The MOD switch will then start  ashing and the MOD MATRIX page is then shown:

To navigate the options in the MOD MATRIX page, use the UP, DOWN, switches.

Selected parameters are adjusted using the -NO/+YES switches, the rotary knob

or the fader. The rotary knob has a click which allows very accurate control. The

fader allows rapid adjustment across the full range.

0

64

128

192

255

Attack Curve Settings

Time

Level

Time

0

64

128

192

255

Decay/Release Curve Settings

Level

Time

0

64

128

192

255

Sustain Curve (Slope) Settings

Level

ON=EDIT MATRIX

77 DeepMind 12 User Manual

MODULATION SOURCE - To add a modulation source navigate to the source on

the bus you wish to use and select the required source.

MODULATION ROUTING DEPTH - To change the bus routing depth navigate to

the source on the bus you wish to use and select the required source.

MODULATION DESTINATION - To add a modulation destination navigate to the

destination on the bus you wish to use and select the required source.

Note: The possible modulation are 8 busses x 22 sources x 129 destinations

which will allow over 22,000 possible combinations.

8.9.1 MODULATION SOURCES

The following modulation sources are available:

No Name Description

1 Pitch Bend Pitch Bend Wheel

2 Mod Wheel Modulation Wheel

3 Foot Ctrl Foot Controller

4 BreathCtrl Breath Controller

5 Pressure Aftertouch Pressure

6 LFO1 LFO 1

7 LFO2 LFO 2

8Env 1 VCA Envelope

9Env 2 VCF Envelope

10 Env 3 Mod Envelope

11 Note Num Note Number

12 Note Vel Note Velocity

13 Ctrl Seq Control Sequencer

14 LFO1 (Uni) LFO1 (Unipolar)

15 LFO2 (Uni) LFO 2 (Unipolar)

16 LFO1 (Fade) LFO 1 (Fade Envelope)

17 LFO2 (Fade) LFO 2 (Fade Envelope)

18 NoteO Vel Note O Velocity

19 Voice Num Voice Number

20 CC X (114) Continuous Controller X-Axis (114)

21 CC Y (115) Continuous Controller Y-Axis (115)

22 CC Z (116) Continuous Controller Z-Axis (116)

8.9.2 MODULATION DESTINATIONS

The following modulation destinations are available:

No Name Description

1 LFO1 Rate LFO 1 Rate

2 LFO1 Delay LFO 1 Delay Time

3 LFO1 Slew LFO 1 Slew Rate

4 LFO1 Shape LFO 1 Shape

5 LFO2 Rate LFO 2 Rate

6 LFO2 Delay LFO 2 Delay Time

7 LFO2 Slew LFO 2 Slew Rate

8 LFO2 Shape LFO 2 Shape

9 OSC1+2 Pit OSC 1 + 2 Pitch

10 OSC1 Pitch OSC 1 Pitch

11 OSC2 Pitch OSC 1 Pitch

12 OSC1 PM Dep OSC 1 Pitch Modulation Depth

13 PWM Depth OSC 1 Pulse Width Modulation Depth

78 DeepMind 12 User Manual

No Name Description

14 TMod Depth OSC 2 Tone Modulation Depth

15 OSC2 PM Dep OSC 2 Pitch Modulation Depth

16 Porta Time Portamento Time

17 VCF Freq VCF Cut-o Frequency

18 VCF Res VCF Resonance

19 VCF Env VCF Envelope

20 VCF LFO VCF LFO

21 Env Rates All Envelope Rates

22 All Attack All Attack Times

23 All Decay All Decay Times

24 All Sus All Sustain Levels

25 All Rel All Release Times

26 Env1 Rates All Envelope 1 Rates

27 Env2 Rates All Envelope 2 Rates

28 Env3 Rates All Envelope 3 Rates

29 Env1CurveS All Envelope 1 Curves

30 Env2CurveS All Envelope 2 Curves

31 Env3CurveS All Envelope 3 Curves

32 Env1 Attack Envelope 1 Attack Time

33 Env1 Decay Envelope 1 Decay Time

34 Env1 Sus Envelope 1 Sustain Level

35 Env1 Rel Envelope 1 Release Time

36 Env1 AtCur Envelope 1 Attack Time Curve

37 Env1 DcyCur Envelope 1 Decay Time Curve

38 Env1 SuSCur Envelope 1 Sustain Level Curve

39 Env1 RelCur Envelope 1 Release Time Curve

40 Env2 Attack Envelope 2 Attack Time

41 Env2 Decay Envelope 2 Decay Time

42 Env2 Sus Envelope 2 Sustain Level

43 Env2 Rel Envelope 2 Release Time

44 Env2 AtCur Envelope 2 Attack Time Curve

45 Env2 DcyCur Envelope 2 Decay Time Curve

46 Env2 SuSCur Envelope 2 Sustain Level Curve

47 Env2 RelCur Envelope 2 Release Time Curve

48 Env3 Attack Envelope 3 Attack Time

49 Env3 Decay Envelope 3 Decay Time

50 Env3 Sus Envelope 3 Sustain Level

51 Env3 Rel Envelope 3 Release Time

52 Env3 AtCur Envelope 3 Attack Time Curve

53 Env3 DcyCur Envelope 3 Decay Time Curve

54 Env3 SuSCur Envelope 3 Sustain Level Curve

No Name Description

55 Env3 RelCur Envelope 3 Release Time Curve

56 VCA All** VCA Gain for All Voices

57 VCA Active** VCA Gain for Active Voices

58 VCA EnvDep VCA Envelope Depth

59 Pan Spread Pan Spread

60 VCA Pan VCA Pan

61* OSC2 Lvl OSC 2 Level

62* Noise Lvl Noise Level

63* HP Freq HPF Cut-o Frequency

64* Uni Detune Unison Detune

65* OSC Drift OSC Drift

66* Param Drift Parameter Drift

67* Drift Rate Drift Rate

68* Arp Gate Arpeggiator Gate

69* Seq Slew Control Sequencer Slew

70 Mod 1 Dep Mod Matrix Routing 1 Depth

71 Mod 2 Dep Mod Matrix Routing 2 Depth

72 Mod 3 Dep Mod Matrix Routing 3 Depth

73 Mod 4 Dep Mod Matrix Routing 4 Depth

74 Mod 5 Dep Mod Matrix Routing 5 Depth

75 Mod 6 Dep Mod Matrix Routing 6 Depth

76 Mod 7 Dep Mod Matrix Routing 7 Depth

77 Mod 8 Dep Mod Matrix Routing 8 Depth

78-89 Fx 1 Params E ects Slot 1 Parameters

90-101 Fx 2 Params E ects Slot 2 Parameters

102-113 Fx 3 Params E ects Slot 3 Parameters

114-125 Fx 4 Params E ects Slot 4 Parameters

126 Fx 1 Level E ects Slot 1 Level

127 Fx 2 Level E ects Slot 2 Level

128 Fx 3 Level E ects Slot 3 Level

129 Fx 4 Level E ects Slot 4 Level

Note: Destinations marked with a '*' are common to all voices.

** VCA Active - This destination a ects the VCA Gain for all active voices.

*** VCA All - This destination a ects the VCA Gain for all voices, regardless of

whether they are active or not.

79 DeepMind 12 User Manual

9. E ects Reference Guide

9.1 E ects Table

No Name Description Device Inspiration Type

1 TC-DeepVRB TC Deep Reverb TC Hall of Fame Reverb

2 AmbVerb Ambient Reverb Lexicon 480L Reverb

3 RoomRev Room Reverb Lexicon 480L Reverb

4 VintageRev Vintage Room Reverb EMT250 Reverb

5 HallRev Hall Reverb Lexicon 480L Reverb

6 ChamberRev Chamber Reverb Lexicon 480L Reverb

7 PlateRev Plate Reverb Lexicon PCM-70 Reverb

8 RichPltRev Rich Plate Reverb Lexicon 480L Reverb

9 GatedRev Gated Reverb Lexicon 300/480L Reverb

10 Reverse Reverse Reverb Lexicon 300/480L Reverb

11 ChorusVerb Chorus & Reverb Lexicon PCM-70 Reverb

12 DelayVerb Delay & Reverb Lexicon PCM-70 Reverb

13 FlangVerb Flange & Reverb Lexicon PCM-70 Reverb

14 MidasEQ Midas Equaliser Midas ProX* Processing

15 Enhancer Enhancer SPL Vitalizer Processing

16 FairComp Fair Compressor Fairchild 670 Processing

17 MulBndDist Multi-Band Distortion Midas ProX* Processing

18 RackAmp Rack Ampli er Tech 21 SansAmp Processing

19 EdisonEX1 Stereo Imaging Edison EX-1 Processing

20 Auto Pan Auto-Panning Behringer X32* Processing

21 NoiseGate Noise Gate Midas ProX* Processing

22 Delay Delay Behringer X32* Delay

23 3TapDelay 3-Tap Delay Behringer X32* Delay

24 4TapDelay 4-Tap Delay Behringer X32* Delay

25 T-RayDelay Tel-Ray Delay Tel-Ray Delay Delay

26 DecimDelay Decimator Delay Decimator Delay Delay

27 ModDlyRev Mod, Delay & Reverb Lexicon PCM-70 Delay

28 Chorus Chorus Behringer X32* Creative

29 Chorus-D Chorus D Roland Dimension D Creative

30 Flanger Flanger Behringer X32* Creative

31 Phaser Phase Behringer X32* Creative

32 MoodFilter Mood Filter Moog Type Filter Creative

33 DualPitch Dual Pitch Shifter Harmonizer Creative

34 RotarySpkr Rotary Speaker Leslie Creative

* - Direct algorithms from the hardware devices designed by Music Group

companies.

9.2 E ects Descriptions

Here is a list and brief description of the e ects available on the DeepMind 12

synthesizer.

TC Deep Reverb

TC Electronic is synonymous with some of the best sounding reverbs out there.

There are nine iconic reverb modes you know and love into this e ect that simply

sounds so insanely good – you just have to try it. It’s amazing that just four

controls (Decay, Tone and PreDelay) can give such a wide range of tonal options –

bright and springy, warm and bouncy or gigantic dark re ections… It’s all there

– and then some.

The PRE DELAY fader controls the amount of time before the reverb is heard

following the source signal. TONE enhances high frequencies for positive settings

and enhances low frequencies for negative settings. DECAY controls the amount

of time it takes for the reverb to dissipate. Note: The decay range changes

depending which of the modes is selected.

HallRev, AmbVerb, RichPltRev, RoomRev, ChamberRev

These 5 reverb emulations are inspired by the Lexicon 480L. Hall simulates the

reverberation that occurs when sound is recorded in medium to large-sized

concert halls. Ambience creates a customizable virtual acoustic space to add

warmth and depth without coloring the direct sound.

The PRE DELAY fader controls the amount of time before the reverb is heard

following the source signal. DECAY controls the amount of time it takes for the

reverb to dissipate. SIZE controls the perceived size of the space being created by

the reverb. The DAMP fader adjusts the decay of the high frequencies within the

reverb tail. DIFF(usion) controls the initial re ection density, and LEVEL controls

the e ect output.

LO and HI CUT allow the frequencies a ected by the reverb to be narrowed.

BASSMULT(iplier) controls the low frequency build-up. SPREAD emphasizes

the stereo e ect of the reverb. SHAPE adjusts the contour of the reverberation

envelope. MOD SPEED controls the reverb tail modulation rate and TAIL GAIN

adjusts the volume of the reverb tail. The Rich Plate and Room reverbs allow

the stereo ECHO DELAY and the delay FEEDBACK to be adjusted independently

for each side. The Chamber reverb allows the stereo REFL(ection) DELAY and

GAINtobe adjusted independently.

VintageRev

Vintage Room simulates the reverberation that occurs when sound is recorded in

a small room. When you want to add a bit of warmth and just a touch of reverb,

the Vintage Room breathes life into close-mic'd guitar and drum tracks. (Inspired

by the Quantec QRS)

Set the early re ection times for the left and right channel with ER DELAY L

and ER DELAY R. ER LEVEL sets the loudness of the early re ection level. REV

DELAY controls the amount of time before the reverberation is heard following

the source signal. HI/LOW MULTIPLY adjusts the decay time of the high and

bass frequencies. ROOM SIZE adjusts the size of the room e ect being created

incrementally from small to large. HIGH CUT sets the frequency above which

the source signal does not pass through the reverb. DENSITY manipulates the

re ection density in the simulated room. (This slightly changes the reverb decay

time). LOW CUT sets the frequency below which the source signal does not pass

through the reverb.

80 DeepMind 12 User Manual

Plate Reverb

A plate reverb was originally created by sending a signal through a transducer

to create vibrations on a plate of sheet metal which were then picked up as an

audio signal. Our algorithm simulates that sound with high initial di usion and a

bright colored sound. The Plate Reverb will give your tracks the sound heard on

countless hit records since the late 1950s. (Inspired by the Lexicon PCM-70)

PRE DELAY controls the amount of time before the reverberation is heard

following the source signal. DECAY controls the amount of time it takes for the

reverb to dissipate. SIZE adjusts the size of the virtual room created by the reverb

e ect. The DAMP knob adjusts the decay of high frequencies within the reverb

tail. DIFF(USION) controls the initial re ection density. The LO CUT knob sets the

frequency beneath which the source signal will not pass through the reverb.

The HI CUT knob sets the frequency above which the source signal will not pass

through the reverb. The BASS MULT(IPLIER) knob adjusts the decay time of the

bass frequencies. XOVER controls the crossover point for bass. MOD DEPTH and

SPEED control the intensity and speed of the reverb tail modulation.

Gated Reverb

This e ect was originally achieved by combining a reverb with a noise gate.

Ourgated reverb creates the same impression by a special shaping of the

reverbtail.

Gated Reverb is especially e ective for creating a 1980s-style snare sound or to

enlarge the presence of a kick drum. (Inspired by the Lexicon 300/480L)

PRE DELAY controls the amount of time before the reverberation is heard

following the source signal. DECAY controls the amount of time it takes for the

reverb to dissipate. ATTACK controls how fast the re ection density builds up.

DENSITY shapes the reverb decay tail. The higher the density, the greater the

number of sound re ections. SPREAD controls how the re ection is distributed

through the envelope of the reverb. The LO CUT knob sets the frequency beneath

which the source signal will not pass through the reverb. The HiSvFr/ HiSvGn

knobs adjust a Hi-Shelving  lter at the input of the reverb e ect. DIFF(USION)

controls the initial re ection density.

Reverse Reverb

Reverse Reverb takes the trail of a reverb, turns it around, and places it in front

of the sound source. Use the swelling crescendo of the Reverse Reverb to add an

ethereal quality to vocal and snare tracks. (Inspired by the Lexicon 300/480L)

Adjusting the PRE DELAY knob adds up to 200 milliseconds of time before the

reverb follows the source signal. The DECAY knob adjusts the time it takes for

the reverb to completely dissipate. RISE controls how quickly the e ect builds

up. DIFF(USION) controls the initial re ection density. SPREAD controls how the

re ection is distributed through the envelope of the reverb. The LO CUT knob

sets a low frequency beneath which the source signal will not pass through the

reverb. The HiSvFr/HiSvGn knobs adjust a Hi-Shelving  lter at the input of the

reverb e ect.

Chorus + Chamber

Taking up only one FX slot, the Chorus + Chamber e ect combines the shimmer

and doubling characteristics of a studio-grade Chorus with the sweet sound of a

traditional Chamber reverb. (Reverb is Inspired by the Lexicon PCM 70)

The BALANCE knob adjusts the balance between chorus and reverb.

Lowfrequencies can be excluded with the LO CUT knob, and the MIX knob adjusts

how much of the e ect is added to the signal. SPEED, DELAY and DEPTH adjust

the rate, delay, and modulation depth of the chorus. The LFO PHASE between left

and right channel can be o set by up to 180 degrees, and WAVE adjusts the LFO

waveform from a sine wave to triangular wave. The PREDELAY knob determines

the hesitation before the reverb a ects the signal. The DECAY knob adjusts how

quickly the reverb fades. The SIZE controls how large or small the simulated

space is (room, cathedral, etc.). The DAMPING knob determines the decay of high

frequencies within the reverb tail.

81 DeepMind 12 User Manual

Delay + Chamber

Here we have combined Delay and Chamber reverb, so a single device can provide

a variety of delay settings, plus add just the right type and amount of reverb to

the selected signal. This device only uses one FX slot. (The Reverb is Inspired by

the Lexicon PCM 70)

Use the BALANCE knob to adjust the ratio between delay and reverb.

Lowfrequencies can be excluded with the LO CUT knob, and the MIX adjusts

how much of the e ect is added to the signal. The TIME knob adjusts the delay

time for the left channel delay, and the PATTERN sets the delay ratio for the

right channel delay. Adjust the FEEDBACK and trim some high frequencies with

the FEED HC (high-cut) knob. The XFEED knob allows you to send the delay

sound to the reverb e ect, so instead of running completely parallel, the reverb

a ects the echoes to a selected degree. The PREDELAY knob determines the

hesitation before the reverb a ects the signal. The DECAY knob adjusts how

quickly the reverb fades. The SIZE controls how large or small the simulated

space is (room,cathedral, etc.). The DAMPING knob determines the decay of high

frequencies within the reverb tail.

Flanger + Chamber

Add the mind-bending,  lter-sweeping e ect of a state-of-the-art Flanger to

the elegant sweetening of a traditional Chamber reverb — all in one FX slot.

(Reverbis Inspired by the Lexicon PCM 70)

The BALANCE knob adjusts the ratio between  anger and reverb. Low frequencies

can be excluded with the LO CUT knob, and the MIX knob adjusts how much

of the e ect is added to the signal. SPEED, DELAY and DEPTH adjust the rate,

delay,and modulation depth of the  anger. FEEDback can be adjusted with

positive and negative amounts. The PHASE can be o set by up to 180 degrees.

The PREDELAY knob determines the hesitation before the reverb a ects the

signal. The DECAY knob adjusts how quickly the reverb fades. The SIZE controls

how large or small the simulated space is (room, cathedral, etc.). The DAMPING

knob determines the decay of high frequencies within the reverb tail.

MidasEQ

The Midas EQ is a four-band sweep parametric equalizer taken from the Midas

Pro X console that allows tonal control of the input signal via the parametric EQ

section. The mid bands also have a Q Factor adjustment to tailor the shape of the

EQ curve. The four bands are low, low mid, high mid and high. Any combination

of the four bands can be used to control the signal.

Enhancer

These Enhancers are so called “Psycho EQs”. They can enhance the signal

spectrum in bass, midrange and high frequencies but they di er from traditional

equalizers. When you need to generate maximum punch, clarity and detail,

without turning up the overall volume, our enhancers are the solution.

