Elettronika S r l TXUP3500 3.5 kW Analog TV Broadcast Transmitter User Manual APT137BM AUTV 3500LD Rev0 Date090605 p65

Elettronika S.r.l. 3.5 kW Analog TV Broadcast Transmitter APT137BM AUTV 3500LD Rev0 Date090605 p65

Contents

User Manual Part 2

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Document ID734599
Application IDJd9IF0v51n4+qoxwLBJXgQ==
Document DescriptionUser Manual Part 2
Short Term ConfidentialNo
Permanent ConfidentialNo
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Document TypeUser Manual
Display FormatAdobe Acrobat PDF - pdf
Filesize183.62kB (2295231 bits)
Date Submitted2006-12-04 00:00:00
Date Available2007-01-31 00:00:00
Creation Date2006-03-06 21:52:20
Producing SoftwareAcrobat Distiller 3.0 for Windows
Document Lastmod2006-03-06 21:52:33
Document TitleAPT137BM_AUTV_3500LD_Rev0_Date090605.p65
Document CreatorPageMaker 6.5
Document Author: Gianluca

_______________________________________________________________________________________________
Section 4 - Diagram
Contents:
- Cable diagram
- MTF0070CR0 RF Amplifier module Cable Diagram
- MTF0070CR0 RF Amplifier module Connections Diagram
- MTF0070CR0 Amplifier module - Component list
- SCH0192AR0 (200W UHF LDMOS Amplifier module)
- SCH0223AR1 (Control board and display)
- SCH0221AR1 (Amplifier interface)
- SCH0265AR0 (Mains distribution board)
- SCH0288AR1 (Interface board)
- E0012 (SP500-27-DI Switching power supply)
73
74
75
76
Component list
MTF0070CR0 Amplifier module
Part Name Code
Description
Qty
00001
01041D
00221B
03207
SCH0192AR0
SCH0221AR0
SCH0248AR0
SCH0249AR0
SCH0250AR0
SCH0251AR0
SCH0252AR0
PN1091A
02402
02512
01400
01408
DET0726
DET0727
DET0728
DET0729
DET0730
DET0732
DET0734
DET0736
DET0807
DET0810
DET0811
DET0812
DET0819
DET0828
DET0839
08502
08527
03017
PN0998A
0W 1206 SMD RESISTOR
1nF 1206 2% SMD CAPACITOR
75W 1206 1% SMD RESISTOR
HSMS-2802*L31 DIODE
200W UHF LDMOS AMPLIFIER MODULE
AMPLIFIER INTERFACE
8 WAY WILKINSON
4 WAY WILKINSON Dx
4 WAY WILKINSON Sx
2 WAY WILKINSON
1500W UHF INPUT COUPLER
C.S. PN1091AR3 OUTPUT DIRECTIONAL COUPLER 1
7/16” FEMALE CONNECTOR cod. 0142
J01151A0531 SMA SOCKET WITHOUT BAT.
2499-003-X5U0-102M FEED-THROUGH CAPACITOR 13
5000PF FEED-THROUGH CAPACITOR
DET0726R2 SIDE x 1500W UHF AMP. MOD.
DET0727R1 INTERNAL FRONT SIDE x AMP. MOD.
DET0728R4 INTERNAL SIDE x AMP. MOD.
DET0729R2 FRONT SIDE x AMP. MOD.
DET0730R2 REAR SIDE x AMP. MOD.
DET0732R1 CONNECTIONS SUPPORT BOARD
DET0734R0 COVER x AMPLIFIER MODULE P. 2634
DET0736R6 HEATSINK x AMPLIFIER MODULE
DET0807R3 SCREEN DIR. COUPLER MODULE
DET0810R0 PART. x DIRECTIONAL COUPLER
DET0811R1 COVER x DIRECTIONAL COUPLER
DET0812R1 TEFLON RING x DIRECTIONAL COUPLER 1
DET0819R0 SPESS. x INPUT DIR. COUPLER
DET0828R0 COVER x AMPLIFIER MODULE P. 2644
DET0839R2 DIRECTIONAL COUPLER
RG316 50W CABLE
3,00
HF-85 ENDIFORM CABLE
0,20
MBR3045PT DIODE
PN998AR1 POWER SUPPLY ADDED PCB
77
This page is intentionally blank
78
200W UHF LDMOS AMPLIFIER MODULE
SCH0192AR0
DESCRIPTION
The RF module is an integrated TV linear amplifier designed for UHF band, this module employs push-pull
LDMOS technology in order to achieve very good efficiency, high linearity and reliability.