(Inspiredby the SPL Vitalizer)

Adjust the BASS, MID and HI GAIN knobs to add or reduce content in those

spectrums. The BASS and HI Frequencies can be speci cally selected, while the

MID Q (bandwidth) can be adjusted instead. The OUT GAIN knob compensates for

changes in level resulting from the e ect, and the SPREAD knob (Stereo version

only) emphasizes the stereo content for a wider mix. Engage the SOLO MODE

to isolate only the audio resulting from the e ect so you can hear exactly what

you’re adding to the mix.

Fair Compressor

This model of a Fairchild 670 delivers some of the  nest colorations in compressor

history. The two paths L/M and R/S both have the same functionality. The

controls include input GAIN, THRESHOLD, TIME and DC BIAS (which controls the

ratio and knee of the compression curve. There is also a BIAS BALANCE which can

help accentuate attacks. There are modes available for dual, stereo-linked, or

mid/side operation via the MOD control.

MulBndDist

The Multiband Distortion unit, useful for making sound gritty, adding more

warmth through saturation, or even enhancing a speci c frequency region. There

are three bands, adjustable by a 24 dB per octave crossover  lter.

There are six distortion types, going from soft saturation to more aggressive

distortion and post  lter variants. The 'Drive' parameter controls the amount

of distortion introduced to the sound. This parameter, together with the right

distortion type, can instead bring some soft saturation to the sound.

The e ect also features a Cabinet Unit applied to the output, which can add the

characteristic timbre of 11 di erent cabinet types.

Finally the level of the sound can be controlled by the input and output gain

parameters.

82 DeepMind 12 User Manual

Rack Ampli er

Modelled after the Tech 21 SansAmp, the Stereo / Dual Guitar Amp simulates the

sound of plugging into a real guitar amp. From shimmering cleans to saturated

crunch, the Stereo / Dual Guitar Amp allows an electric guitar player to sound

great without using an amp on stage. The PREAMP knob adjusts the amount of

input gain prior to the band-speci c distortion adjustment. BUZZ adjusts the

low-end breakup, PUNCH adjusts the midrange distortion, and CRUNCH tailors

the high-frequency content and distortion for smooth or cutting notes. The DRIVE

knob simulates the amount of power amp distortion from a tube amp. The LOW

and HIGH knobs allow EQ adjustment independent of distortion content, and the

overall output is controlled by the LEVEL knob. There are 11 CABINET emulations

which can be selected using the CAB parameter. The CABINET simulation can also

be bypassed which allows the e ect to function like a boost or distortion pedal.

Edison EX1

The EDISON EX1+ is a remarkably e ective tool that allows manipulation of the

stereo  eld. The e ect o ers stereo and mid/side input and output and a phase

correlation meter. Exaggerate the stereo  eld with the ST SPREAD knob and

adjust the ratio of mono to stereo content with the BALANCE knob. The CENTER

DIST knob allows the mono content to be panned. Compensate for level changes

with the OUTPUT GAIN knob.

Auto-Pan

Auto-pan creates an up and down volume change at a constant and even tempo

just like the guitar amps of yesteryear. Use the Auto-pan to add a unique “surf-

music” texture.

SPEED adjusts the LFO rate and DEPTH sets the amount of modulation. PHASE

can be used to set an LFO phase di erence between the left and right channel,

which can be used for panning e ects. The WAVE knob blends the LFO waveform

between triangular and square shape. The signal envelope, shaped by ATTACK,

HOLD and RELEASE, can be used to modulate the LFO speed (ENV SPEED) and the

LFO modulation depth (ENV DEPTH).

NoiseGate

The Noise Gate not only handles the duties of a traditional version, but also o ers

enhanced "Transient Accenting" characteristics to gated signals. Enhance the

attack envelope beyond merely opening the gate, and provide up to 12 dB of

additional transient energy to percussive programs. In many cases the DN265's

control over transients may prove to be a viable alternate to EQ.

Attack is exponential which means it can be set extremely fast to reduce signal

loss at the start of sounds while remaining sonically transparent - no clicks.

Gate release is reverse exponential so it can be set relatively fast and blend in

seamlessly with the natural decay of the material.

Delay

Stereo Delay provides independent control of left and right delay (echo) times

and features high and low pass  lters for enhanced tone shaping of the delayed

signals. Use the Stereo Delay to give your mono signals a wide presence in the

stereo  eld.

The MIX control lets you blend the source signal and the delayed signal.

TIMEadjusts the master delay time up to three seconds. LO CUT adjusts the low

frequency cut, allowing lower frequencies to remain una ected by the delay.

HI CUT adjusts the high frequency cut, allowing higher frequencies to remain

una ected by the delay. FACTOR L sets the delay on the left channel to rhythmic

fractions of the master delay time. FACTOR R sets the delay on the right channel

to rhythmic fractions of the master delay time. OFFSET LR adds a delay di erence

between the left and right delayed signals. The FEED LO CUT/HI CUT adjusts  lters

in the feedback paths. FEED L and FEED R control the amount of feedback for

the left and right channels. MODE sets the feedback mode: Mode ST sets normal

feedback for both channels, X crosses feedbacks between left and right channels.

M creates a mono mix within the feedback chain.

3-Tap Delay

Sometimes called a 3-Tap Delay, the Triple Delay provides three delay stages with

independent frequency, gain, and pan controls. Create time-based echo e ects

with the Triple Delay to increase the sense of stereo separation.

TIME sets the master delay time, which is also the delay time for the  rst stage.

GAIN T sets the gain level of the  rst stage of the delay. BASE T sets the position

of the  rst delay stage in the stereo  eld. X-FEEDindicates that stereo cross-

feedback of the delays is active. FEEDBACK adjusts the amount of feedback.

FACTOR A controls the amount of delay time in the second stage of the delay.

GAIN A controls the gain level of the second delay stage. PAN A sets the position

of the second delay stage in the stereo  eld. FACTOR B controls the amount of

delay time in the third stage of the delay. GAINB controls the gain level of the

third delay stage. PAN B sets the position of the third gain stage in the stereo

 e l d .

83 DeepMind 12 User Manual

4-Tap Delay

The 4-Tap Delay provides 4 stages of delay with independently adjustable gain

and rate, allowing unique syncopation to be created in the layered repeats.

TIME sets the master delay time, which is also the delay time for the  rst stage.

GAIN sets the gain for the  rst stage. SPREAD positions the  rst delay stage in

the stereo  eld. A global FEEDBACK adjustment is also available. FACTOR A, B and

C adjust the delay rate relative to the global TIME setting for the 2nd, 3rd and

4th stages respectively. Each stage also has its own GAIN adjustment. X-FEED

indicates that stereo cross-feedback of the delays is active.

Tel-Ray Delay

Inspired by the original Tel-Ray hardware from the 1960's using a tuna can,

some oil and a motor. It has a very simple set of controls but allows you to create

delays, echo, chorus, vibrato and reverb type e ects. An incredibly versatile and

creative e ect which has a lush and unique character.

DELAY controls the delay time. SUSTAIN controls how long the delay is sustained

for. WOB controls the amount of wobble which is caused by age and quality of

materials in the original hardware.

Decimator Delay

This is a delay e ect including a decimator unit in its chain. It will decimate the

sound by reducing the sampling frequency and the bit-depth. The Decimator

Delay is a creative tool that can be used in many ways, from emulating the

aliasing noise, found in older samplers, to generating complex, low- and rough

delay lines.

Decimate the sound by adjusting the DOWNSAMPLE and BIT-REDUCE. The  lter

section will help you manipulate your preferred frequencies to smooth or retain

the grittiness of the sound. The TIME, FACTOR and FEEDBACK parameters will

handle the delay behavior. The DECIMATE (PRE-POST) parameter will set the

decimation to a ect the input source or the only the delay line accordingly.

Modulation Delay + Reverb

Modulation Delay combines three of the most used time modulation e ects

into one easy-to-operate unit, featuring true-stereo delay with a lush chorus,

toppedo with three reverb models to choose from.

The BALANCE knob adjusts ratio of delay to reverb. The processor chain can

operate as serial where one e ect  ows into the next, or parallel where each

e ect is applied to the source signal independently. TIME, FEED(back), LOWand

HI CUT all a ect the delay. Modulation DEPTH and SPEED are adjustable.

Threetypes of reverb are available – ambience, club and hall – with adjustable

DECAY and HI DAMP.

Chorus

Chorus samples the input, slightly detunes it and mixes it with the original

signal to produce a somewhat thicker, shimmering sound. Use it to thicken up

background vocals, or to double the sound of brass and woodwind instruments.

Where as DELAY L/R set the total amount of delay for the left and right channel,

WIDTH determines the amount of modulated delay. SPEED sets the modulation

speed. MIX adjusts the balance of the dry and wet signals. You can further sculpt

the sound by trimming some of the low and high end from the e ected signal

with the LO and HI CUT knobs. Additionally, the PHASE knob can tweak the

phase o set of the LFO between left and right channel and the SPREAD knob

adjusts how much of the left channel is mixed into the right and vice versa.

Finally,theWAVE knob blends between the “Danish-style” digital triangular

chorus sound and the classic analog sine wave.

Dimensional Chorus

The Dimensional Chorus o ers the most user-friendly and classic sounds,

bestdescribed as “space” and “dimensional”. The 4 MODE switches can

be engaged individually or simultaneously for light chorus or very thick,

exaggerated modulation.

84 DeepMind 12 User Manual

Flanger

The Flanger emulates the phase-shifting sound (comb- ltering) originally

created by applying pressure against the  ange of the reel on a tape recorder.

This e ect creates a unique “wobbly” sound that is quite dramatic when used on

vocals and instruments.

The controls of this e ect are nearly identical to the Chorus e ect block.

Additionally, the FEEDBACK can be adjusted with positive and negative amounts

and also band-limited with the FEED HC (high-cut) and FEED LC (low-cut) knobs.

Phaser

A Stereo Phaser, or phase shifter, applies multiple STAGES of modulated  lters to

the input signal to create a “notch” in the frequency response, and then applies

a MIX with the original for a “swirling” e ect. Use the Stereo Phaser to add a

“spaced-out” sound to vocal or instrument tracks.

SPEED adjusts the LFO rate and DEPTH sets the LFO modulation depth. The BASE

knob adjusts the frequency range of the modulated  lters. The resonance is

adjusted with the RES knob. The WAVE knob shapes the symmetry of the LFO

waveform and PHASE dials in an LFO phase di erence between the left and right

channel. The modulation source can also be the signal envelope, which produces

vowel-like opening and closing tones. The ENV knob adjusts how much this e ect

takes place (positive and negative modulation is possible), and the ATTACK, HOLD

and RELEASE knobs all tailor the response of this feature.

Mood Filter

The Mood Filter uses an LFO generator and an auto-envelope generator to control

a VCF (voltage-controlled  lter), as well as a side chain function where the

channel B signal controls the envelope of channel A.

This  lter can be modulated with the signal’s envelope using the ENV MOD

(withpositive and negative amounts), ATTACK and RELEASE knobs, or the

LFOcan modulate the  lter. The WAVE knob selects between 7 di erent wave

forms–triangular, sine, saw plus, saw minus, ramp, square, and random.

ThePHASE can be o set by up to 180 degrees. The SPEED knob adjusts the rate

of the LFOand the DEPTH adjusts the amount of LFO modulation. Adjustthe

resonance of the  lter until self-oscillation with the RESO(nance) knob.

BASEadjusts the range of the  lter from 20 Hz to 15 kHz. The MODE switch

selects between low pass (LP), high-pass (HP), band-pass (BP) and Notch. Use the

MIXknob to blend the e ected signal with the dry sound. With the 4 POLE switch

engaged, there will be a steeper slope than the OFF (2 pole) setting. The DRIVE

knob adjusts the level and can also introduce an overdrive e ect (as with real

analog  lters) if pushed hard.

Stereo / Dual Pitch

Pitch shifting is often used in two di erent ways. One is to set the Mix knob lower

and only use the Cent knob to make a small o set in pitch between the wet and

dry tones. This results in a “voice doubling” e ect that thickens the overall sound

in a more subtle way. The extreme use of the e ect is to turn the Mix knob fully

clockwise so the entire signal is e ected. This way, the signal can be shifted into

other keys up to an octave above or below the original. When used on a voice,

this results in a “chipmunk” sound or a low Darth Vader e ect.

When the SEMI and CENT knobs are set at 12:00, the pitch is not altered.

Makingadjustments by semitone will have a very pronounced e ect,

whereaschanges to the CENT knob will be very minor. The DELAY knob creates

a time di erence between the wet and dry sound. The LO and HI CUT knobs

allow the e ected signal to be band-limited. The Dual Pitch e ect allows

the leftandright channels to be adjusted independently, and allows GAIN

compensation andpanning of the two channels.

Rotary Speaker

Rotary Speaker emulates the sound of a Leslie rotating speaker. The Rotary

Speaker provides more  exibility than its electromechanical counterpart, andcan

be used with a variety of instruments, and even vocals, to create a whirling,

psychedelic e ect.

The LO SPEED and HI SPEED knobs adjust the rotational speed of the

SLOWand FAST Speed selection, and can be toggled with the FAST switch.

TheACCEL(eration) knob adjusts how quickly the speed increases and

decreases from the Slow mode to the Fast mode. The rotation e ect can also

be disengaged with the STOP switch, which will stop the movement of the

speakers. DISTANCEadjusts the distance between the Rotary speakers and the

virtualmicrophone.

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9.3 E ects Parameters

Note: E ects parameters which appear as modulation destinations are marked with a '*'.

TC-DeepVRB (TC DEEP REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 PST Preset — — — Options: Ambience, Church, Gate, Hall, Lo Fi, Modulated, Plate, Room, Spring, Tile, Default.

2* DCY Decay s 0.1 s 6.0 s Controls the amount of time it takes for the reverb to dissipate (range is preset dependant).

3* TON Tone % -50.0% 50.0% Enhances high frequencies/low frequencies for positive/negative settings respectivly.

4 PDY PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

5* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

AmbVerb (AMBIENT REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 PD PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

2* DCY Decay s 0.2 s 7.3s Controls the amount of time it takes for the reverb to dissipate.

3 SIZ Size — 2.0 100.0 Controls the perceived size of the space being created by the reverb.

4* DMP Damping Hz 1000 Hz 20000 Hz Adjusts the decay of the high frequencies within the reverb tail.

5 DIF Di usion — 1.0 30.0 Controls the initial re ection density.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies a ected by the reverb to be reduced.

8* HC Hi Cut Hz 200.0 Hz 20000.0 Hz Allows the high frequencies a ected by the reverb to be reduced.

9 MOD Mod % 0.0% 100% Controls the reverb tail modulation depth.

10* TGN TailGain % 0.0% 100% Adjusts the volume of the reverb tail.

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RoomRev (ROOM REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 PRE PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

2* DCY Decay s 0.3 s 28.9 s Controls the amount of time it takes for the reverb to dissipate.

3 SIZ Size m 4.0 m 76.0 m Controls the perceived size of the space being created by the reverb.

4* DMP Damping Hz 1000 Hz 20000 Hz Adjusts the decay of the high frequencies within the reverb tail.

5 DIF Di usion % 0.0% 100% Controls the initial re ection density.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies a ected by the reverb to be reduced.

8* HC Hi Cut Hz 200.0 Hz 20000.0 Hz Allows the high frequencies a ected by the reverb to be reduced.

9* LFX BassMult -- 0.2 4.0 Controls the low frequency build-up.

10 SPR Spread -- 0.0 50.0 Emphasizes the stereo e ect of the reverb.

11* SHP Shape -- 0.0 250.0 Adjusts the contour of the reverberation envelope.

12 SPI Spin % 0.0% 100% Controls randomization / modulation e ects within the reverb.

VintageRev (VINTAGE ROOM REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 PRE PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

2 SIZ Size % 1.0% 100% Controls the perceived size of the space being created by the reverb. A ects DECAY range.

3* DCY Decay s 0.1 s 20.7 s Controls the amount of time it takes for the reverb to dissipate. Range dependant on SIZE.

4* LFX Lo Mult -- 0.1 10.0 Controls the low frequency build-up.

5* HFX Hi Mult -- 0.1 10.0 Controls the high frequency build-up.

6* DEN Density % 0.0% 100% Manipulates the re ection density in the simulated room.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies a ected by the reverb to be reduced.

8* HC Hi Cut Hz 200.0 Hz 20000.0 Hz Allows the high frequencies a ected by the reverb to be reduced.

9* ERL ER Level % 0.0% 100% Set the early re ection times.

10 ERD ER Delay ms 0.0 200.0 ms Sets the loudness of the early re ection level.

11* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

12* FRZ Freeze -- OFF ON Applies freeze mode and blends signals into a continuous response.

87 DeepMind 12 User Manual

HallRev (HALL REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 PD PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

2* DCY Decay s 0.2 s 4.9 s Controls the amount of time it takes for the reverb to dissipate.

3 SIZ Size -- 2.0 200.0 Controls the perceived size of the space being created by the reverb.

4* DMP Damping Hz 1000 Hz 20000 Hz Adjusts the decay of the high frequencies within the reverb tail.

5 DIF Di usion -- 1.0 30.0 Controls the initial re ection density.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies a ected by the reverb to be reduced.

8* HC Hi Cut Hz 200.0 Hz 20000.0 Hz Allows the high frequencies a ected by the reverb to be reduced.

9* LFX BassMult -- 0.5 2.0 Controls the low frequency build-up.

10 SPR Spread -- 0.0 50.0 Emphasizes the stereo e ect of the reverb.

11* SHP Shape -- 0.0 250.0 Adjusts the contour of the reverberation envelope.

12 MOD ModSpeed -- 0.0 100.0 Controls the reverb tail modulation rate.

ChamberRev (CHAMBER REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 PRE PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

2* DCY Decay s 0.3 s 28.9 s Controls the amount of time it takes for the reverb to dissipate.

3 SIZ Size m 4.0 m 76.0 m Controls the perceived size of the space being created by the reverb.

4* DMP Damping Hz 1000 Hz 20000 Hz Adjusts the decay of the high frequencies within the reverb tail.

5 DIF Di usion % 0.0% 100% Controls the initial re ection density.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies a ected by the reverb to be reduced.

8* HC Hi Cut Hz 200.0 Hz 20000.0 Hz Allows the high frequencies a ected by the reverb to be reduced.

9* LFX BassMult -- 0.2 4.0 Controls the low frequency build-up.

10 SPR Spread -- 0.0 50.0 Emphasizes the stereo e ect of the reverb.

11* SHP Shape -- 0.0 250.0 Adjusts the contour of the reverberation envelope.

12 SPI Spin % 0.0% 100% Controls randomization / modulation e ects within the reverb.

88 DeepMind 12 User Manual

PlateRev (PLATE REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 PD PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

2* DCY Decay s 0.5 s 10.0 s Controls the amount of time it takes for the reverb to dissipate.