LDMOS transistors operate in AB class. It is a wideband amplifier over the full frequency, no adjustment is
required for the channel change. The board includes RF section amplifier, bias circuit, protection circuit and
matching networks. A silver plated copper plate is brazed with PCB in order to obtain low thermal resistance.
Providing a minimum of 200W Pk sync linear power, this module is the perfect amplifier for any broadband
UHF power transmitter.
TECHNICAL CHARACTERISTICS
Output power
Input power
Frequency
Gain
LDMOS Power supply
LDMOS Bias current @+32V Vdc
RF Input impedance
RF Output impedance
Input / Output return loss
Drain efficiency
Storage temperature range
Dimensions (LxWxH)
300W max
15W max
470 - 860MHz
> 13dB
32V ±2%
2A
50W
50W
> = 15dB
47% @ 250W
-50° to +150°C
165x95x29mm
79
- Curve response graphic
Middle frequency 660MHz, span 500MHz, 2dB/div., reference to the arrow
CALIBRATION PROCEDURE
- Technical characteristics
Power supply voltage
Polarisation current
Gain for low signal
32V (± 2%)
1.0 cold for each device (2A total), ± 0.1A
Not less than 13dB in the 470-860MHz band (± 1dB)
Compare to the typical curve eclosed
- Adjustment procedure
Polarisation current calibration
Gain curve
32V stabilised power supply
10A amperometer
Network analyser
- Adjustment points description
R7-R8 (Trimmers)
80
Adjust the current absorbed in stand-by (1.0A per device)
- Calibration steps
STEP 1. Close the input and the output of the module by connecting them to a 50W
W dummy load
and connect the spectrum analyser through a directive sample, in order to look for self-oscillation of the
module, if any (anyway the module has been designed so that it would not self-oscillate even if totally decoupled, without any input or output load).
STEP 2. Check the voltages of the polarisation circuits without assembling the transistors first:
connect the 32V power supply to the proper turret by means of a fastening screw, then give power and check
data:
- the stabilised voltage on the zener diodes DZ1 and DZ2 is about 15V compared to the ground;
- the stabilised voltage on the zener diodes DZ3 and DZ4 is about 6.8V compared to the ground;
- the voltage on the pads to which the gates of the LDMOS transistors will be soldered (R23 and R24
resistors side) changes from 0V to a maximum value of about 6V when moving the relevant trimmer (R7-R8).
STEP 3.
Check the work of the protections.
- Set both trimmers so that there is a value of about 4.5V on the pads of the gates;
- solder some wire to the pad between the two LEDs, next to the serigraphy of the input hybrid H1;
Solder a wire
- in order to check the work of the protections aboard, a power of about 4V has to be supplied to the wire,
for example by touching with it the reophore of C23 or C24 which is not connected to ground; the two red
LEDs will immediately light up and the two RF transistors will be switched off at the same time: the polarisation
current (2A) will decrease to 0 and of course the gain curve displayed by the spectrum analyser will decrease;
- after this it is important to restore the position of the two trimmers for the minimum voltage! Then
disconnect the 32V power supply.
STEP 4. Fastening of the LDMOS transistors: after properly cleaning the plate surface, smear a thin
layer of silicone fat on the lower side of the flange of the MOSFETs, fasten them to the heat sink and solder
the gate first, then the drain. Solder the two 13pF (ATC) chip capacitors and above them the two 1-5pF
81
capacitive trimmers, between the two pair of gates, as shown by the mounting plan.
STEP 5.
Connect serially a c.c. amperometer to the power supply, with scale starting from more than 5A
(i.e. 10A).
STEP 6. Power the module and check the MOSFET is not absorbing current; this means that the device
is integral and working correctly.
STEP 7. Slowly turn the R7 trimmer until the MOSFET absorbs 1A, always checking that there are no
self-oscillation; under this conditions it is possible to check by means of a digital tester that the voltage on the
gate is about 5.2-5.4V.
STEP 8. Repeat the previous step for the other section of the module, this time turnign R8 and checking
that the indication of the current on the amperometer increases to 2A total (which includes the current of the
other device left on).
STEP 9.
Check the response curve of the module by means of the network analyser.
STEP 10. Check the response curve for low signal with centre 660MHz and span 500MHz, 2dB/div.