3 SIZ Size — 2.0 200.0 Controls the perceived size of the space being created by the reverb.

4* DMP Damping Hz 1000 Hz 20000 Hz Adjusts the decay of the high frequencies within the reverb tail.

5 DIF Di usion — 1.0 30.0 Controls the initial re ection density.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies a ected by the reverb to be reduced.

8* HC Hi Cut Hz 200.0 Hz 20000.0 Hz Allows the high frequencies a ected by the reverb to be reduced.

9* LFX BassMult — 0.5 2.0 Controls the low frequency build-up.

10* XOV Xover Hz 10.0 Hz 500.0 Hz Controls the crossover point for bass multiplier.

11 MOD ModDepth — 1.0 50.0 Controls the reverb tail modulation depth.

12 MDS ModSpeed — 0.0 100.0 Controls the reverb tail modulation rate.

RichPltRev (RICH PLATE REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 PD PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

2* DCY Decay s 0.3 s 28.9 s Controls the amount of time it takes for the reverb to dissipate.

3 SIZ Size m 4.0 m 39.0 m Controls the perceived size of the space being created by the reverb.

4* DMP Damping Hz 1000 Hz 20000 Hz Adjusts the decay of the high frequencies within the reverb tail.

5 DIF Di usion % 0.0% 100% Controls the initial re ection density.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies a ected by the reverb to be reduced.

8* HC Hi Cut Hz 200.0 Hz 20000.0 Hz Allows the high frequencies a ected by the reverb to be reduced.

9* LFX BassMult — 0.2 4.0 Controls the low frequency build-up.

10 SPR Spread — 0.0 50.0 Emphasizes the stereo e ect of the reverb.

11* ATK Attack — 0.0 100.0 Adjusts the contour of the reverberation envelope.

12* SPN Spin % 0.0% 100% Controls randomization / modulation e ects within the reverb.

89 DeepMind 12 User Manual

GatedRev (GATED REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 PD PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

2 DCY Decay ms 140.0 ms 1000.0 ms Controls the amount of time it takes for the reverb to dissipate.

3* ATK Attack — 0.0 30.0 Adjusts the contour of the reverberation envelope.

4* DEN Density — 1.0 50.0 Manipulates the re ection density in the simulated room.

5 SPR Spread — 0.0 100.0 Emphasizes the stereo e ect of the reverb.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies a ected by the reverb to be reduced.

8* HIF HiSvFreq Hz 200.0 Hz 20000.0 Hz Adjusts the frequency of a Hi-Shelving  lter at the input of the reverb e ect.

9* HIG HiSvGain dB -30.0 dB 0.0 dB Adjusts the gain of a Hi-Shelving  lter at the input of the reverb e ect.

10 DIF Di usion % 0.0% 100% Controls the initial re ection density.

Reverse (REVERSE REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 PD PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

2 DCY Decay ms 140.0 ms 1000.0 ms Controls the amount of time it takes for the reverb to dissipate.

3* RIS Rise — 0.0 50.0 Controls how quickly the e ect builds up.

4 DIF Di usion — 1.0 30.0 Controls the initial re ection density.

5 SPR Spread — 0.0 100.0 Controls how the re ection is distributed through the envelope of the reverb.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies a ected by the reverb to be reduced.

8* HIF HiSvFreq Hz 200.0 Hz 20000.0 Hz Adjusts the frequency of a Hi-Shelving  lter at the input of the reverb e ect.

9* HIG HiSvGain dB -30.0 dB 0.0 dB Adjusts the gain of a Hi-Shelving  lter at the input of the reverb e ect.

90 DeepMind 12 User Manual

ChorusVerb (CHORUS & REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* SPD Speed Hz 0.0 Hz 4.0 Hz Adjusts the rate of the chorus. Time synchronised options from 4 to 1/64 bars.

2* DEP Depth % 0.0% 100% Adjusts the modulation depth of the chorus.

3 DLY Delay ms 0.5 ms 50.0 ms Adjusts the delay of the chorus.

4* PHS Phase — 0.0 180.0 O sets the phase between the left and right channels.

5 WAV Wave % 0.0% 100% Adjusts the LFO waveform from a sine wave to triangular wave.

6* BAL Balance — -100.0 100.0 Adjusts the balance between chorus and reverb.

7 PRE PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

8* DCY Decay s 0.1 s 5.0 s Controls the amount of time it takes for the reverb to dissipate.

9 SIZ Size — 2.0 200.0 Controls how large or small the simulated space is.

10* DMP Damping Hz 1000 Hz 20000 Hz Determines the decay of high frequencies within the reverb tail.

11* LC LoCut Hz 10.0 Hz 500.0 Hz Excludes low frequencies below the value.

12* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

DelayVerb (DELAY & REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 TIM Time ms 1.0ms 1500.0ms Adjusts the delay time for the left channel delay. Time sync options from 4 to 1/64 bars.

2 PAT Pattern — 1/4 1X Sets the delay ratio for the right channel delay.

3* FHC FeedHC Hz 200.0 Hz 20000.0 Hz Trims high frequencies from the feedback.

4* FBK Feedback % 0.0% 100% Controls the percentage of feedback.

5* XFD X-Feed % 0.0% 100% Control the amount of delay sound sent to the reverb e ect.

6* BAL Balance — -100.0 100.0 Adjusts the ratio between delay and reverb.

7 PRE PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

8* DCY Decay s 0.1 s 5.0 s Controls the amount of time it takes for the reverb to dissipate.

9 SIZ Size — 2.0 200.0 Controls how large or small the simulated space is.

10* DMP Damping Hz 1000 Hz 20000 Hz Determines the decay of high frequencies within the reverb tail.

11* LC LoCut Hz 10.0 Hz 500.0 Hz Excludes low frequencies below the value.

12* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

91 DeepMind 12 User Manual

FlangeVerb (FLANGER & REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* SPD Speed Hz 0.0 Hz 4.0 Hz Adjusts the rate of the  anger. Time synchronised options from 4 to 1/64 bars.

2* DEP Depth % 0.0% 100% Adjusts the modulation depth of the  anger.

3 DLY Delay ms 0.5 ms 20.0 ms Adjusts the delay of the  anger.

4* PHS Phase — 0.0 180.0 O sets the phase between the left and right channels.

5* FBK Feed % -90.0% 90.0% Controls the percentage of positive or negative feedback.

6* BAL Balance — -100.0 100.0 Adjusts the balance between  anger and reverb.

7 PRE PreDelay ms 0.0 200.0 ms Controls the amount of time before the reverb is heard following the source signal.

8* DCY Decay s 0.1 s 5.0 s Controls the amount of time it takes for the reverb to dissipate.

9 SIZ Size — 2.0 200.0 Controls how large or small the simulated space is.

10* DMP Damping Hz 1000 Hz 20000 Hz Determines the decay of high frequencies within the reverb tail.

11* LC LoCut Hz 10.0 Hz 500.0 Hz Excludes low frequencies below the value.

12* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

MidasEQ (MIDAS EQUALIZER)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 LSG* LoShelfGain dB -12.0 dB 12.0 dB Adjusts the gain of the low band.

2 LSF* LoShelfFreq Hz 30.0 Hz 20000.0 Hz Adjusts the frequency of the low band.

3 LMG* LoMidGain dB -12.0 dB 12.0 dB Adjusts the gain of the low-mid band.

4 LMF* LoMidFreq Hz 30.0 Hz 20000.0 Hz Adjusts the frequency of the low-mid band.

5 LMQ* LoMidQ — 0.3 5.0 Adjusts the Q-factor of the low-mid band.

6 HMG* HiMidGain dB -12.0 dB 12.0 dB Adjusts the gain of the high-mid band.

7 HMF* HiMidFreq Hz 30.0 Hz 20000.0 Hz Adjusts the frequency of the high-mid band.

8 HMQ* HiMidQ — 0.3 5.0 Adjusts the Q-factor of the high-mid band.

9 HSG* HiShelfGain dB -12.0 dB 12.0 dB Adjusts the gain of the high band.

10 HSF* HiShelfFreq Hz 30.0 Hz 20000.0 Hz Adjusts the frequency of the high band.

11 EQ* EQ — IN OUT Adjusts the frequency of the high band.

92 DeepMind 12 User Manual

Enhancer (ENHANCING EQ)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* OGN OutGain dB -12.0 dB 12.0 dB Compensates for changes in level resulting from the e ect.

2* SPR Spread % 0.0% 100% Emphasizes the stereo content for a wider mix.

3* BGN BassGain % 0.0% 100% Adjusts the gain of the bass band.

4* BFR BassFreq — 1.0 50.0 Adjusts the frequency of the bass band.

5* MGN MidGain % 0.0% 100% Adjusts the gain of the mid band.

6* MIQ MidQ — 1.0 50.0 Adjusts the Q-factor of the mid band.

7* HIG HiGain % 0.0% 100% Adjusts the gain of the high band.

8* HIF HiFreq — 1.0 50.0 Adjusts the frequency of the high band.

9 SOL FactorC — OFF ON Solo mode - used to isolate only the audio resulting from the e ect.

FairComp (COMPRESSOR)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 MOD Mode — — Mode of operation: O , Stereo, Dual, M/S (Mid/Side).

2* INL InGain L/M — -20.0 0.0 Controls the input gain for the Left/Mid signal.

3* THL ThreshL/M — 0.0 10.0 Controls the threshold for the Left/Mid signal.

4 TML TImeL/M — 1.0 6.0 Controls the attack and release time for the Left/Mid signal.

5* DCL DCBiasL/M % 0.0% 100% Adjust the ratio and knee of the compression curve for the Left/Mid signal.

6* OGL OutGainL/M dB -18.0 dB 6.0 dB Controls the output gain for the Left/Mid signal.

7* BAL Bias Bal % -100.0% 100% Adjust the bias current, creating accentuation of attacks

8* INR InGain R/S — -20.0 0.0 Controls the input gain for the Right/Side signal.

9* THR ThreshR/S — 0.0 10.0 Controls the threshold for the Right/Side signal.

10 TMR TImeR/S — 1.0 6.0 Controls the attack and release time for the Right/Side signal.

11* DCR DCBiasR/S % 0.0% 100% Adjust the ratio and knee of the compression curve for the Right/Side signal.

12* OGR OutGainR/S dB -18.0 dB 6.0 dB Controls the output gain for the Right/Side signal.

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MulBndDist (MULTIBAND DISTORTION)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* IPG InputGain dB -24.0 dB 24.0 dB Controls the amount of input gain applied to the signal.

2 DST Dist Types — — — Distortion Type: VAL(Valve), SAT(Saturation), TUB (Tube), & Post Filter variants (PFV/PFS/PFT).

3* LBL Low Level dB -12.0 dB 12.0 dB Controls the level of the frequencies below XoverFreq 1.

4* LDR Low Drive % 0.0% 100% Controls the percentage of distortion introduced below XoverFreq 1.

5* XV1 Xover Freq 1 Hz 30.0 Hz 9000.0 Hz Sets the lower cross over frequency.

6* MBL Mid Level dB -12.0 dB 12.0 dB Controls the level of the frequencies between Xover1 Freq and Xover2 Freq.

7* MDR Mid Drive % 0.0% 100% Controls the percentage of distortion introduced between Xover1 Freq and Xover2 Freq.

8* XV2 Xover Freq 2 Hz 30.0 Hz 9000.0 Hz Sets the upper cross over frequency.

9* HBL High Level dB -12.0 dB 12.0 dB Controls the level of the frequencies below XoverFreq 2.

10* HDR High Drive % 0.0% 100% Controls the percentage of distortion introduced above XoverFreq 2.

11 CAB Cabinet — — — Cabinet Type: OFF, VTw, VBs, A10, Mid, BFC, B60, V30, S78, Oax, A12, Rck. (See Table Above).

12* OPG OutputGain dB -12.0 dB 12.0 dB Controls the amount of output gain applied to the signal.

RackAmp (RACK AMPLIFIER)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* PRE PreAmp — 0.0 10.0 Adjusts the amount of input gain prior to the band-speci c distortion adjustment.

2* BUZ Buzz — 0.0 10.0 Adjusts the amount of low-end breakup.

3* PNC Punch — 0.0 10.0 Adjusts the amount of midrange distortion.

4* CRN Crunch — 0.0 10.0 Tailors the high-frequency content and distortion for smooth or cutting notes.

5* DRV Drive — 0.0 10.0 Emulates the amount of power amp distortion from a tube amp.

6* LVL Level — 0.0 10.0 Controls the overall output level.

7* LOW Low — 0.0 10.0 EQ adjustment of the low frequencies, independent of distortion content.

8* HI High — 0.0 10.0 EQ adjustment of the high frequencies, independent of distortion content.

9 CAB Cabinet — OFF ON Turns the cabinet simulation on or o .

94 DeepMind 12 User Manual

EdisonEX1 (STEREO IMAGING)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 ON On — OFF ON Allows the e ect to be turned On or O .

2 IMD InMode — ST M/S Controls the input mode (Stereo or Mid/Side).

3 OMD OutMode — ST M/S Controls the output mode (Stereo or Mid/Side).

4* STS StSpread — -50.0 50.0 Controls the spread of the stereo  eld.

5* LMF LMFSpread — -50.0 50.0 Controls the spread of the stereo  eld for low/mid frequencies only.

6* BAL Balance — -50.0 50.0 Adjusts the ratio of mono to stereo content.

7* CNT CntrDist — -50.0 50.0 Allows the mono content to be panned.

8* GN Gain dB -12.0 dB 12.0 dB Controls the amount of output gain applied to the signal.

Auto Pan (AUTO PANNING)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* SPD Speed Hz 0.0 Hz 5.0 Hz Adjusts the LFO rate. Time synchronised options from 4 to 1/64 bars.

2* PHS Phase — 0.0 180.0 Controls the LFO phase di erence between the left and right channels.

3* WAV Wave — -50.0 50.0 Blends the LFO waveform between triangular and square shape.

4* DEP Depth % 0.0% 100% Controls the depth (amount) of modulation.

5* ESP EnvSpd % 0.0% 100% Adjusts how much the LFO speed is modulated by the envelope.

6* EDP EnvDepth % 0.0% 100% Adjusts the depth of the envelope modulation.

7* ATK Attack ms 10.0 ms 1000.0 ms Controls the envelope attack stage time.

8* HLD Hold ms 1.0 ms 2000.0 ms Controls the envelope hold stage time.

9* REL Release ms 10.0 ms 1000.0 ms Controls the envelope release stage time.

95 DeepMind 12 User Manual

NoiseGate (NOISE GATE)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* THR Threshold dB -50.0 0.0 Sets signal level at which gate opens.

2 RNG Range dB -100.0 0.0 Control adjusts the amount of gain reduction applied to the signal below threshold.

3* ATT Attack ms 0.0 20.0 Adjusts time taken for gate to open after an over-threshold signal.

4* REL Release ms 2.0 1999.9 Adjusts time taken for gate to close after programme material falls back below threshold.

5* HLD Hold ms 2.0 1999.9 This de nes a waiting period before the gate starts to close.

6 PUN Punch — -6.0 6.0 Used to increase tonal shaping or reduce gated breathing/delay/resonant howl-round.

7 MOD Mode — — — GAT (Gate), TRN (Transient Gate), DUC (Ducker).

8 PWR Power — ON OFF Enables gate in the signal path. When switched o , gate is bypassed.

Delay (STEREO DELAY)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

2 TIM Time ms 1.0 ms 1500.0 ms Adjusts the master delay time. Time synchronised options from 4 to 1/64 bars.

3 MOD Mode — — — S- Stereo feedback, X - crosses feedback between channels, M - Mono mix in feedback chain.

4 FCL FactorL — — — Sets left delay to rhythmic fractions of the master delay (1/4, 3/8, 1/2, 2/3, 1, 4/3, 3/2, 2, 3).

5 FCR FactorR — — — Sets right delay to rhythmic fractions of the master delay (1/4, 3/8, 1/2, 2/3, 1, 4/3, 3/2, 2, 3).

6 OFS O set ms -100.0 ms 100.0 ms Adds a delay di erence between the left and right delayed signals.

7* LC LC Hz 10.0 Hz 500.0 Hz Adjusts the low frequency cut, allowing lower frequencies to remain una ected by the delay.

8* HC HC Hz 200.0 Hz 20000.0 Hz Adjusts the high frequency cut, allowing higher frequencies to remain una ected by the delay.

9* FLC FeedLC Hz 10.0 Hz 500.0 Hz Adjusts the low cut  lter frequency in the feedback paths.

10* FBL FeedL % 0.0% 100% Control the amount of feedback for the left channel.

11* FBR FeedR % 0.0% 100% Control the amount of feedback for the right channel.

12* FHC FeedHC Hz 200.0 Hz 20000.0 Hz Adjusts the high cut  lter frequency in the feedback paths.

96 DeepMind 12 User Manual

3TapDelay (3-TAP DELAY)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 TIM Time ms 1.0 ms 1500.0 ms Sets the master delay time, and the  rst stage. Time synchronised options from 4 to 1/64 bars.

2* GNT GainT % 0.0% 100% Sets the gain level of the  rst stage of the delay.

3* PNT PanT % -100% 100% Sets the position of the  rst delay stage in the stereo  eld.

4* FBK Feedback % 0.0% 100% Adjusts the amount of feedback.

5 FCA FactorA — — — Controls the delay time in the second stage of the delay (1/4, 3/8, 1/2, 2/3, 1, 4/3, 3/2, 2, 3).

6* GNA GainA % 0.0% 100% Controls the gain level of the second delay stage.

7* PNA PanA % -100% 100% Sets the position of the second delay stage in the stereo  eld.

8 FCB FactorB — — — Controls the delay time in the third stage of the delay (1/4, 3/8, 1/2, 2/3, 1, 4/3, 3/2, 2, 3).

9* GNB GainB % 0.0% 100% Controls the gain level of the third delay stage.

10* PNB PanB % -100% 100% Sets the position of the third gain stage in the stereo  eld.

11 XFD X-Feed — OFF ON Turns the stereo cross-feedback of the delays On or O .

12 MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

4TapDelay (4-TAP DELAY)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 TIM Time ms 1.0 ms 1500.0 ms Sets the master delay time, and the  rst stage. Time synchronised options from 4 to 1/64 bars.

2* GN Gain % 0.0% 100% Sets the gain level of the  rst stage of the delay.

3* FBK Feedback % 0.0% 100% Adjusts the amount of feedback.

4 SPR Spread — 0.0 6.0 Positions the  rst delay stage in the stereo  eld.

5 FCA FactorA — — — Controls the delay time in the second stage of the delay (1/4, 3/8, 1/2, 2/3, 1, 4/3, 3/2, 2, 3).

6* GNA GainA % 0.0% 100% Controls the gain level of the second delay stage.

7 FCB FactorB — — — Controls the delay time in the third stage of the delay (1/4, 3/8, 1/2, 2/3, 1, 4/3, 3/2, 2, 3).

8* GNB GainB % 0.0% 100% Controls the gain level of the third delay stage.

9 FCC FactorC — — — Controls the delay time in the fourth stage of the delay (1/4, 3/8, 1/2, 2/3, 1, 4/3, 3/2, 2, 3).

10* GNC GainC % 0.0% 100% Controls the gain level of the fourth delay stage.

11 XFD X-Feed — 0.0 1.0 Turns the stereo cross-feedback of the delays On or O .

12* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

97 DeepMind 12 User Manual

T-RayDelay (TEL-RAY DELAY)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

2* DLY Delay % 0.0% 100% Adjusts the master delay time.

3* SUS Sustain % 0.0% 100% Controls how long the delay is sustained for. Warning at 100% build up will occur.

4* WOB Wobble % 0.0% 100% Adjusts the amount of wobble caused by age and quality of build/materials.

5* TON Tone % 0.0% 100% Controls the tone of the delays.

DecimDelay (Decimator Delay)

No DM12 REF PARAMETERS UNITS MIN MAX DESCRIPTION

1MIX Mix % 0.00% 100.00% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

2TIM Time Ms 1.0 ms 1500.0 ms Adjusts the master delay time. Time synchronized options from 4 to 1/64 bars.

3DSM

Downsample

% 0.00% 100.00% Decimates the signal by reducing the sampling frequency.

4FCL FactorL — — — Sets left delay to rhythmic fractions of the master delay (1/4, 3/8, 1/2, 2/3, 1, 4/3, 3/2, 2, 3).

5FCR FactorR — — — Sets right delay to rhythmic fractions of the master delay (1/4, 3/8, 1/2, 2/3, 1, 4/3, 3/2, 2, 3).

6BRC Bit-Reduce — 24 1 Decimates the signal by reducing the bit-depth.

7FC Cuto Hz 30.0 Hz 20000.0 Hz Adjust the cuto frequency of the  lter, allowing speci c frequencies to be a ected

by the delay.

8RES Resonance % 0.00% 100.00% Adjusts the resonance of the  lter.

9FLT Type — — — It sets the  lter type (Lowpass, Highpass, Bandpass, Notch).

10 FBL FeedL % 0.00% 100.00% Controls the amount of feedback for the left channel.

11 FBR FeedR % 0.00% 100.00% Controls the amount of feedback for the right channel.

12 DMT Decimate — — — It sets the decimation on the input signal (PRE) or only on the delay (POST).

98 DeepMind 12 User Manual

ModDlyRev (MODULATION/DELAY/REVERB)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 TIM Time ms 1.0 ms 1500.0 ms Sets the master delay time. Time synchronised options from 4 to 1/64 bars.

2 FAC Factor — — — Sets the delay to rhythmic fractions (1, 1/2, 2/3, 3/2).

3* FBK Feedback % 0.0% 100% Controls the percentage of positive feedback.

4* FHC FeedHC Hz 200.0 Hz 20000.0 Hz Adjusts the high cut  lter frequency in the feedback path.

5* DEP Depth % 0.0% 100% Controls the depth (amount) of modulation.

6* SPD Speed Hz 0.0 Hz 10.0 Hz Adjusts the rate of the modulation. Time synchronised options from 4 to 1/64 bars.

7 MOD Mode — PAR SER Controls the processor chain routing (Serial/Parallel)

8 RTY Rtype — — — Reverb Type can be set to AMB (Ambience), CLUB, or HALL.

9* DCY Decay — 1.0 10.0 Controls the amount of time it takes for the reverb to dissipate.

10* DMP Damping — 1000 Hz 20000 Hz Determines the decay of high frequencies within the reverb tail.

11* BAL Balance — -100.0 100.0 Adjusts ratio of the delay signal to the reverb signal.

12* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals

Chorus (STEREO CHORUS)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* SPD Speed Hz 0.0 Hz 5Hz Sets the modulation speed. Time synchronised options from 4 to 1/64 bars.

2* WDL WidthL % 0.0% 100% Determines the amount of modulated delay in the left channel.

3* WDR WidthR % 0.0% 100% Determines the amount of modulated delay in the right channel.

4 DLL DelayL ms 0.5 ms 50.0 ms Sets the total amount of delay for the left channel.

5 DLR DelayR ms 0.5 ms 50.0 ms Sets the total amount of delay for the right channel.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies in the signal to be reduced.

8* HC Hi Cut Hz 200.0 Hz 20000.0 Hz Allows the high frequencies in the signal to be reduced.

9 PHS Phase — 0.0 100.0 Adjusts the phase o set of the LFO between left and right channel.

10 WAV Wave % 0.0% 100% Blends between the digital triangular chorus sound and the classic analog sine wave.

11* SPR Spread % 0.0% 100% Adjusts how much of the left channel is mixed into the right and vice versa.

99 DeepMind 12 User Manual

Chorus-D (DIMENSIONAL CHORUS)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 ON On — OFF ON Allows the e ect to be turned On or O .

2 MOD Mode — M ST Switches the operation between Mono and Stereo modes.

3* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

4 SW1 Sw1 — OFF ON Engages level one intensity (minimum).

5 SW2 Sw2 — OFF ON Engages level two intensity.

6 SW3 Sw3 — OFF ON Engages level three intensity.

7 SW4 Sw4 — OFF ON Engages level four intensity (maximum).

Flanger (STEREO FLANGER)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* SPD Speed Hz 0.0 Hz 5 Hz Sets the modulation speed. Time synchronised options from 4 to 1/64 bars.

2* WDL WidthL % 0.0% 100% Determines the amount of modulated delay in the left channel.

3* WDR WidthR % 0.0% 100% Determines the amount of modulated delay in the right channel.

4 DLL DelayL ms 0.5 ms 20.0 ms Sets the total amount of delay for the left channel.

5DLR DelayR ms0.5 ms 20.0 ms Sets the total amount of delay for the right channel.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* LC LoCut Hz 10.0 Hz 500.0 Hz Allows the low frequencies in the signal to be reduced.

8* HC Hi Cut Hz 200.0 Hz 20000.0 Hz Allows the high frequencies in the signal to be reduced.

9 PHS Phase — 0.0 180.0 Adjusts the phase o set of the LFO between left and right channel.

10* FLC FeedLC Hz 10.0 Hz 500.0 Hz Adjusts the low cut  lter frequency in the feedback path.

11* FHC FeedHC Hz 200.0 Hz 20000.0 Hz Adjusts the high cut  lter frequency in the feedback path.

12* FD Feed % -90.0% 90.0% Controls the percentage of positive or negative feedback.

100 DeepMind 12 User Manual

Phaser (STEREO PHASER)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* SPD Speed Hz 0.0 Hz 5 Hz Sets the modulation speed. Time synchronised options from 4 to 1/64 bars.

2* DEP Depth % 0.0% 100% Controls the depth (amount) of modulation.

3* RES Reso % 0.0% 100% Adjusts the resonance of the multiple  lter stages.

4* BAS Base Freq Hz 20 Hz 15000 Hz Adjusts the frequency range of the modulated  lters.

5 STG Stages — 2.0 12.0 Controls how many  lter stages are used.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7 WAV Wave — -50.0 +50.0 Shapes the symmetry of the LFO waveform.

8 PHS Phase deg 0.0 180.0 Adjusts the LFO phase di erence between the left and right channel

9* ENV EnvMod ms -100.0% 100% Adjusts the level of positive or negative envelope modulation.

10* ATK Attack ms 10.0 ms 1000.0 ms Controls the envelope attack stage time.

11* HLD Hold ms 1.0 ms 2000.0 ms Controls the envelope hold stage time.

12* REL Release ms 10.0 ms 1000.0 ms Controls the envelope release stage time.

MoodFilter (MOOG TYPE FILTER)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1 SPD Speed Hz 0.0 Hz 20.0 Hz Sets the modulation speed. Time synchronised options from 4 to 1/64 bars.

2* DEP Depth % 0.0% 100% Controls the depth (amount) of modulation.

3* RES Resonance % 0.0% 100% Adjusts the resonance of the  lter.

4* FRQ Base Freq Hz 20 Hz 15000 Hz Adjusts the level of positive or negative envelope modulation.

5 TYP Type LP — — — Selects between low pass (LP), high-pass (HP), band-pass (BP) and Notch (NOT).

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7 WAV Wave — — — Selects modulation waveform Triangular, Sine, Saw Up, Saw Down, Ramp, Square or Random.

8* ENV EnvMod % -100.0% 100% Adjusts the level of positive or negative envelope modulation.

9* ATK Attack ms 10.0 ms 249.9 ms Controls the  lter attack time.

10* REL Release ms 10.0 ms 500.0 ms Controls the  lter release time.

11* DRV Drive % 0.0% 100% Adjusts the level, also introduces an overdrive e ect if pushed hard.

12 4P 4-Pole — 2P 4P 100.0 Adjusts the slope of the  lter from 2-pole to 4-pole (steeper).

101 DeepMind 12 User Manual

Dual Pitch (DUAL PITCH SHIFTER)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* SM1 Semi1 — -12.0 12.0 Adjusts the pitch of the  rst channel in semi-tones.

2* CN1 Cent1 — -50.0 50.0 Adjusts the pitch of the  rst channel in cents.

3 DL1 Delay1 ms 1.0 ms 500.0 ms Adjusts the time di erence between the wet and dry signals. Sync options from 4 to 1/64 bars.

4* GN1 Gain1 % 0.0% 100% Allows gain compensation to be applied to the  rst channel.

5* PN1 Pan1 % -100.0% 100% Allows panning of the  rst channel.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* SM2 Semi2 — -12.0 12.0 Adjusts the pitch of the second channel in semi-tones.

8* CN2 Cent2 — -50.0 50.0 Adjusts the pitch of the second channel in cents.

9 DL2 Delay2 ms 1.0 ms 500.0 ms Adjusts the time di erence between the wet and dry signals. Sync options from 4 to 1/64 bars.

10* GN2 Gain2 % 0.0% 100% Allows gain compensation to be applied to the second channel.

11* PN2 Pan2 % -100.0% 100% Allows panning of the second channel.

12* HIC HiCut Hz 200.0 Hz 20000.0 Hz Allows the high frequencies a ected by the pitch shifting to be reduced.

RotarySpkr (ROTARY SPEAKER)

No DM12 REF PARAMETER UNITS MIN MAX DESCRIPTION

1* LOS LoSpeed Hz 0.1 Hz 4.0 Hz Adjusts the rotational speed when the Low Speed operation is selected.

2* HIS HiSpeed Hz 2.0 Hz 9.9 Hz Adjusts the rotational speed when the High Speed operation is selected.

3* ACC Accel % 0.0% 100% Adjusts how quickly the speed increases and decreases from the Slow mode to the Fast mode.

4* DIS Distance % 0.0% 100% Adjusts the distance between the Rotary speakers and the virtual microphone.

5* BAL Balance — -100.0 100.0 Adjusts the balance between the virtual horn and virtual drum controlling the signal tone.

6* MIX Mix % 0.0% 100% Controls the mix (or ratio) of wet (processed) and dry (unprocessed) signals.

7* MOT Motor — RUN STOP Allows The rotation e ect of the motor to be disengaged (STOP).

8* SPD Speed — SLOW FAST Selects either the slow or fast speeds for rotation.

102 DeepMind 12 User Manual

10. Short-cuts

In order to speed up programming tasks there are several short-cuts

implemented on the DeepMind 12 as listed below.

Note: While holding down any of the shortcut switches the menu will

momentarily switch to the relevant menu. Once you release the shortcut switch

you will be returned to the PROG screen.

10.1 Menu Parameter Reset

To reset any menu parameter to its default setting momentarily press the -NO

and+YES switches at the same time.

10.2 LFO 1 Shape

To change the LFO 1 waveform shape press and hold the LFO 1 EDIT switch. While

holding the switch you can use the LFO 1 RATE fader to set the LFO 1 waveform

shape. The following message will be shown to give you guidance while holding

the LFO 1 EDIT switch.

10.3 LFO 2 Shape

To change the LFO 2 waveform shape press and hold the LFO 2 EDIT switch. While

holding the switch you can use the LFO 2 RATE fader to set the LFO 2 waveform

shape. The following message will be shown to give you guidance while holding

the LFO 2 EDIT switch.

10.4 OSC Modulation Sources

To change any of the OSC Modulation sources press and hold the OSC EDIT switch.

While holding the switch you can use any of the following faders to set the

source for the respective parameter:

•

• OSC 1 PITCH MOD

•

• OSC 1 PWM

•

• OSC 2 PITCH MOD

•

• OSC 2 TONE MOD

The following message will be shown to give you guidance while holding the OSC

EDIT switch

10.5 VCF LFO Source

To change the VCF LFO source press and hold the VCF EDIT switch. While holding

the switch you can use the VCF LFO fader to select the source LFO. The following

message will be shown to give you guidance while holding the LFO 1 EDIT switch.

10.6 MOD MATRIX Bus Con guration

Each MOD MATRIX bus can be con gured without having to scroll through the

large lists of sources and destinations. In order to do this please use the following

steps:

1) Use the navigation switches to select and of the parameters on the bus

you would like to con gure.

2) Press and hold the MOD switch

3) To select a modulation source press an edit switch (further presses will

cycle though the options associated with the switch), or press any key

on the keyboard to cycle through the sources associated with notes.

4) To select a modulation destination move the fader of the required

parameter.

5) To set the modulation depth adjust the data entry fader.

Once you have con gured the bus as you require you can release the

MOD MATRIX switch.

Note: All changes will immediately have an e ect so that you can hear the

changes to your program by the modulation bus.

103 DeepMind 12 User Manual

11. Applications

On the following pages we present the most useful applications for your DeepMind 12 analog polyphonic synthesizer, using a few practical examples.

11.1 Studio Con guration Example

OUTPUT2

CVNORM

OUTPUT1MIN VOL

10

0

Desktop Computer

MIDI Controller

Expression Pedal

Headphones

Studio Monitors

Audio Interface

Footswitch

DeepMind iOS App

Wi-Fi Connection

104 DeepMind 12 User Manual

11.2 Live Con guration Example

OUTPUT2

CVNORM

OUTPUT1MIN VOL

10

0

Mixing console

Active Loudspeakers

Laptop Computer

MIDI Controller

Expression Pedal

Headphones

Footswitch

105 DeepMind 12 User Manual

11.3 Band/Practice Con guration Example

Expression Pedal

Headphones

Footswitch

DeepMind iOS App

DeepMind iOS App

OUTPUT2

CVNORM

OUTPUT1MIN VOL

10

0

106 DeepMind 12 User Manual

11.4 Interfacing with Other Hardware Example

Mixing console

Active Loudspeakers

Headphones

Modular Synthesizer

CV

Gate

107 DeepMind 12 User Manual

11.5 Interfacing with Modular Synthesizer Example

Expression Pedal

Headphones

Footswitch

OUTPUT2

CVNORM

OUTPUT1MIN VOL

10

0

Mixing console

Active Loudspeakers

MIDI Controller

External Sound Module

Sync to another Player

108 DeepMind 12 User Manual

12. DAW MIDI Con guration

All the parameters which can be controlled by MIDI can of course be recorded

and then played back as automation data within any DAW or application that

supports MIDI.

The DeepMind 12 o ers three methods of communicating via MIDI:

•

• Physical MIDI Ports - When using the physical MIDI ports you will need to

connect these to a MIDI interface or other device which can pass the MIDI

information to your host computer/tablet/phone.

•

• USB-MIDI - The DeepMind 12 is a class compliant USB device and should

appear as both inputs and outputs in most applications without the need for

any additional drivers.

•

• WiFi-MIDI - The DeepMind 12 supports RTP-MIDI and should appear as both

inputs and outputs in most applications without the need for any additional

drivers.

In order to use the DeepMind 12 analog polyphonic synthesizer in conjunction

with a Digital Audio Workstation (DAW) or any Audio/MIDI application please

follow these steps:

Ensure that the relevant interface (MIDI/USB/Wi-Fi) is con gured correctly in the

GLOBAL-CONNECTIVITY menu.

Ensure that the DeepMind 12 is an active input and output in your DAW /

Application MIDI setup.

Ensure that the your DAW is setup to receive MIDI on the same channel as the

DeepMind 12 Transmit channel.

Recording, editing and playback of Note data such as Note number, Velocity, Note

Length etc, should be possible in most applications.

Recording, editing and playback of MIDI CC data such as Aftertouch, Pitch Bend,

Mod Wheel or any of the faders should be possible in most applications.

Recording and playback of MIDI NRPN data is only possible in certain applications,

please consult your manufacturers data for details on NRPN support.

Note: If you adjust a parameter using an external device or application

connected the DeepMind 12 will forward the change to the other interfaces. E.g.

a changed received over Wi-Fi will be re-transmitted by the DeepMind 12 to both

the USB port and the MIDI socket. The data format will be dependant on the

mode settings for each interface

Warning: Be careful not to create any kind of MIDI loop as feeding back the same

information to the DeepMind 12 will cause erratic behavior.