STEP 11. The curve should be similar to the one enclosed, with a tolerance of ± 0.5dB. To obtain this, act
on the four trimmers C41-C41a and C42-C42a with the proper “calibrator”, inorder to flatten the curve as
much as possible, especially at the edged of the band which represents the minimum values.
STEP 12. Finally, check that the current in stand-by does not increase by more than 15÷20%, reaching at
worst 2.3÷2.4A when the heat sink is hot and not ventilated.
Note: when mounting-removing the PALLET on the heat sink, tightly fasten the screw of each all “N” input and output
connectors. These are mounted with a single 3mm screw and if it is not properly fastened it may be detached from the PCB
by a movement of the connector once it has already been soldered to the path.
82
Component layout SCH0192AR0
83
84
COMPONENT LIST SCH0192AR0
REF.
DESCRIPTION
ELETTRONIKA CODE
R1
R2
R3
R4
R5
R6
R7
R8
R9
R10
R11
R12
R13
R14
R15
R16
R17
R18
R19
R20
R21
R22
R23
R24
*R25
*R26
C1
C2
C3
C4
C5
C6
C7
C8 x 2
C9 x 2
C10 x 4
C11 x 4
C12
C13
C14
C15
C16
C17
2200W 1/4W 1206 SMD RESISTOR
2200W 1/4W 1206 SMD RESISTOR
2200W 1/4W 1206 SMD RESISTOR
2200W 1/4W 1206 SMD RESISTOR
1200W 1/4W 1206 SMD RESISTOR
1200W 1/4W 1206 SMD RESISTOR
50kW MULTITURNS PTH TRIMMER
50kW MULTITURNS PTH TRIMMER
1200W 1/4W 1206 SMD RESISTOR
1200W 1/4W 1206 SMD RESISTOR
18kW 1/4W 1206 SMD RESISTOR
18kW 1/4W 1206 SMD RESISTOR
680KW 1/4W 1206 SMD RESISTOR
0W 1/4W 1206 SMD RESISTOR
50W 30W 1512EBX SMD RESISTOR
50W 60W
4.7kW 1/4W 1206 SMD RESISTOR
4.7kW 1/4W 1206 SMD RESISTOR
3.9W 1/4W 1206 SMD RESISTOR
3.9W 1/4W 1206 SMD RESISTOR
3.9W 1/4W 1206 SMD RESISTOR
3.9W 1/4W 1206 SMD RESISTOR
1000W 1W 2512 SMD RESISTOR
1000W 1W 2512 SMD RESISTOR
= R15 (da montare se si inverte l’ingresso)
= R26 (da montare se si inverte l’uscita)
470uF 50V PTH ELECTROLYTIC CAPACITOR
470uF 50V PTH ELECTROLYTIC CAPACITOR
470uF 50V PTH ELECTROLYTIC CAPACITOR
100uF 50V PTH ELECTROLYTIC CAPACITOR
100uF 50V PTH ELECTROLYTIC CAPACITOR
1nF ATC 100B CAPACITOR OR EQUIVALENT
1nF ATC 100B CAPACITOR OR EQUIVALENT
2 x 100nF ATC CAPACITOR OR EQUIVALENT
2 x 100nF ATC CAPACITOR OR EQUIVALENT
4 x 100pF ATC 100B CAPACITOR OR EQUIVALENT
4 x 100pF ATC 100B CAPACITOR OR EQUIVALENT
100nF 1210 SMD CAPACITOR
100nF 1210 SMD CAPACITOR
100nF 1210 SMD CAPACITOR
1uF 35V SMD TANTALIUM CAPACITOR
1uF 35V SMD TANTALIUM CAPACITOR
100nF 1210 SMD CAPACITOR
00045A
00045A
00045A
00045A
00042A
00042A
00800
00800
00042A
00042A
00056B
00056B
00075A
00001
00416A
00432
00049A
00049A
00012A
00012A
00012A
00012A
00396
00396
Page 1/3
01807B
01807B
01807B
01795
01795
01145
01145
01065H
01065H
01135
01135
1065G
1065G
1065G
01613A
01613A
1065G
85
REF.
DESCRIPTION
ELETTRONIKA CODE
C18
C19
C20
C21
C22
C23
C24
C25
C26
C27
C28
C29
C30
C31
C32
C33
C34
C35
C36
C37
C38
C39
C40
C41 x 2
C42 x 2
C43
C44
C45
C46
C47
C48
C49
C50
C51
C52
C53
C54
C55
C56
C57
C58
C59
T1
T2
B1
100nF 1210 SMD CAPACITOR
10uF 16V SMD TANTALIUM CAPACITOR
10uF 16V SMD TANTALIUM CAPACITOR
100nF 1210 SMD CAPACITOR
100nF 1210 SMD CAPACITOR
100nF 1210 SMD CAPACITOR
100nF 1210 SMD CAPACITOR
1nF ATC 100B CAPACITOR OR EQUIVALENT
1nF ATC 100B CAPACITOR OR EQUIVALENT
1nF ATC 100B CAPACITOR OR EQUIVALENT
1nF ATC 100B CAPACITOR OR EQUIVALENT
20pF ATC 100B CAPACITOR OR EQUIVALENT
20pF ATC 100B CAPACITOR OR EQUIVALENT
20pF ATC 100B CAPACITOR OR EQUIVALENT
20pF ATC 100B CAPACITOR OR EQUIVALENT
1.3pF ATC 100B CAPACITOR OR EQUIVALENT
1.3pF ATC 100B CAPACITOR OR EQUIVALENT
470pF ATC 100B CAPACITOR OR EQUIVALENT
470pF ATC 100B CAPACITOR OR EQUIVALENT
470pF ATC 100B CAPACITOR OR EQUIVALENT
470pF ATC 100B CAPACITOR OR EQUIVALENT
4.7pF ATC 100B CAPACITOR OR EQUIVALENT
4.7pF ATC 100B CAPACITOR OR EQUIVALENT
2 x 1¸5pF JOHANSON SMD TRIMMER
2 x 1¸5pF JOHANSON SMD TRIMMER
3.6pF ATC 100B CAPACITOR OR EQUIVALENT
3.6pF ATC 100B CAPACITOR OR EQUIVALENT
6.8pF ATC 100B CAPACITOR OR EQUIVALENT
6.8pF ATC 100B CAPACITOR OR EQUIVALENT
6.8pF ATC 100B CAPACITOR OR EQUIVALENT
6.8pF ATC 100B CAPACITOR OR EQUIVALENT
13pF ATC 100B CAPACITOR OR EQUIVALENT
13pF ATC 100B CAPACITOR OR EQUIVALENT
8.2pF ATC 100B CAPACITOR OR EQUIVALENT
8.2pF ATC 100B CAPACITOR OR EQUIVALENT
8.2pF ATC 100B CAPACITOR OR EQUIVALENT
8.2pF ATC 100B CAPACITOR OR EQUIVALENT
10pF ATC 100B CAPACITOR OR EQUIVALENT
10pF ATC 100B CAPACITOR OR EQUIVALENT
4.7pF ATC 100B CAPACITOR OR EQUIVALENT
4.7pF ATC 100B CAPACITOR OR EQUIVALENT
0.3pF ATC 100B CAPACITOR OR EQUIVALENT
BLF861A RF LDMOS POWER TRANSISTOR
BLF861A RF LDMOS POWER TRANSISTOR
COAX 2:1 BALUN
1065G
01626A
01626A
1065G
1065G
1065G
1065G
01145
01145
01145
01145
01123
01123
01123
01123
01104
01104
01143
01143
01143
01143
01108
01108
1485
1485
01104B
01104B
01111
01111
01111
01111
01119A
01119A
01113
01113
01113
01113
01117
01117
01108
01108
01160
04034
04034
08491
86
Page 2/3
REF.
DESCRIPTION
ELETTRONIKA CODE
B2
B3
B4
L1
L2
L3
L4
H1
H2
NTC1
NTC2
IC1
IC2
DZ1
DZ2
DZ3
DZ4
DL1
DL2
PN964AR3
COAX 2:1 BALUN
COAX 4:1 BALUN
COAX 4:1 BALUN
4 TURNS SILV. COP. WIRE 1.2mm WOUND ON OD 5mm
4 TURNS SILV. COP. WIRE 1.2mm WOUND ON OD 5mm
½ TURN COIL
½ TURN COIL
HYBRID COUPLER 3dB 90° ANAREN
HYBRID COUPLER 3dB 90° SAGE
NTC 100KW PTH
NTC 100KW PTH
DG419DY
DG419DY
15V SMD ZENER DIODE
15V SMD ZENER DIODE
6.8V SMD ZENER DIODE
6.8V SMD ZENER DIODE
SMD LED DIODE - RED SMD LED DIODE - RED PCB
Torretta 3x10 f/f
Imballo velapack 200x125x50
08491
08492
08492
07684
07684
Page 3/3
05368
05369
00661
00661
04583
04583
03135
03135
03137
03137
03056
03056
0643K
V0774
09983
87
CONTROL BOARD AND DISPLAY
SCH0223AR1
DESCRIPTION
The control board SCH0223AR1 manages the operational logic of the amplifier: switching on and off, power
supply and fans, alarms and protections, remote control, human-machine interface. All of that is performed by
a modern and powerful 16 bit micro-controller, which is the main part of the board.