109 DeepMind 12 User Manual

13. System Block Diagram

Voices 1-12

Portamento Time

PB DEPTH +/-

Pitch

Bend

Key Pitch

OSC1 RANGE

OSC2 RANGE

P

.MOD MODE

LFO-1

LFO-2

ENV-1

ENV-2

ENV-3

LFO-1(Uni)

LFO-2(Uni)

P.MOD-SRC

OSC DRIFT

PARAM DRIFT

VEL-CURVE

AFT CURVE

PWM-SRC

AFT>P.MOD

WHEEL>P.MOD

OSC 1

Pitch

PW

Mod

Mod

Wheel

Aftertouch

LFO-1

LFO-2

VCA ENV

VCF ENV

MOD ENV

MANUAL

PWM

SYNC

TONE

MOD

OSC 2

Pitch

TM

Mod

PITCH

Noise

NOISE

LEVEL

LEVEL

UNISON

DETUNE

Unison

Voice

KYBD

LFO 1

RATE

Arp

Clock

DELAY

TIME

Mono

LFO

Phase

Voice LFO

Clock

LFO

Destination

LFO 2

RATE

GATE

TIME

CHORD

PEDAL/CV

SUSTAIN POLY

CHORD

ON/OFF

TAP

PORTA-OSC-BAL

PORTA-MODE

ARP-TO-MIDI

Sine

Smp&Hold

Smp&Glide

Triangle

Square

Ramp Up

Ramp Down

OCTOCT

Tracking

Key Gate

Key Gate

PARAM DRIFT

LFO-1

LFO-2

ENV-1

ENV-2

ENV-3

LFO-1(Uni)

LFO-2(Uni)

P.MOD-SRC

ENABLE

LOOPING

T.MOD-SRC

ARP-SYNC

CLOCK DIVIDER

CLOCK DIVIDER

SLEW RATE

SLEW RATE

KEY-SYNC

Key Gate

KEY-SYNC

PHASE SHAPE

AFT>P.MOD

WHEEL>P.MOD

Mod

Wheel

PITCH

MOD

PITCH

MOD

Aftertouch

LFO-1

LFO-2

VCA ENV

VCF ENV

MOD ENV

MANUAL

Arpreggiator

Master

BPM

Arp Input

Notes

OCT MODE SWING

CtrlSeq

Mod Destination

Pedal

Mod Destination

HOLD

Pattern Editor

SWING LENGTH

OSC DRIFT

Control Sequencer

Sequence Editor

Pattern Editor

Wi-FiUSBMIDI IN

Wi-FiUSBMIDI OUT

VOICE ALLOCATION

Wi-FiUSBMIDI IN

POLYPHONY

PRIORITY

TRIGGERING

Master BPM Clock Generator

Mono LFO 1

Clock Generator

Arp

Clock

Velocity Gate

CLOCK DIVIDER

Key Gate

KEY-SYNC

Master

BPM CtrlSeq

Clock

External MIDI Clock Generator

Mono LFO 2

Clock Generator

110 DeepMind 12 User Manual

Mod

Wheel

MW-LFO-DEPTH

PAN-SPREAD

PARAM DRIFT

LPF TYPE

PARAM DRIFT

PARAM DRIFT

PARAM DRIFT

P.BEND-FREQ

ENV-DEPTH

VCF-ENV-TRIG

LFO SELECT

ROTARY CONTROL

FADER CONTROL

WHEEL CONTROL

DIGITAL CONTROL (FROM MENU)

SIGNAL MODULATION

SIGNAL SCALING

ANALOG PROCESSING

RES

FREQ

LFO

VCF Env VCA Env

VCF

Freq

Res

VCA

Pan

Destination

Voice Number

Key Gate

Left Output

Right Output

VCA

HPF

FREQ

BOOST

Pitch

Bend

AFT-LFO-DEPTH

DEPTH

DEPTH

DEPTH

DEPTH

DEPTH

DEPTH

DEPTH

DEPTH

MOD Env

Mod Destination

LFO-1

LFO-2

Key

LOOP

LFO-1

LFO-2

SEQ(Step)

VCF-ENV-TRIG

LFO-1

LFO-2

Key

LOOP

SEQ(Step)

Aftertouch

Volume

ENV

TEXT

DIGITAL PROCESSING

AMPLIFIER STAGE

Key Velocity

MOD Env

VCF-ENV-TRIG

LFO-1

LFO-2

Key

LOOP

SEQ(Step)

VELOCITY-SENS

Key Velocity

VELOCITY-SENS

2 POLE

INVERT

Modulation

Destinations

Modulation

Sources 8x8 Mod Matrix

22,880 Possible Modulations (All Automatable)

22 SOURCES

130 DESTINATIONS

FX

1234

ANALOG PATH

DIGITAL PATH

Volume

MODE

INSERT

SEND

BYPASS

ANALOG PATH

OFF

ON

ON

DIGITAL PATH

ON

ON

OFF

PARAM DRIFT

PARAM DRIFT

111 DeepMind 12 User Manual

14. Connection Wiring Diagrams

The DeepMind 12 analog polyphonic synthesizer uses servo-balanced outputs.

The circuit design has an automatic hum suppression with balanced signals and

is able to operate, without problem, even at highest levels. Externally-induced

mains hum etc, is thus e ciently suppressed.

Theservo-function, also automatic, recognizes the connection of unbalanced

pin assignments and changes the nominal level internally so that there is no

di erence in level between the input and output signals (6dB correction).

!Please ensure that only quali ed persons install and operate the device.

During installation and operation the user must have su cient contact to earth.

Electrostatic discharges might a ect the operation of the unit.

strain relief clam

sleeve

sleeve

ring

tip

tip

ground / shield

ring

right

left

Headphones Connection Cable Wiring

strain relief clam

sleeve

sleeve

tip

tip

ground / shield

signal

Sustain Connection Cable Wiring

strain relief clam

sleeve

sleeve

ring

tip

tip

ground / shield

ring

expression pedal output,

or control voltage

+5V

Expression or Control Voltage Connection Cable Wiring

strain relief clam

sleeve

sleeve

tip

tip

ground / shield

signal

Un-Balanced Connection Cable Wiring

strain relief clam

sleeve

sleeve

ring

tip

tip

ground / shield

ring

cold - negative (-)

hot - positive (+)

Balanced Connection Cable Wiring

112 DeepMind 12 User Manual

15. Technical Speci cations

Global

Display Backlit LCD

Main Menus PROG, FX, GLOBAL, COMPARE, WRITE

Edit Menus ARP/SEQ, LFOs, OSCs, POLY, VCF, VCA,

VCA ENV,

VCF ENV, MOD ENV, MOD MATRIX

Presets 8 banks each with 128 programs

Fader Modes MIDI CC, NRPN, OFF

Controls

Keyboard 49 semi-weighted, full-size keys

Keyboard sensing Aftertouch and note on/o velocity

Encoders 1 rotary knob

Faders 26 slide faders (35 mm)

Switches 33 backlit switches

Modulation Free moving wheel

Pitch Bend Spring loaded wheel

Connectivity

MIDI In/Out/Thru 5-pin DIN / 16 channels

Pedal/CV ¼ " TRS

Sustain ¼ " TS

USB USB 2.0, type B

Output L/R ¼ " TRS, balanced, max. +18 dBu

Headphones ¼ " TRS, unbalanced, max. +21 dBu

Synthesizer Architecture

Number of voices 12 analog

OSC 2 per voice

LFO 2 per voice

VCF 2-pole / 4-pole

HPF (Common to all voices)

6 dB per octave

Envelopes VCA, VCF, MOD

Mod Matrix 22 sources / 130 destinations

Digital E ects

FX Slots 4 per Program

FX Types 34 Algorithms

Internal e ects engines 1 true stereo SHARC DSP

E ects signal processing 32/40-bit  oating point @ 48 kHz

A/D-D/A performance 24-bit 48 kHz, 114 dB dynamic range

Bypass True hard bypass

USB

Type Class compliant USB 2.0, type B

Supported operating systems Windows 7 or higher**

Mac OS X 10.6.8 or higher

iOS 8 or higher (iPad)

Android 6.0 or higher

Wi-Fi

Antenna Internal

Access Point, number of clients Max. 1

IEEE 802.11 b/g standard 2.4 GHz

Frequency Range 2,412 - 2,462 MHz

WLAN channels 11

Max Output Power 16 dBm (802.11 b) /20 dBm (802.11 g) /

20 dbm (802.11 n)

Power

Mains connector Standard IEC receptacle

Power consumption 55 W max.

Fuse T3.15AH250 V

Internal Switch-mode PSU

Autorange 100-240 V,

(50/60 Hz)

Environmental

Operating temperature range 5°C – 40°C (41°F – 104°F)

Physical (Packaged)

Dimensions (H x W x D) 103 x 822 x 257 mm

(4.1 x 32.4 x 10.1")

Weight 8.4 kg (18.5 lbs)

Shipping Weight 10.5 kg (23.1 lbs)

113 DeepMind 12 User Manual

16. MIDI Commands

MIDI (Musical Instrument Digital Interface) is a messaging protocol used to transfer or communicate information between devices and/or host computers.

16.1 MIDI Implementation Chart

MIDI Implementation Chart v. 2.0

Manufacturer: Behringer Model: DeepMind 12 Version:1.0 Date: 01 September 2016

Transmit/Export Recognize/Import Remarks

1. Basic Information

MIDI channels 1-16 — —

Note numbers C0-C8 — —

Program change Yes Yes —

"Bank Select response? (Yes/No)

If yes, list banks utilized in remarks column"

Yes Yes —

"Modes supported : Mode 1: Omni-On, Poly (Yes/No)

Mode 2: Omni-On, Mono (Yes/No) Mode 3: Omni-O , Poly (Yes/No) Mode 4:

Omni-O , Mono (Yes/No) Multi Mode (Yes/No)"

———

Note-On Velocity (Yes/No) Yes Yes —

Note-O Velocity (Yes/No) Yes Yes —

Channel Aftertouch (Yes/No) Yes Yes —

Poly (Key) Aftertouch (Yes/No) No No —

Pitch Bend (Yes/No) Yes Yes —

Active Sensing (Yes/No) — — —

System Reset (Yes/No) — — —

Tune Request (Yes/No) — — —

"Universal System Exclusive: Sample Dump Standard (Yes/No)

Device Inquiry (Yes/No) File Dump (Yes/No) MIDI Tuning (Yes/No) Master Volume

(Yes/No) Master Balance (Yes/No)

Notation Information (Yes/No) Turn GM1 System On (Yes/No) Turn GM2 System

On (Yes/No) Turn GM System O (Yes/No) DLS-1 (Yes/No)

File Reference (Yes/No) Controller Destination (Yes/No)

Key-based Instrument Ctrl (Yes/No) Master Fine/Coarse Tune (Yes/No) Other

Universal System Exclusive"

———

Manufacturer or Non-Commercial System Exclusive — — —

NRPNs (Yes/No) ———

"RPN 00 (Pitch Bend Sensitivity) (Yes/No) RPN 01 (Channel Fine Tune) (Yes/No)

RPN 02 (Channel Coarse Tune) (Yes/No) RPN 03 (Tuning Program Select) (Yes/No)

RPN 04 (Tuning Bank Select) (Yes/No)

RPN 05 (Modulation Depth Range) (Yes/No)"

———

2. MIDI Timing and Synchronization

MIDI Clock (Yes/No) — — —

Song Position Pointer (Yes/No) — — —

Song Select (Yes/No) ———

Start (Yes/No) Continue (Yes/No) Stop (Yes/No) Start: Yes, Continue: Yes, Stop: Yes — —

MIDI Time Code (Yes/No) — — —

MIDI Machine Control (Yes/No) — — —

MIDI Show Control (Yes/No) If yes, MSC Level supported — — —

3. Extensions Compatibility

"General MIDI compatible? (Level(s)/No)

Is GM default power-up mode? (Level/No)"

———

DLS compatible? (Levels(s)/No) (DLS File Type(s)/No) — — —

Standard MIDI Files (Type(s)/No) — — —

XMF Files (Type(s)/No) — — —

SP-MIDI compatible? (Yes/No) — — —

114 DeepMind 12 User Manual

16.2 Continuous Controller Messages

MIDI Implementation Chart v. 2.0 Control Number Information Page 1 of 3

Manufacturer: Behringer Model: DeepMind 12 Version:1.0 Date: 01 September 2016

1. Basic Information

Control # Function Transmitted (Y/N) Recognized (Y/N) Remarks

0 Bank Select (MSB) Yes Yes —

1 Modulation Wheel (MSB) Yes Yes —

2 Breath Controller (MSB) Yes Yes —

3— —- —

4 Foot Controller (MSB) Yes Yes —

5 Portamento Time (MSB) Yes Yes —

6 Data Entry (MSB) Yes Yes —

7Channel Volume (MSB) Yes Yes —

8Balance (MSB) Yes Yes —

9— —— —

10 Pan (MSB) Yes Yes —

11 Expression (MSB) Yes Yes —

12 Arpeggiator Rate Yes Yes Replaces: E ect Control 1 (MSB)

13 Arpeggiator Gate Time Yes Yes Replaces: E ect Control 2 (MSB)

14 — — — —

15 — — — —

16 LFO 1 Rate Yes Yes Replaces: General Purpose Controller 1 (MSB)

17 LFO 1 Delay Time Yes Yes Replaces: General Purpose Controller 2 (MSB)

18 LFO 2 Rate Yes Yes Replaces: General Purpose Controller 3 (MSB)

19 LFO 2 Delay Time Yes Yes Replaces: General Purpose Controller 4 (MSB)

20 OSC1 Pitch Modulation Yes Yes —

21 OSC1 Pulse Width Modulation Yes Yes —

22 — — — —

23 OSC 2 Pitch Modulation Yes Yes —

24 OSC 2 Tone Modulation Yes Yes —

25 OSC 2 Pitch Yes Yes —

26 OSC 2 Level Yes Yes —

27 Noise Level Yes Yes —

28 Unison Detune Yes Yes —

29 VCF Frequency Yes Yes —

30 VCF Resonance Yes Yes —

31 VCF Envelope Modulation Yes Yes —

32 Bank Select (LSB) Yes Yes —

33 VCF LFO Modulation Yes Yes Replaces: Modulation Wheel (LSB)

34 VCF Keyboard Modulation Yes Yes Replaces: Breath Controller (LSB)

35 HPF Frequency Yes Yes

36 VCA Level Yes Yes Replaces: Foot Controller (LSB)

37 VCA Envelope Attack Yes Yes Replaces: Portamento Time (LSB)

38 Data Entry (LSB) Yes Yes —

39 VCA Envelope Decay Yes Yes Replaces: Channel Volume (LSB)

40 VCA Envelope Sustain Yes Yes Replaces: Balance (LSB)

41 VCA Envelope Release Yes Yes —

42 VCF Envelope Attack Yes Yes —

43 VCF Envelope Decay Yes Yes Replaces: Pan (LSB)

44 VCA Envelope Sustain Yes Yes Replaces: Expression (LSB)

45 VCF Envelope Release Yes Yes Replaces: E ect Control 1 (LSB)

46 MOD Envelope Attack Yes Yes Replaces: E ect Control 2 (LSB)

47 MOD Envelope Decay Yes Yes —

48 MOD Envelope Sustain Yes Yes —

49 MOD Envelope Release Yes Yes Replaces: General Purpose Controller 1 (LSB)

50 VCA Envelope Attack Curve Yes Yes Replaces: General Purpose Controller 2 (LSB)

115 DeepMind 12 User Manual

MIDI Implementation Chart v. 2.0 Control Number Information Page 2 of 3

Manufacturer: Behringer Model: DeepMind 12 Version:1.0 Date: 01 September 2016

1. Basic Information

Control # Function Transmitted (Y/N) Recognized (Y/N) Remarks

51 VCA Envelope Decay Curve Yes Yes Replaces: General Purpose Controller 3 (LSB)

52 VCA Envelope Sustain Curve Yes Yes Replaces: General Purpose Controller 4 (LSB)

53 VCA Envelope Release Curve Yes Yes —

54 VCF Envelope Attack Curve Yes Yes —

55 VCF Envelope Decay Curve Yes Yes —

56 VCA Envelope Sustain Curve Yes Yes —

57 VCF Envelope Release Curve Yes Yes —

58 MOD Envelope Attack Curve Yes Yes —

59 MOD Envelope Decay Curve Yes Yes —

60 MOD Envelope Sustain Curve Yes Yes —

61 MOD Envelope Release Curve Yes Yes —

62 E ects Slot 1 Parameter 1 Yes Yes —

63 E ects Slot 1 Parameter 2 Yes Yes —

64 Sustain Pedal Yes Yes —

65 E ects Slot 1 Parameter 3 Yes Yes Replaces: Portamento On/O

66 E ects Slot 1 Parameter 4 Yes Yes Replaces: Sostenuto

67 E ects Slot 1 Parameter 5 Yes Yes Replaces: Soft Pedal

68 E ects Slot 1 Parameter 6 Yes Yes Replaces: Legato Footswitch

69 E ects Slot 1 Parameter 7 Yes Yes Replaces: Hold 2

70 E ects Slot 1 Parameter 8 Yes Yes Replaces: Sound Controller 1 (default: Sound Variation)

71 E ects Slot 1 Parameter 9 Yes Yes Replaces: Sound Controller 2 (default: Timbre / Harmonic Quality)

72 E ects Slot 1 Parameter 10 Yes Yes Replaces: Sound Controller 3 (default: Release Time)

73 E ects Slot 1 Parameter 11 Yes Yes Replaces: Sound Controller 4 (default: Attack Time)

74 E ects Slot 1 Parameter 12 Yes Yes Replaces: Sound Controller 5 (default: Brightness)

75 E ects Slot 2 Parameter 1 Yes Yes Replaces: Sound Controller 6 (GM2 default: Decay Time)

76 E ects Slot 2 Parameter 2 Yes Yes Replaces: Sound Controller 7 (GM2 default: Vibrato Rate)

77 E ects Slot 2 Parameter 3 Yes Yes Replaces: Sound Controller 8 (GM2 default: Vibrato Depth)

78 E ects Slot 2 Parameter 4 Yes Yes Replaces: Sound Controller 9 (GM2 default: Vibrato Delay)

79 E ects Slot 2 Parameter 5 Yes Yes Replaces: Sound Controller 10 (GM2 default: Unde ned)

80 E ects Slot 2 Parameter 6 Yes Yes Replaces: General Purpose Controller 5

81 E ects Slot 2 Parameter 7 Yes Yes Replaces: General Purpose Controller 6

82 E ects Slot 2 Parameter 8 Yes Yes Replaces: General Purpose Controller 7

83 E ects Slot 2 Parameter 9 Yes Yes Replaces: General Purpose Controller 8

84 E ects Slot 2 Parameter 10 Yes Yes Replaces: Portamento Control

85 E ects Slot 2 Parameter 11 Yes Yes —

86 E ects Slot 2 Parameter 12 Yes Yes —

87 E ects Slot 3 Parameter 1 Yes Yes —

88 E ects Slot 3 Parameter 2 Yes Yes —

89 E ects Slot 3 Parameter 3 Yes Yes —

90 E ects Slot 3 Parameter 4 Yes Yes —

91 E ects Slot 3 Parameter 5 Yes Yes Replaces: E ects 1 Depth (default: Reverb Send)

92 E ects Slot 3 Parameter 6 Yes Yes Replaces: E ects 2 Depth (default: Tremolo Depth)

93 E ects Slot 3 Parameter 7 Yes Yes Replaces: E ects 3 Depth (default: Chorus Send)

94 E ects Slot 3 Parameter 8 Yes Yes Replaces: E ects 4 Depth (default: Celeste [Detune] Depth)

95 E ects Slot 3 Parameter 9 Yes Yes Replaces: E ects 5 Depth (default: Phaser Depth)

96 Data Increment Yes Yes —

97 Data Decrement Yes Yes —

98 Non-Registered Parameter Number (LSB) Yes Yes —

99 Non-Registered Parameter Number(MSB) Yes Yes —

100 Registered Parameter Number (LSB) Yes Yes —

116 DeepMind 12 User Manual

MIDI Implementation Chart v. 2.0 Control Number Information Page 3 of 3

Manufacturer: Behringer Model: DeepMind 12 Version:1.0 Date: 01 September 2016

1. Basic Information

Control # Function Transmitted (Y/N) Recognized (Y/N) Remarks

101 Registered Parameter Number(MSB) Yes Yes —

102 E ects Slot 3 Parameter 10 Yes Yes —

103 E ects Slot 3 Parameter 11 Yes Yes —

104 E ects Slot 3 Parameter 12 Yes Yes —

105 E ects Slot 1 Type Yes Yes —

106 E ects Slot 2 Type Yes Yes —

107 E ects Slot 3 Type Yes Yes —

108 E ects Slot 4 Type Yes Yes —

109 E ects Slot 1 Gain Yes Yes —

110 E ects Slot 2 Gain Yes Yes —

111 E ects Slot 3 Gain Yes Yes —

112 E ects Slot 4 Gain Yes Yes —

113 Analog Thru Yes Yes —

114 E ects Mode Yes Yes —

115 3D Controller X-Axis Yes Yes —

116 3D Controller Y-Axis Yes Yes —

117 3D Controller Z-Axis Yes Yes —

118 — — — —

119 — — — —

120 All Sound O Yes Yes —

121 Reset All Controllers Yes Yes —

122 Local Control On/O Yes Yes —

123 All Notes O Yes Yes —

124 Omni Mode O Yes Yes —

125 Omni Mode On Yes Yes —

126 Poly Mode O Yes Yes —

127 Poly Mode On Yes Yes —

117 DeepMind 12 User Manual

17. MIDI NRPN Commands

NRPN (Non-Registered Parameter Numbers) are a special type of MIDI communication that allows control of parameters that are not de ned in the basic MIDI

standard. NRPNs work by using groups of de ned controller messages to expand the number of available parameter numbers and also to extend the maximum

resolution. For more information on NRPNs and their implementation please consult the MIDI Manufacturers Association at www.midi.org. For speci c information

regarding the support of NRPN data within any Audio/MIDI application please consult the manufacturer.