Figure 1 shows the block diagram.
Figure 1: Simplified block diagram of the control and display board
88
It can be seen that the micro-controller is the heart of the control system, to which the various peripherals
(power supply, serial ports, telemeasure socket, AGC port, RF amplifier module, ROM, clock, display and
keys) are interfaced.
- Power Supply
The board is powered with a continuous +24V voltage applied on the J14 connector. From that the +5V
voltage, powering the most of the chips (micro-controller, operational amplifiers, display, etc.) is derived by
means of a switching converter (see IC19). A +12Vdc voltage is obtained from it as well, by means of a linear
conversion provided by the integrated circuit IC8. From this, a -12Vdc voltage is obtained by means of the
integrated circuit IC5. The -12V voltage is used to adjust the contrast of the display.
- Connectors
On the board SCH0223AR1 there are several connectors used as interfaces for the peripherals of the apparatus
and the ports for external communication.
POWER SUPPLY
The connectors J1, J6, J8 e J12 are used to connect the power supply powering the RF modules. The number
of power supply used changes depending on the amplifier, up to eight power supply. They are connected in
the order shown in Table 1 below. Remaining connectors, if any, are left unconnected.
CONNECTOR
POWER SUPPLY N°
J1
1-2
J6
3-4
J8
5-6
J12
7-8
Table 1: Interface connectors for the power supply
Through this connection, each power supply provides the level of voltage and current acquired by the microcontroller by means of an internal ADC. Besides the connectors allow the control board to turn on or off the
individual power supply (for instance when an alarm occurs).
89
RF AMPLIFICATION
The J3 connector interfaces the control board with the RF amplification section. Through this connector the
micro-controller acquires the forward and reflected powers, unbalancing (if any), and temperature of the
critic amplification area. It also allows to inhibit the transistors in case of reflected power alarm, by means of
a totally hardware, thus extremely fast protection.
Depending on the apparatus, this connector may also allow to enable or disable the cooling fans of the critic
area.
RS485
The J11 connector (10 pin socket) is directly wired to a DB9 female connector placed on the rear panel of the
apparatus. This communication bus allows to connect the amplifier to the control (Amplifier Control) module
of a high-power transmitter composed by several individual amplifiers. In this case, each amplifier and the
Amplifier Control are connected to the same 4-wires RS485 bus and each of them has a unique address
(which can be set by means of the keys and the display) for correct communication.
In case of single (stand-alone) amplifier, the RS485 connector can be used to interface to the Remote Control
Unit (RCU) made by Elettronika S.r.l. This unit allows to monitor and control the remote transmitter from any
site provided with PSTN or GSM1 phone connection.
Table 2 shows the wiring between the J11 connector on the board and the DB9 female connector on the rear
panel, along with the description of the lines.
PIN N°
ON DB9
PIN N°
ON J11
DESCRIPTION
Not used
Rx-
Rx+
+5V
GND
Not used
Tx-
Tx+
Not used
Table 2: Description of the RS485 connector
For more details about the control system contact the distributor or the manufacturer.
90
TELEMEASURES
The J9 telemeasure connector (10 pins socket) is directly wired on a DB9 female connector placed on the
rear panel. There are input and output digital lines (TTL level) and analog output lines on this connector, which
are used to monitor and control the amplifier by means of a general-purpose remote control system.
The correspondence between the pins of the J9 connector on the board and the DB9 female connector on the
rear panel, as well as the meaning of the various lines, is shown in table 3 below (the directions are in respect
to the micro-controller on the board).
PIN N°
ON DB9
PIN N°
ON J9
TYPE
DIRECTION
Analog
Output
Forward power (*)
Analog
Output
Reflected power (*)
Analog
Output
Temperature
Digital
Input
6-7
2-4
Digital
Output
Digital
Input
Turning-on control
(normally high, active when low)
Digital
Input
Turning-off control
(normally high, active when low)
DESCRIPTION
Interlock:
0V = Interlock Alarm
5V = Normal
Ground
Free Contact
(closed when amplifier is in alarm)
(*) You can select by means of two jumpers on the board (JP1 and JP2) RMS or peak power. If there are two jumpers on pins 1 and 2 of
JP1 and JP2 connectors, RMS power is selected. Otherwise, if there are two jumpers on pins 2 and 3 of the same connectors, peak power
is selected.