An NRPN message consists the following byte sequence

The Data Entry (MSB) message is optional and can be ignored for switch parameters or any parameters which have a range of 0-127 or less.

Note : When Running Status is taken into account, this bytes sequence is reduced to.. B0, 63, aa, 62, bb, 06, cc, 26, dd.

Note : Once the NRPN parameter ID has been selected with the  rst two messages if the previously selected parameter is changed again (i.e. user is moving a single

control) then the  rst two messages can be omitted leaving just the Data Entry LSB & MSB messages.

Note : The DeepMind 12 treats NPRNs from USB, Wi-Fi & the physical MIDI ports separately i.e. it has a 'selected NPRN parameter' for each interface.

The NRPN implementation of the DeepMind 12 is listed in the table below:

MSB LSB 14-bit Parameter Name Range Notes

0 0 00 LFO 1 Rate 0-255 —

0 1 01 LFO 1 Delay / Fade 0-255 —

0 2 02 LFO 1 Shape 0-6 Sine (0), Triangle (1), Square (2), Ramp Up (3), Ramp Down (4), Sample & Hold (5), Sample & Glide (6)

0 3 03 LFO 1 Key Sync 0-1 O (0), On (1)

0 4 04 LFO 1 Arp Sync 0-1 O (0), On (1)

0 5 05 LFO 1 Mono Mode 0-1 Poly (0) Mono (1) or SPREAD-1(2) to SPREAD-254(255)

0 6 06 LFO 1 Slew Rate 0-255 —

0 7 07 LFO 2 Rate 0-255 —

0 8 08 LFO 2 Delay / Fade 0-255 —

0 9 09 LFO 2 Shape 0-6 Sine (0), Triangle (1), Square (2), Ramp Up (3), Ramp Down (4), Sample & Hold (5), Sample & Glide (6)

0 10 10 LFO 2 Key Sync 0-1 O (0), On (1)

0 11 11 LFO 2 Arp Sync 0-1 O (0), On (1)

0 12 12 LFO 2 Mono Mode 0-255 Poly (0) Mono (1) or SPREAD-1(2) to SPREAD-254(255)

0 13 13 LFO 2 Slew Rate 0-255 —

0 14 14 OSC 1 Range 0-2 16' (0), 8' (1), 4' (2)

0 15 15 OSC 2 Range 0-2 16' (0), 8' (1), 4' (2)

0 16 16 OSC 1 PWM Source 0-5 Manual (0), LFO 1 (1), LFO 2 (2), VCA Env (3), VCF Env (4), Mod Env (5)

0 17 17 OSC 2 Tone Mod Source 0-5 Manual (0), LFO 1 (1), LFO 2 (2), VCA Env (3), VCF Env (4), Mod Env (5)

0 18 18 OSC 1 Pulse Enable 0-1 O (0), On (1)

0 19 19 OSC 1 Saw Enable 0-1 O (0), On (1)

0 20 20 OSC Sync Enable 0-1 O (0), On (1)

0 21 21 OSC 1 Pitch Mod Depth 0-255 —

0 22 22 OSC 1 Pitch Mod Select 0-6 LFO 1 (0), LFO 2 (1), VCA Env (2), VCF Env (3), Mod Env (4), LFO 1 Unipolar (5), LFO 2 Unipolar (6)

0 23 23 OSC 1 Aftertouch > Pitch Mod Depth 0-255 —

0 24 24 OSC 1 Mod Wheel > Pitch Mod Depth 0-255 —

0 25 25 OSC 1 PWM Depth 0-255 —

0 26 26 OSC 2 Level 0-255 —

0 27 27 OSC 2 Pitch 0-255 —

0 28 28 OSC 2 Tone Mod Depth 0-255 —

0 29 29 OSC 2 Pitch Mod Depth 0-255 —

0 30 30 OSC 2 Aftertouch > Pitch Mod Depth 0-255 —

0 31 31 OSC 2 Mod Wheel > Pitch Mod Depth 0-255 —

0 32 32 OSC 2 Pitch Mod Select 0-6 LFO 1 (0), LFO 2 (1), VCA Env (2), VCF Env (3), Mod Env (4), LFO 1 Unipolar (5), LFO 2 Unipolar (6)

03333Noise Level 0-255 —

0 34 34 Portamento time 0-255 —

0 35 35 Portamento mode 0-13 Normal (0), Fingered (1), Fixed Rate (2), Fixed Rate Fingered (3), Exponential (4), Exponential Fingered (5), Fixed

+2 (6), Fixed -2 (7), Fixed +5 (8), Fixed -5 (9), Fixed +12 (10), Fixed -12 (11), Fixed +24 (12), Fixed -24 (13)

0 36 36 Pitch bend Up depth 0-24 In steps of 1 semitone

0 37 37 Pitch bend Down depth 0-24 In steps of 1 semitone

0 38 38 OSC 1 Pitch Mod Mode 0-1 0 ( OSC1+2), 1 (OSC 1 Only)

03939VCF Frequency 0-255 —

0 40 40 VCF HighPass Frequency 0-255 —

04141VCF Resonance 0-255 —

0 42 42 VCF Envelope Depth 0-255 —

0 43 43 VCF Envelope Velocity Sensitivity 0-255 —

0 44 44 VCF Pitch Bend to Freq Depth 0-255 —

118 DeepMind 12 User Manual

MSB LSB 14-bit Parameter Name Range Notes

0 45 45 VCF LFO Depth 0-255

0 46 46 VCF LFO Select 0-1 LFO 1 (0), LFO 2 (1)

0 47 47 VCF Aftertouch > LFO Depth 0-255

0 48 48 VCF Mod Wheel > LFO Depth 0-255

0 49 49 VCF Keyboard Tracking 0-255

0 50 50 VCF Envelope Polarity 0-1 Negative (0), Positive (1)

0 51 51 VCF 2 Pole Mode 0-1 4 Pole (0), 2 Pole (1)

0 52 52 VCF Bass Boost 0-1 O (0), On (1)

0 53 53 VCA Envelope Attack Time 0-255

0 54 54 VCA Envelope Decay Time 0-255

0 55 55 VCA Envelope Sustain Level 0-255

0 56 56 VCA Envelope Release Time 0-255

0 57 57 VCA Envelope Trigger Mode 0-4 Key (0), LFO 1 (1), LFO 2 (2), Loop (3), Control Sequencer Step (4)

0 58 58 VCA Envelope Attack Curve 0-255

0 59 59 VCA Envelope Decay Curve 0-255

0 60 60 VCA Envelope Sustain Curve 0-255

0 61 61 VCA Envelope Attack Curve 0-255

0 62 62 VCF Envelope Attack Time 0-255

0 63 63 VCF Envelope Decay Time 0-255

0 64 64 VCF Envelope Sustain Level 0-255

0 65 65 VCF Envelope Release Time 0-255

0 66 66 VCF Envelope Trigger Mode 0-4 Key (0), LFO 1 (1), LFO 2 (2), Loop (3), Control Sequencer Step (4)

0 67 67 VCF Envelope Attack Curve 0-255

0 68 68 VCF Envelope Decay Curve 0-255

0 69 69 VCF Envelope Sustain Curve 0-255

0 70 70 VCF Envelope Attack Curve 0-255

0 71 71 Mod Envelope Attack Time 0-255

0 72 72 Mod Envelope Decay Time 0-255

0 73 73 Mod Envelope Sustain Level 0-255

0 74 74 Mod Envelope Release Time 0-255

0 75 75 Mod Envelope Trigger Mode 0-4 Key (0), LFO 1 (1), LFO 2 (2), Loop (3), Control Sequencer Step (4)

0 76 76 Mod Envelope Attack Curve 0-255

0 77 77 Mod Envelope Decay Curve 0-255

0 78 78 Mod Envelope Sustain Curve 0-255

0 79 79 Mod Envelope Attack Curve 0-255

08080VCA Level 0-255

08181VCA Envelope Depth 0-255

0 82 82 VCA Envelope Velocity Sensitivity 0-255

0 83 83 VCA Pan Spread 0-255 -128 (0) to +127 (255)

0 84 84 Voice Priority Mode 0-2 Lowest (0), Highest (1), Last (2)

08585Polyphony Mode 0-12

Poly (0), Unison 2 (1), Unison 3 (2), Unison 4 (3), Unison 6 (4), Unison 12 (5), Mono (6), Mono 2 (7), Mono 3 (8).

Mono 4 (9), Mono 6 (10), Poly 6 (11), Poly 8 (12)

0 86 86 Envelope Trigger Mode 0-3 Mono (0), Re-Trigger (1), Legato (2), One-Shot (3)

0 87 87 Unison Detune 0-255 Sets the amount phatness!

08888Voice Drift 0-255

08989Parameter Drift 0-255

09090Drift Rate 0-255

0 91 91 OSC Portamento Balance 0-255 -128 (0) to +127 (255)

0 92 92 OSC Key Down Reset 0-1 O (0), On (1)

0 93 93 Mod 1 Source 0-22 See Modulation Matrix Source List

0 94 94 Mod 1 Destination 0-129 See Modulation Matrix Destination List

0 95 95 Mod 1 Depth 0-255 -128 (0) to +127 (255)

0 96 96 Mod 2 Source 0-22 See Modulation Matrix Source List

0 97 97 Mod 2 Destination 0-129 See Modulation Matrix Destination List

0 98 98 Mod 2 Depth 0-255 -128 (0) to +127 (255)

0 99 99 Mod 3 Source 0-22 See Modulation Matrix Source List

0 100 100 Mod 3 Destination 0-129 See Modulation Matrix Destination List

0 101 101 Mod 3 Depth 0-255 -128 (0) to +127 (255)

0 102 102 Mod 4 Source 0-22 See Modulation Matrix Source List

0 103 103 Mod 4 Destination 0-129 See Modulation Matrix Destination List

0 104 104 Mod 4 Depth 0-255 -128 (0) to +127 (255)

0 105 105 Mod 5 Source 0-22 See Modulation Matrix Source List

119 DeepMind 12 User Manual

MSB LSB 14-bit Parameter Name Range Notes

0 106 106 Mod 5 Destination 0-129 See Modulation Matrix Destination List

0 107 107 Mod 5 Depth 0-255 -128 (0) to +127 (255)

0 108 108 Mod 6 Source 0-22 See Modulation Matrix Source List

0 109 109 Mod 6 Destination 0-129 See Modulation Matrix Destination List

0 110 110 Mod 6 Depth 0-255 -128 (0) to +127 (255)

0 111 111 Mod 7 Source 0-22 See Modulation Matrix Source List

0 112 112 Mod 7 Destination 0-129 See Modulation Matrix Destination List

0 113 113 Mod 7 Depth 0-255 -128 (0) to +127 (255)

0 114 114 Mod 8 Source 0-22 See Modulation Matrix Source List

0 115 115 Mod 8 Destination 0-129 See Modulation Matrix Destination List

0 116 116 Mod 8 Depth 0-255 -128 (0) to +127 (255)

0 117 117 Ctrl Sequencer Enable 0-1 O (0), On (1)

0 118 118 Ctrl Sequencer Clock Divider 0-15 See Control Sequencerdivider table

0 119 119 Sequence Length 0-31 1 (0) to 32 (31) steps

0 120 120 Sequencer Swing Timing 0-25 50% (0) to 75% (25)

0 121 121 Key Sync & Loop 0-2 Loop On (0),Key Sync On (1), Loop & Key Sync On (2)

0 122 122 Slew Rate 0-255

0 123 123 Seq Step Value 1 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

0 124 124 Seq Step Value 2 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

0 125 125 Seq Step Value 3 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

0 126 126 Seq Step Value 4 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

0 127 127 Seq Step Value 5 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 0 128 Seq Step Value 6 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 1 129 Seq Step Value 7 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 2 130 Seq Step Value 8 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 3 131 Seq Step Value 9 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 4 132 Seq Step Value 10 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 5 133 Seq Step Value 11 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 6 134 Seq Step Value 12 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 7 135 Seq Step Value 13 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 8 136 Seq Step Value 14 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 9 137 Seq Step Value 15 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 10 138 Seq Step Value 16 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 11 139 Seq Step Value 17 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 12 140 Seq Step Value 18 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 13 141 Seq Step Value 19 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 14 142 Seq Step Value 20 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 15 143 Seq Step Value 21 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 16 144 Seq Step Value 22 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 17 145 Seq Step Value 23 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 18 146 Seq Step Value 24 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 19 147 Seq Step Value 25 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 20 148 Seq Step Value 26 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 21 149 Seq Step Value 27 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 22 150 Seq Step Value 28 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 23 151 Seq Step Value 29 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 24 152 Seq Step Value 30 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 25 153 Seq Step Value 31 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 26 154 Seq Step Value 32 0-255 Bipolar step value -127 (1) to +127 (255). A value of 0 is "skip step".

1 27 155 Arp On/O 0-1 O (0), On (1)

128156Arp Mode 0-10

Up (0), Down (1), Up&Down (2), Up Inv (3), Down Inv (4), Up&Down Inv (5), Up Alt (6), Down Alt (7), Random (8),

As Played (9), Chord (10)

1 29 157 Arp Rate (tempo) 0-255 20 bpm (0) to 275 bpm (255)

1 30 158 Arp Clock 0-12 See Arpeggiator clock divider table

1 31 159 Arp Key Sync 0-1 O (0), On (1)

1 32 160 Arp Gate Time 0-255

1 33 161 Arp Hold 0-1 O (0), On (1)

1 34 162 Arp Pattern 0-64 None (0), Preset-1 (1) ... User-1 (33) ... User-32 (64 )

1 35 163 Arp Swing 0-25 50% (0) to 75% (25)

1 36 164 Arp Octaves 0-5 1 to 6 Octaves

1 37 165 FX Routing 0-9 SeeFX Connection Modes

1 38 166 FX 1 Type 0-33 See FX Type list

120 DeepMind 12 User Manual

MSB LSB 14-bit Parameter Name Range Notes

1 39 - 50 167 -178 FX 1 Params 0-255 FX Slot 1 Parameters

1 51 179 FX 2 Type 0-33 See FX Type list

1 52 -63 180 -191 FX 2 Params 0-255 FX Slot 2 Parameters

1 64 192 FX 3 Type 0-33 See FX Type list

1 65 - 76 193 -204 FX 3 Params 0-255 FX Slot 3 Parameters

1 77 205 FX 4 Type 0-33 See FX Type list

1 78 - 89 206 -217 FX 4 Params 0-255 FX Slot 4 Parameters

1 90 218 FX 1 Output Gain 0-150 —

1 91 219 FX 2 Output Gain — —

1 92 220 FX 3 Output Gain — —

1 93 221 FX 4 Output Gain 0-150 Output gain for FX slots 1-4

1 94 222 FX Mode 0-2 Insert (0), Send (1), Bypass (2)

1 95 - 111 223 -239 Program Name 0-127 Null terminated Program name. 16(+1) char ASCII string.

1 112 240 Program Category 0-16 See program category table

1 113 241 Program Transpose 80 -176 -48 (80) ... 0 ( 128) ... 176 (+48 )

18. Global Commands

Parameter Name Range Description

MIDI Channel 0-16 Sets MIDI Rx / Tx channel. 0 = All, 1 = Ch1 ... 16 = Ch16

Keyboard Local 0-1 Sets the keyboard, mod and pitch wheels 'local' mode, i.e whether they control the synth (1) or just send MIDI (0)

Fader Local 0-1 Sets the fader local mode, i.e whether the faders control the synth (1) or just send MIDI (0)

Global Tune 0-255 0=-128 cents, 128=0 cents 255 = +127 cents

MIDI Clock Source 0-2 Sets the source for the Arp clock. MenuItemMidiClock_e (Internal, MIDI, USB )

MIDI Program Change Mode 0-2 Sets whether the synth receives or sends Program changes or both. MenuItemProgramChangeMode_e (Rx, Tx, Both)

USB Control mode 0-2 Sets whether the synth sends CC (eg for controlling a soft synth) or NRPN messages to USB (for our iOS App) - this is set automatically when an

app notify message is received.

MIDI Control mode 0-2 Sets whether the synth sends CC (eg for controlling another synth) or NRPN messages to MIDI (for our VST App) - this is set automatically when

an app notify message is received.

MIDI Soft Thru 0-1 Sets whether the synth forwards messages received on MIDI In to MIDI Out (O , On ).

USB to MIDI 0-1 Sets whether the synth forwards messages received on USB to MIDI Out (O , On )

MIDI to USB 0-1 Sets whether the synth forwards messages received on MIDI In to USB (O , On )

Fixed Velocity 0-1 Sets whether the keyboard sends  xed (1) or dynamic (0) velocity as part of a Note On message.

Velocity 0-127 Sets the velocity sent when in  xed mode.

Velocity Curve 0-127 (-64 : +63 - TBD ) sets the curve used to convert key velocity into MIDI note velocity - adjust to suit style of playing

Transpose 0-96 (-48 : 48 ) set the keyboard transpose amount (a ects local & MIDI operation)

Aftertouch Curve 0-127 (-64 : +63 TBD) sets the curve used to convert key pressure into MIDI aftertouch - adjust to suit style of playing

Pedal CC 0-3 Sets the MIDI Controller sent by the foot controller pedal input ( Foot Control (CC4), Breath (CC3), Volume (CC7), Expression (CC11)

Sustain CC 0-3 Sets the polarity and function of the sustain pedal switch (Normal+, Normal-, Arp(+), Arp(-))

Fader Pick Up Mode 0-2 Set the Fader pick-up mode (Relative, Pass-thru, Jump )

LCD Brightness 0-9 Sets the LCD brightness in 10% steps (10% to 100%)

LCD Contrast 0-9 Sets the LCD contrast in 10% steps (10% to 100%)

Arp Send to MIDI 0-1 Enables transmission of arpeggiator output to MIDI out (both USB and physical MIDI)

Send NRPN on load 0-2 (may be removed for release version) - Dumps NRPN values when a new program is loaded (mainly for ctrlr)MenuItemSendNrpnOnLoad_e (O ,

MIDI, USB)

Keyboard Octave 0-7 (0-MAX_KEYBOARD_OCT) Sets octave shift for keyboard. At 0, left most key is C0

121 DeepMind 12 User Manual

19. MIDI SysEx Commands

SysEx (System Exclusive) are a special type of MIDI communication that allows control of parameters and settings on a device/manufacturer speci c basis. For more

information on SysEx and its implementation please consult the MIDI Manufacturers Association at www.midi.org. For speci c information regarding the support of

SysEx data within any third party Audio/MIDI applications please consult the manufacturer.

The SysEx implementation of the DeepMind 12 is described in the following sections:

19.2.1 Universal System Exclusive Message (Device Inquiry)

This message can be used to detect the presence of the synth and to get the current global MIDI channel setting (also used as a Sysex Device ID when

addressing the synth).

DEVICE ENQUIRY SYSEX REQUEST

MIDI Bytes Description

F0 System Exclusive Status Byte

7E Non Real Time Message Code

nn or 7F Device ID (0-15) or 7F for broadcast

06 General Information Message Code

01 Identity Request Message Code

F7 End of System Exclusive

DEVICE ENQUIRY SYSEX RESPONSE

MIDI Bytes Description

F0 System Exclusive Status Byte

7E Non Real Time Message Code

nn Device ID of unit 0-15

06 General Information Message Code

01 Identity Reply Message Code

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Product Family ID Code (LSByte)

00 DeepMind12 Product Family ID Code (MSByte)

01 DeepMind12 Family Member ID Code (LSByte)

00 DeepMind12 Family Member ID Code (MSByte)

jn Main Software Version Revision Information j = minor revision (0-7) n=major revision (0-15)

00 Reserved

ii Voice Software Major Version Number (0-127)

nn Voice Software Minor Version Number (0-127)

F7 End of System Exclusive

01 Identity Request Message Code

F7 End of System Exclusive

19.2.2 App Notify Messages

This message is transmitted to the synth to identify that there is a control app connected on a particular MIDI interface. The synth, on receiving this message will

ensure that NPRN and sysex messages are enabled on this interface and then will reply with device ID, rx/tx channels and interface ID of the interface which the app

notify message was received on. When an app is connected on an interface, the unit sends out additional sysex messages such as key down & voice allocation update

messages

APP NOTIFY REQUEST

MIDI Bytes Description

F0 System Exclusive Status Byte

00, 20, 32, Behringer Manufacturers ID

20 DeepMind 12 Model ID

0d Device ID 0-15

00 Control App Notify

rr reserved

F7 End of System Exclusive

122 DeepMind 12 User Manual

APP NOTIFY RESPONSE

MIDI Bytes Description

F0 System Exclusive Status Byte

00, 20, 32 Behringer Manufacturers ID

20 DeepMind 12 Model ID

0d Device ID 0-15

10 Control App Notify Response

rx Midi Receive Ch 0-16 (All, 1-16)

tx Midi Transmit Ch 0-15 (1-16)

if Interface ID (0=MIDI 1=USB 2=Wi )

cb Currently selected bank (0-7)

cp Currently selected program (0-127)

F7 End of System Exclusive

00 Reserved

ii Voice Software Major Version Number (0-127)

nn Voice Software Minor Version Number (0-127)

F7 End of System Exclusive

01 Identity Request Message Code

F7 End of System Exclusive

19.2.3 Bulk Dump Packed Data Format

The bulk dumps listed below all use "Packed MS bit" format data packing so a raw data set of 7 bytes x 8 bits are transmitted as 8 bytes of 7-bits (MSB is 0 for sysex

message data) with the MSBs of the original bytes packed into the  rst bytes of the 8 byte transmitted sequence.

DATA ( 1set = 8bit x 7byte )

b7 ~ b0

— — ——————

7n+1

b7 ~ b0

— — ——————

7n+2 ~7n+5

b7 ~ b0

— — ——————

7n+6

MIDI DATA ( 1set = 7bit x 8byte )

b7b7b7b7b7b7b7

0 — ——————

7n+0

b6 ~ b0

0 — ——————

7n+0

b6 ~~ b0

0 — ——————

7n+0

b6 ~ b0

0 — ——————

7n+0

123 DeepMind 12 User Manual

19.2.4 Dump Messages

These messages can be used to request a data dump and are shown with their responses. Each parameter is stored in its own byte and the data format is documented

in the NRPN table.

PROGRAM DUMP REQUEST

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

01 Program Dump Request

0b Bank Number (0-7)

pp Program Number (0-127)

F7 End of System Exclusive

PROGRAM DUMP RESPONSE

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

02 Program DumpResponse

06 Comms Protocol Version

0b Bank Number (0-7)

pp Program Number (0-127)

—242 bytes of Program Data packed into 278 7-bit message bytes.

F7 End of System Exclusive

EDIT BUFFER DUMP REQUEST

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

03 Edit Bu er Dump Request

F7 End of System Exclusive

EDIT BUFFER DUMP RESPONSE

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

04 Edit Bu er Dump Response

06 Comms Protocol Version

—242 bytes of Program Data packed into 278 7-bit message bytes.

F7 End of System Exclusive

GLOBAL PARAMETER DUMP REQUEST

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

05 Global Parameter Dump Request

F7 End of System Exclusive

124 DeepMind 12 User Manual

GLOBAL PARAMETER DUMP RESPONSE

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

06 Global Parameter DumpResponse

06 Comms Protocol Version

— 45 Bytes of Global Data packed into 56 7-bit message bytes.

F7 End of System Exclusive

SINGLE USER PATTERN DUMP REQUEST

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

07 Single User Pattern Dump Request

pp Pattern Number (0-31)

F7 End of System Exclusive

SINGLE USER PATTERN DUMP RESPONSE

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

08 Single User Pattern DumpResponse

06 Comms Protocol Version

pp Pattern Number (0-31)

— 65 byteUser Pattern packed into 80 7-bit message bytes. User pattern data is 1 byte length followed by 32 bytes for step velocy and 32 bytes for step gate

F7 End of System Exclusive

EDIT BUFFER PATTERN DUMP REQUEST

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

0E Edit Bu er Pattern Dump Request

F7 End of System Exclusive

EDIT BUFFER PATTERN DUMP RESPONSE

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

08 Edit Bu er Pattern DumpResponse

06 Comms Protocol Version

— 65 byteUser Pattern packed into 80 7-bit message bytes.

F7 End of System Exclusive

125 DeepMind 12 User Manual

PROGRAM BANK DUMP REQUEST (Response is individual program dump responses in a sequence)

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

09 Bank Durmp Request

bb Bank Number (0-7)

 First Program (0-127)

ll Last program (0-127)

F7 End of System Exclusive

PROGRAM BANK NAMES DUMP REQUEST

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

0A Bank Program Names Dump Request

bb Bank Number

F7 End of System Exclusive

PROGRAM BANK NAMES DUMP RESPONSE

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

0B Bank Program Names Dump Response

vv Comms Protocol Version

bb Bank Number

— Program name chars unpacked length = 128 Programs * 16 bytes = 2048 Bytes. Packed data length = 2344

F7 End of System Exclusive

SINGLE PROGRAM NAME DUMP REQUEST

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

0C Single Program Name Dump Request

bb Bank Number

pp Program Number

F7 End of System Exclusive

SINGLE PROGRAM NAME DUMP RESPONSE

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

0D Bank Program Names Dump Response

06 Comms Protocol Version

bb Bank Number

— 16 byte Program name packed into 24 bytes

F7 End of System Exclusive

126 DeepMind 12 User Manual

CALIBRATION DATA DUMP REQUEST

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

11 Calibration Data Dump Request

F7 End of System Exclusive

CALIBRATION DATA DUMP RESPONSE

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

12 Calibration Data Dump Response

06 Comms Protocol Version

— Voice and Controller calibration data packed into688 7-bit message bytes

F7 End of System Exclusive

CHORD MEMORY DUMP REQUEST

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

1B Chord Memory Dump Request

F7 End of System Exclusive

CHORD MEMORY DUMP RESPONSE

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

1C Poly Chord Memory Dump Response

06 Comms Protocol Version

— 26 bytes Chord memory packed into 32 7-bit message bytes. Note unused locations set to 0xFF

F7 End of System Exclusive

POLY CHORD MEMORY DUMP REQUEST

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

1D Poly Chord Memory Dump Request

F7 End of System Exclusive

POLY CHORD MEMORY DUMP RESPONSE

MIDI Bytes Description

F0 System Exclusive Start

00, 20, 32 Behringer Manufacturers ID

20 DeepMind12 Model ID

0d Device ID ( 0-15 )

1E Poly Chord Memory Dump Response

06 Comms Protocol Version

— 512 bytes Poly Chord memory packed into 592 7-bit message bytes. Note unused locations set to 0xFF

F7 End of System Exclusive

127 DeepMind 12 User Manual

20. Firmware Update

The DeepMind 12 can receive operating system updates which may add new

features or resolve issues. These operating system updates come in the form of

" rmware".

To perform a  rmware update, follow these steps:

1. Check update availability at www.behringer.com/DeepMind 12

2. Download update

3. Unzip/Expand  les to a folder on your local hard drive.

4. Inside the folder start the "DeepMind Updater" application

5. Follow the instructions in the readme  le included with the download.

6. Once complete, enjoy new features/performance.

21. Troubleshooting

Before turning on the DeepMind 12 power, please check that:

Your speakers or headphones connected are correctly

The external devices are powered-o

Turn the VOLUME knob on the surface to the 0 position.

Turn on the POWER switch located on the rear panel.

The DeepMind 12 operating system will start and you should see the Behringer

logo.

Once the PROG menu is visible you can then turn on power to the connected

devices, and raise the volume to an appropriate level.

Before turning o the DeepMind 12 power, please check that:

Turn the output level down on all connected audio devices.

Turn o the power for all connected audio devices.

21.1 There is no sound coming from

the synthesizer

Check the audio connections are made.

Check the volume control is not down.

Check that keyboard LOCAL setting is ON in the GLOBAL-KEYBOARD SETTINGS

menu.

Recall the default program (Press PROG+WRITE). If the default program

produces sound then you should examine the program you are trying to use in

detail to  nd any parameter settings which may be preventing the program from

producing any audio.

21.2 The synthesizer does not to respond when

using any of the keys or controls

Check that keyboard LOCAL setting is ON in the GLOBAL-KEYBOARD SETTINGS

menu.

21.3 The program sounds di erent in

some way

Use the compare function to return all faders to their stored positions/

Ensure the modulation wheel is set to the default position for your program.

21.4 There is no MIDI coming from

the synthesizer

Check the MIDI connections are made.

Check the MIDI settings for your connection (Physical/USB/Wi-Fi.

21.5 The arpeggiator or control sequencer is

not running

Check the clock source of the arpeggiator.

21.6 Buzzing or humming sounds can be heard

in the audio outputs

USB and or audio connections made between devices using di erent power

supplies / sockets can sometimes create ground loops. You can attempt to resolve

the grounding issues between the computer and the DeepMind 12 by following

good grounding practice and ensuring all devices use the same ground reference.

Other possible solutions include using a DI Box where the transformer will isolate

the audio connections, or using the physical MIDI sockets which are optically

isolated.

21.7 When recording MIDI the synthesizer is

sending pitch bend signals without touching

the pitch wheel.

This can be resolved by running the pitch wheel calibration routine found in the

GLOBAL-SYSTEM SETTINGS-CALIBRATE menu

21.8 The pitch and/or mod wheel is not

responding as expected.

This can be resolved by running the pitch wheel or mod wheel calibration routine

found in the GLOBAL-SYSTEM SETTINGS-CALIBRATE menu.

21.9 The synthesizer is behaving erratically.

Check that any connected devices/applications are not creating a MIDI loop which

is feeding back MIDI data.

21.10 The synthesizer sounds out of tune:

Perform the voice calibration routine found in the GLOBAL-SYSTEM SETTINGS-

CALIBRATE menu.

21.11 The VCF resonance is not tracking notes

as expected

Perform the voice calibration routine found in the GLOBAL-SYSTEM SETTINGS-

CALIBRATE menu.

128 DeepMind 12 User Manual

22. Bootloader Menu

! This menu is for factory or service use only. Improper use

may cause damage to the DeepMind 12.

Note: Please ensure you backup any programs / patterns before using any of the

bootloader functionality

To show the bootloader menu follow these steps:

1. Ensure the DeepMind 12 is turned o .

2. Press and hold the PROG and WRITE switches.

3. Turn the DeepMind 12 on.

4. Release the PROG and WRITE switches.

You will now see the bootloader menu, the options are decribed in this section.

In order to select an option make sure that the '<' symbol on the appropriate

CALIBRATE line is highlighted using the BANK/UP and BANK/DOWN switches then

press the +/YES switch.

22.1 1- Format WiFi Flash

Factory Use Only.

22.2 2- MIDI Update

Factory Use Only.

22.3 3- Reset Cal Data

This option will reset the calibration data.

22.4 4- Reset Chords

This option will reset the chord memory.

22.5 5- Reset PolyChords

This option will reset the polychord memory.

22.6 6- Reset Globals

This option will reset the global settings.

22.7 7- Reset ALL

This option will perform all formatting resetting covered in options 1-5 settings.

22.8 8- EXIT

This option will exit the bootloader menu and return the DeepMind 12 to

normal operation.

129 DeepMind 12 User Manual

23. De nition of Terms

This glossary provides an explanation of the symbols, terms and abbreviations

used in this manual.

16'/8'/4' Used to describe the range of an oscillator, this term originates from

pipe organs. The length of the pipe is inversely proportional to the pitch it

produces e.g. a 4' pipe is one octave higher than an 8' pipe.

ADC or A/D Analog to Digital Converter, used to describe the process of signal

conversion

AC Alternating Current

ADSR Attack, Decay, Sustain and Release, an envelope with four stages.

Aftertouch - The pressure applied to a key after it has been pressed. This

pressure is converted into a MIDI signal to allow the amount of pressure to

modulate another parameter.

Algorithm: A process or set of rules used to accomplish an operation.

Ampli er A circuit which increased the level of a signal.

Amplitude Modulation (AM) Modulation of the amplitude (or level) of a sound

by another signal source. AM is used to produce tremolo using a low frequency

modulation source.

Analog Something which is proportional or similar to something else. In the

case of the synthesizer, audio electronic circuits are another form of air pressure

waves. Analog signals contain distortions from the components, topology,

circuits and designs which are often perceived as warmer and more natural than

their digitally generated counterparts.

Arpeggiator An "Apreggio" is a number of notes played sequentially instead

of simultaneously. The Arpeggiator responds to a number of keys being held by

playing a sequence of notes. The notes, and their sequence can be con gured

using the preset modes of operation.

Attack Time The  rst stage of an ADSR envelope, used to control the initial

part of a sound. Speci ed as the duration of time for an envelope to reach the

maximum level after it has been triggered on by a key press or gate signal.

Attenuate To reduce the level of a signal.

Automation The recording and playback of control signals.

Auto-panning An e ect which cyclically adjusts the position of the audio signal

within the stereo  eld.

Balanced Audio A type of audio connection that uses the three wires in a cable

as part of a phase-cancelling arrangement to boost the signal and reduce noise.

Band A range of frequencies.

Bandwidth The di erence between the upper and lower frequencies of a  lter.

Bank A group of programs

Bass Lower frequencies in a signal ranging from 60 Hz to 250 Hz (Approximately

B1 to B3).

Beat Frequency When two waveforms of di erent frequencies are mixed

together the resulting waveform will have points of constructive and destructive

interference. The beat frequency is equal to the di erence in frequencies and is

heard as a "beating" or amplitude modulation.

Beats Per Minute (BPM) Used to describe the tempo of a composition by

specifying the number of beats which should occur in every minute.

Cent Unit of measurement for pitch tuning. There are one hundred cents

in a semitone.

Chorus An e ect which uses multiple copies of a signal played together and

slightly out of time, to create a shimmering e ect. Sometimes referred to as

“Ensemble”.

Clock A digital waveform typically square which is used as a timing source for

other components in a system.

Comb Filtering Removal of signal components using a  lter shape with a

number of regularly spacedfrequencies.

Compressor A dynamics processor that reduces the level of any signal exceeding

a speci ed threshold volume.

Continuous Controller A type of MIDI message assigned to a speci c

parameter. When the parameter is adjusted a continuous controller messages are

sent. If the assigned continuous controller is received then the parameter will be

adjusted.

Control Voltage (CV) A voltage signal used to control any parameter. Was

common on synthesizers before MIDI, and is now found mostly on modular

synthesizers.

Cross-Modulation (X-Mod) Two oscillators modulating each other at the same

time. The outputs is a mix of the sum and di erence of the oscillators. The term

is also used to describe the ability for parameters of a synthesizer to be able to

modulate other parameters.

Cut-O Frequency The frequency which a  lter is set to. Beyond this frequency

(in a lo-pass  lter, the most common), the sound is cut o (attenuated) at a rate

set by the slope of the  lter response curve.

Cycle In a sound wave, the cycle refers to a single repetition of a wave-shape.

E.g. in a square waveform it is the time from a positive edge, to the next positive

edge.

DAC or D/A Digital to Analog Converter, used to describe the process of signal

conversion

Data Digitally stored information

dB Symbol for “decibel”. A unit of measurement of the loudness of sound.

SeedBu.

dBu A unit of measurement of sound used in professional audio. Derived from

the decibel, where the “u” stands for unloaded, this unit is an RMS measurement

of voltage based on 0.775 VRMS, which is the voltage at which you get 1mV of

power in a 600 ohm resistor. This used to be the standard impedance in most

professional audio circuits.

DC O set An imbalance that sometimes occurs in A/D converters . It is a

constant voltage that is present which can eat up headroom and cause clicks and

pops during editing.

Decay Time The second stage of an ADSR envelope. Speci ed as the duration of

time for an envelope to reach the sustain level after the maximum level has been

reached during the attack stage.

Default An initial value for parameter, i.e., the value before any changes have

been made.

Delay An e ect by which a reproduction of a signal is played back later then

itsoriginal. Primarily used for echo, but also is the basis for phasing,  anging,

chorus and basic reverb type e ects.

Detuning The action of adjusting the pitch of an oscillator from a reference point

or another oscillator. When oscillators are detuned slightly they will make the

output sound "fatter" or "wider". When oscillators are detuned heavily to note

intervals it can create harmonies.

Digital Audio Workstation (DAW) A computer based recording system.

More commonly used to describe the software package used to record, process

and mix.

130 DeepMind 12 User Manual

Digitally Controlled Oscillator An analog oscillator circuit controlled and

monitored by a digital processor. The advantages over a VCO is increased stability

which results in far less tuning drift.

Digital Signal Processing (DSP) The numerical manipulation of signals,

usually with the intention to measure,  lter, change, e ect, produce or compress

continuous analog signals.

Distortion An e ect based on pushing the boundaries of what a speci c

technology or implementation can achieve. At the point where technology

begins to overload, overdrive, clip, saturate or generally misbehave is where

distortion starts to appear. Examples include tape, valve, transistors, and also

digital algorithms and processes.

Dynamic The range of levels in an audio signal, from the softest to the loudest.

Dynamic Processor A device used to control and/or change the dynamics of a

signal.

Dynamic Range – The di erence between the lowest level and the highest

level an audio system can produce.

Edit / Editing The combined methods of creating a program from a starting

point or program.

Edit Bu er: A temporary storage memory for a program.

E ect: One of a number of audio processes that can be applied to a signal to

modify it, such as reverb,  anging, phasing, delay etc.

E ects Send A copy of the channel signal which is sent to an e ects processor in

order for it to be returned.

E ects Return An e ected audio signal which is returned to mix with the

original channel signal.

Envelope Generator (EG): An envelope signal which can be adjusted to a

speci c shape in order to control the way a sound behaves over time.

Equalisation (EQ) Processor used to adjust the volumes of various frequency

ranges for creative or corrective purposes.

Exponential A mathematical function of growth or decay where the

independent variable is the exponent. This results in a "hockey stick" shaped

curve.

Expression Pedal A Pedal which can be connected to an expression input and

used to send a control signal dependant on the position of the pedal. The control

signal can then be used to modulate other parameters, and/or to add expression.

Fader A physical linear control also known as a slider, or slide potentiometer

which can be used to adjust a parameter.

Feedback: A loop created between an audio input and an audio output of an

audio circuit, system or processing block.

Filter A device that attenuate certain frequencies while letting other frequencies

through. Using a  lter to reduce harmonics changes the timbre or color of the

sound.

Flanger An e ect that mixes a slightly delayed copy of the signal with the

original signal, producing a linear harmonic comb  lter response. The copy’s

delay time is modulated by an LFO which results in jet-like sounds suitable for

sweeps, and can also be used to add metallic type resonance to a sound.

Frequency Modulation (FM) Using one frequency to modulate another

frequencies pitch. When the modulation source is in the audio range it can be

perceived as a change in the timbre or color of the sound. FM can be used to

create a wide range of rich and complex sounds and is often described as having

a clear and distinctive timbre.

Frequency: The number of times that a sound waves cycle repeats within

onesecond.

Fundamental Frequency The lowest frequency of a periodic waveform.

Gain The amount of signal level increase provided by an ampli er stage.

Gate (Synthesizer) A signal used to trigger an event, such as a note or an

envelope.

Gate (Dynamics) A device used to cut o the level of a signal when it falls

below a speci ed threshold. Can be used to cut background noise, control reverb

tails or creatively to produce chopping type e ects.

Glide - See Portamento

Globals The settings and parameters which govern the general operation of the

synthesizer and are not directly associated with the voice engines

Harmonics A series of integer-related sine waves at varying levels creating

di erent timbres. Waveforms (other than a pure sinusoidal) generate various

harmonics which help de ne the character of the sound.

Hertz (Hz) A unit of frequency equal to one cycle of a sound wave per second.

High Pass Filter (HPF) A  lter that attenuates lower frequencies from a signal,

leaving the higher frequencies una ected.

Hum Undesirable low frequency tone present in a signal due to grounding

problems or proximity to a power source.

Impedance (Z) Opposition to the  ow of alternating current in a circuit,

measured in ohms.

Insert A point in a processing chain where a device can be inserted.

Keyboard A range of keys, arranged in order of ascending pitch, which enables

the synthesizer to be played by hand.

Keyboard Tracking Allows the control signal from played keys to adjust another

parameter. Commonly used to open a  lter as higher notes are played which then

enhances harmonics.

Kilohertz (kHz): A unit of frequency equal to one thousand cycles of a sound

wave per second.

Latency: A delay introduced by processing. Measured by the time is takes to

produce a signal after a request has been made. In a synthesizer it is the time

taken to produce a note after a key has been played. In an audio interface it is

used to measure the time it takes for an input signal to reach the processor, or for

a signal from the processor to reach the output.

Level Used to describe the magnitude of a sound, often relative to an arbitrary

reference.

Limiter A device used to limit the level to a range of values irrespective of the

input level.

Linear Used in audio to describe a straight line response of circuit or process

which results in a change which is directly proportional to an independent

variable.

Line Level A nominal operating level used by audio equipment. Professional

line level is normally +4 dBu and consumer line level is -10 dBv.

Looping Automatically restarting a function at the end of a period of time or

de ned cycle to create a continuous loop.

Low Frequency Oscillator (LFO) An oscillator that commonly runs at a very low

speed and is used to modulate another parameter.

Low Pass Filter (LPF) A  lter that attenuates higher frequencies from a signal,

leaving the lower frequencies una ected

Mark to Space Ratio The ratio between the positive and negative parts of a

rectangular waveform, or pulsewave.

Memory Digital storage of information/data.

131 DeepMind 12 User Manual

Meter: Visual device to indicate the level of a signal.

MIDI (Musical Instrument Digital Interface) (A technical standard that

describes a protocol, digital interface and connectors and allows a wide variety of

electronic musical instruments, computers and other related hardware/software

devices to connect and communicate.

MIDI Clock A clock signal which is broadcast over MIDI to ensure that devices are

synchronised. Also known as MIDI Beat Clock or MIDI Timing Clock.

MIDI Message Data or information transmitted from one MIDI device to another.

Each MIDI message contains at least two numbers: one that identi es the type of

message being sent, and another which represents a value for the selected type

of message.

Midrange Frequencies in a signal ranging from 250 Hz to 5 kHz (Approximately

B3 to D#8).

Mix The balance of level between one signal and another.

Mixer A device that blends input signals into composite signals for output.

Modular synthesis A synthesis system comprised of a number of modules which

can be connected in many di erent ways. Modules can perform a single function

such as an oscillator or  lter or perform multiple functions.

Modulation The process of controlling one or more properties (destinations) of a

signal using another signal (source).

Modulation Matrix: A matrix which allows the creation of multiple source to

destination modulations, each with adjustable levels of operation.

Modulation Wheel (Mod Wheel) A wheel located to the left of a keyboard that

allows you to change speci ed parameters in real-time.

Monitors: Studio quality loudspeakers, providing an accurate representation of

the audio signals.

Mono: A single signal.

Monophonic Only one note can be played at any given time as there is only a

single voice.

Mute Function that allows a signal to be silenced.

N/A Abbreviation for “not applicable”.

Noise Generator A circuit or process that produces a random (or aperiodic)

signal. The frequency response can di er depending on the type of noise.

Note-Priority Determines which note is played when several are held

simultaneously.

Non-Registered Parameter Number (NRPN) A series of controller change

messages used to transmit a parameter change with up to 14-bits of resolution.

Octave or Oct Unit of measurement for pitch. Every time the frequency of a

waveform doubles, the pitch increases by one octave.

Ohm (Ω) Unit of electrical resistance.

Oscillator An electronic device which generates a periodic signal used to form

the basis of a synthesizer program.

One Shot A single event that has to be triggered each it is required.

Output The signal sent out by a device or process. Also used to describe the

physical socket where a signal leaves a device.

Overtone Any frequency that is present in a waveform that is higher than the

fundamental frequency of that waveform.

Pad A program that is usually characterized by slow attack and release times.

Panning / Pan The positioning of a signal within a stereo image.

Parameter: A setting whose value can be changed.

Parametric EQ A type of EQ that allows all of the parameters of equalisation to

be changed, including centre frequency, boost/cut in gain and bandwidth.

Partial Any of the sinusoidal waveforms which form part of a complex tone.

Patch The cables used on modular synthesizers (or synthesizers with modular

compatibility) to connect devices together. Patch cables can carry audio, gate or

control voltage signals.

Period The time that it takes a wave to complete a full cycle. Period is calculated

by dividing 1 by the frequency

Phase: A measurement (in degrees) of the time di erence between

twowaveforms or between a single waveform and a reference point.

Phaser An e ect which uses a series of notched all-pass  lters (also called

stages) to create a comb  lter response which does not always have harmonic

relationships between the notches. The result is a sweeping e ect similar to a

 anger but smoother and often more natural sounding.

Pink Noise A type of signal that has equal power in each band. Human hearing is

roughly logarithmic, therefore each octave is discerned to have an equal amount

of power across the audible spectrum.

Pitch: A quality of sound that makes is possible to judge if a sound is higher or

lower than another.

Pitch Bend / Pitch Bend Wheel Controlling the pitch of a note after it has been

played.

Pitch shift Alteration of pitch or frequency, but without adjusting tempo.

Pole A section of a  lter stage. The more poles a  lter has, the steeper its

attenuation slope will be, and the more accurate the  lter will be.

Polyphonic Capable of playing more than one note at once.

Polyphony The number of notes a polyphonic synthesizer can play

simultaneously.

Portamento An adjustable performance e ect that glides or bends the pitch

from one note to the next.

Post The point for accessing audio just after it leaves a speci c component or

stage.

Pre The point for accessing audio just before it reaches a speci c component or

stage.

Preset: A program or part of a program that is built into a synthesizer patches

that are sometimes  xed and sometimes editable.

Program A complete set of parameters and settings which the synthesizer uses

to create the a speci c sound.

Power Supply Unit (PSU) The component in a system which is responsible for

supplying and managing power.

Psychoacoustics The study of the perception of sound, that is, how we

listen, our psychological responses and the physiological e ects on the human

nervoussystem.

Pulse Wave Similar to a square wave, but without symmetry. Also known as a

"Rectangle Wave"

Pulse Width Modulation (PWM) Modulation of the pulse width (the duty

cycle of a pulse wave measured as a percentage). A pulse width of 50% has equal

positive and negative sections and is considered a square wave.

Q Factor A bandwidth (or selectivity), of a particular band in an equalizer. The

higher the Q Factor, the wider the bandwidth.

Rate The speed at which a particular device is operating at.

Release Time The fourth and  nal stage of an ADSR envelope. Speci ed as the

duration of time for an envelope to reach zero after the played key is released.

132 DeepMind 12 User Manual

Resonance The emphasis of frequencies around the cut-o point just before

attenuation starts to occur. As resonance increases it will reach a point where the

 lter will start to OSCillate, producing a signal even when there is no input.

Reverb An e ect where the ambience of a physical space is simulated.

s Symbol for “second”. A unit of time.

Sample Rate The number of digital samples used every second to represent an

analog waveform.

Sample Resolution (Bit Depth) The number of digital bits used to de ne the

amplitude of an analog signal. Higher resolution results in greater dynamic range.

Sawtooth A waveform that combines an instantaneous rise or fall, followed by a

gradual linear incline or decline. The name comes from the waveforms similarity

to the teeth of a saw.

Semitone A chromatic half-step. There are twelve semitones in an octave.

Sequencer A programmable device or module used to arrange/sequence timed

events into musical patterns and songs.

Self-oscillation Occurs when the resonance of a  lter is increased to the point

where it will begin to generate a sine wave independently of any input.

Signal  ow: The path of a signal from one module (or component of a system)

to another.

Sinusoidal / Sine Wave Mathematical description of a smooth waveform that

contains only the fundamental frequency and has no additional harmonics. The

shape resembles the letter S rotated 90 degrees.

Slew Rate The rate of change of a voltage or control signal.

Spectrum First used to describe the full range of colors in visible light the term is

also used to describe the full range of frequencies in the audio spectrum.

Square Wave A symmetrical waveform that combines an instantaneous rise or

fall, followed by a positive or negative steady state. The name comes from the

waveforms similarity to a square..

Step A step is one stage in a sequence and can be a control signal, single note,

chord or rest.

Stereo / Stereophonic The most common method of sound reproduction where

separate channels, left and right, used to give the impression of direction.

Stereo-Field / Stereo Image A virtual space created by stereo loudspeakers/

monitors.

Sub-Bass Frequencies in a signal ranging from 10 Hz to 60 Hz (Lower than C0 to

approximately B1).

Subtractive synthesis A technique of creating sounds by  ltering waveforms

which are rich in harmonics

Sustain Level The third stage of an ADSR envelope. Speci ed as the level an

envelope will return to after the decay stage. The envelope will remain at the

sustain level until the played key is held.

Sustain Pedal A Pedal containing a switch which can be connected to an sustain

input and used to send a control signal dependant on the state of the switch (On/

O ). The control signal can then be used to modulate other parameters, and/or

to add expression.

Synchronisation (Sync): Coordination of timing between devices.

Sync (Tempo) A function where an cyclical event such as an LFO is synchronised

to a tempo value.

Sync (Oscillator) A function where one oscillator is synchronised to another. The

waveform of the slave oscillator is reset whenever the waveform of the master

oscillator restarts.

Sync (Arp/Seq) A function where an arpeggiator or sequencer is synchronised to

a tempo value.

Sync (Key) A function where an event is synchronised to the pressing of a key.

System Exclusive (SysEx) messages are multi-byte message used to transfer a

complete program or globals. Come in the form of request - response. Threshold:

Level at which dynamics processing will begin to operate.

Tempo The speed at which a composition should be played, usually expressed in

beats per minute.

Threshold In dynamic e ects, this is the level that must be passed before the

processing is engaged.

Timbre The tone, character, or aesthetic qualities of a sound.

Transposition / Transpose: A function that allows you to shift the entire

keyboard up and down in pitch.

Treble: Frequencies in a signal ranging from 5 kHz to 20 kHz (Approximately D#8

to above C10).

Tremolo A periodic change in amplitude.

Triggering - Activation of a function. E.g. the start of a note, envelope, LFO etc.

Tune / Tuning The process of adjusting the root pitch of the instrument to a

speci c reference frequency.

Unbalanced audio: A type of audio connection that uses two wires in a cable

and does not o er the noise rejection qualities of a balanced system.

Unison Two or more voices that are playing together at roughly the same pitch.

Universal Serial Bus (USB): A "plug and play" interface that provides a fast

connection between a computer and peripherals.

Volt (V): A unit of electrical potential di erential or electromotive force. A

di erence in charge between two points in a circuit. This di erence, when

combined with the rate of the charge (current) allows for the control of many

analog circuits that “synthesise” sound.

VoltageControlledAmpli er (VCA) An ampli er whose resultant magnitude

is controlled by a voltage.

Voltage Controlled Filter (VCF) A  lter whose cut-o frequency can be

controlled by a voltage.

Voltage Controlled Oscillator (VCO) An oscillator whose cut-o frequency can

be controlled by a voltage. Typically creates the possibility of tuning drift when

used in a synthesizer.

Velocity The speed at which a key is pressed. The velocity is converted into a

MIDI signal to allow the amount of pressure to modulate another parameter.

Velocity Sensitivity A keyboards ability to change the MIDI velocity message to

scale key presses before use for modulation.

Vibrato A periodic change in pitch.

Voice: A physical embodiment of a complete set of OSC, Envelopes, LFOs and VCF

which can play a single note. Multiple voices can be stacked together playing the

same note in unison modes or assigned to di erent notes in polyphonic mode.

Waveform A repeating signal typically created by an oscillator. A waveform can

also be random in the case of noise.

Wavelength The shortest distance between two successive points on a wave

that are in phase. When used in audio or acoustics the physical wavelength is

calculated by dividing the velocity of sound in air (approximately 340m/s) by the

waveform frequency.

133 DeepMind 12 User Manual

24. Appendix 1 - Octave Shifting

25. Appendix 2 - ARP/SEQ/LFO Sync Timing

C0C1C2C3C4

(Middle C)

-1 OCTAVE

+1 OCTAVE

DEFAULT

DeepMind 12 Keyboard

C5C6C7C8

-2 OCTAVES

+2 OCTAVES

ARP/SEQ/LFO SYNC TIMING

12345

RATIO DESCRIPTION

1 One bar

1/2 Half note

3/8 Dotted quarter note

1/3 Third note (Half note triplets)

1/4 Quarter note

3/16 Dotted eighth note

1/6 Sixth note(Quarter note triplets)

1/8 Eighth note

3/32 Dotted sixteenth note

1/12 Twelfth note (Eighth note triplets)

1/16 Sixteenth note

3/64 Dotted thirty-second note

1/24 Twenty-fourth note (Sixteenth note triplets)

1/32 Thirty-second note

3/128 Dotted sixty-fourth note

1/48 Forty-eighth note (Thirty-second note triplets)

1/64 Sixty-fourth note

Straight Notes Triplet Notes Dotted Notes

134 DeepMind 12 User Manual

FEDERAL COMMUNICATIONS

COMMISSION COMPLIANCE

INFORMATION

Responsible Party Name: MUSIC Group Services NV Inc.

Address: 5270 Procyon Street

Las Vegas, NV 89118

USA

Phone Number: +1 702 800 8290

DeepMind 12

complies with the FCC rules as mentioned in the followingparagraph:

This equipment has been tested and found to comply with the limits for a ClassB

digital device, pursuant to part 15 of the FCC Rules. These limits are designed

to provide reasonable protection against harmful interference in a residential

installation. This equipment generates, uses and can radiate radio frequency

energy and, if not installed and used in accordance with the instructions, may cause

harmful interference to radio communications. However, there is no guarantee that

interference will not occur in a particular installation. If this equipment does cause

harmful interference to radio or television reception, which can be determined

by turning the equipment o and on, the user is encouraged to try to correct the

interference by one or more of the followingmeasures:

•

• Reorient or relocate the receiving antenna

•

• Increase the separation between the equipment and receiver

•

• Connect the equipment into an outlet on a circuit di erent from that to which the

receiver is connected

•

• Consult the dealer or an experienced radio/TV technician forhelp

This device complies with Part 15 of the FCC rules. Operation is subject to the

following two conditions:

(1) this device may not cause harmful interference, and

(2) this device must accept any interference received, including interference that may

cause undesired operation.

Important information:

Changes or modi cations to the equipment not expressly approved by MUSIC Group

can void the user’s authority to use the equipment.

FCC RF Radiation Exposure Statement:

1. This Transmitter must not be co‐located or operating in conjunction with any other

antenna or transmitter.

2. This equipment complies with FCC RF radiation exposure limits set forth for an

uncontrolled environment. This equipment should be installed and operated with a

minimum distance of 50 mm between the radiator and your body.

DeepMind 12

135 DeepMind 12 User Manual

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