Table 3: Description of the telemeasures connector
The input stage of the digital pins has an internal pull-up towards the 5V power supply voltage. To use these
lines it only takes setting a switch to close to earth. When closed, the relevant control (turning on or off) is
enabled and the switch may be open again (impulse controls).
The interlock pin may be used as protection so that the amplifier is switched off when the digital input level is
low. It is possible to use several serially connected switches to make an interlock chain. Usually all switches
are closed and the interlock level is low, thus the amplifier is on. If even only one of the switches is open, the
91
level of the interlock signal becomes high (this line has a pull-up towards the +5V power supply voltage as
well) and the interlock protection activates switching off the amplifier. Note that in case the interlock protection
is not used, the pin 4 of the DB9 telemeasure connector and the earth pin (pin 5) must be short circuited.
Otherwise it is possible to disable the monitoring of the interlock chain from menu (see user manual).
Figure 2 shows a typical usage for the digital input signals to turn on and off the amplifier and for the interlock
alarm.
Figure 2: Usage of the digital input signals of the telemeasures connector
AGC / EXCITER
The connector called J10, as the telemeasures connector and the RS485 bus, is wired to a DB9 female
connector placed on the rear panel of the amplifier. This connector allow the implementation of an automatic
gain control between an exciter and the amplifier. A voltage signal related to the forward output power
supplied by the amplifier is provided through two pins of the AGC connector. Connecting one of these to the
relevant input pin of the exciter, this can pursuit a given voltage level, so that the output power is always
constant. In order to avoid that, in case of an alarm decreasing the forward power, the exciter increases its
output level due to the AGC, thus damaging the amplification stages, the connector is provided with two
digital output lines called AGC Alarm. Under alarm conditions, this lines are brought by the micro-controller
at a low level, so that the exciter can stop the AGC.
Table 4 shows the connection between the J10 connector on the board and the DB9 connector on the rear
panel, along with the description of each pin (the direction of the pin is referred to the position of the microcontroller on the board).
92
PIN N°
ON DB9
PIN N°
ON J10
TYPE
DIRECTION
Digital
Output
AGC Alarm
0V = Alarm
5V = Normal
Digital
Output
AGC Alarm
0V = Alarm
5V = Normal
Not used
Not used
Not used
Nout used
Analog
Output
Forward power
Analog
Output
Forward power
DESCRIPTION
Ground
Table 4: Description of the AGC connector
RS232
The DB9 female connector on the front panel is an external communication RS232 serial port, through which
a PC can be connected directly to the amplifier in order to perform operations such as the remote control (by
means of an adequate software2) and the update of the microcontroller firmware.
The used communication protocol is asynchronous, at a 19200bps speed, 1 start bit, 8 data bits, 1 stop bit,
no parity. No hardware flow control is used. The connector is DCE type and the pin used are shown in Table
5.
PIN N° ON DB9
DESCRIPTION
TxD
RxD
GND
Table 5: Description of the RS232 connector
MISCELLANEOUS
The J2 (called AUX), J4, J5 and J17 connectors are not used and are there only for future updates. The SW1
dip-switches are partially used for the configuration of the correct mode for the micro-controller. The other
switches are not used. It is important that the position of the dip-switches is left unchanged, because changing
it may set a wrong mode for the micro-controller, affecting the work of the whole amplifier.
For more information about this application contact the distributor of the manufacturer.
93
FIRMWARE UPDATE
The microcontroller is provided with a built-in Flash memory containing the firmware. The firmware can be
updated with a later version without removing the apparatus from the rack and/or replacing the chip.
To upgrade it, connect a PC to the RS232 socket on the front panel of the apparatus by means of a cable
DB9 male - DB9 female (pin-to-pin).
Launch on the PC the EKAFlash application, select the serial port in use on the PC, choose the update file by
pressing the “...” key and click on Download button.
Eventually, turn off the amplifier from the main switch and then turn it on again. The upgrade of the firmware
begins on the EKAFlash window. Fifure 3 shows this window while a firmware is being updated.
Figure 3: The EKAFlash window while updating a firmware
94
95
96
97
98
99
100
101
102
COMPONENT LIST SCH0223AR1
Part Name/Number
Description
Qty.
Comps.
Page 1/2
BATT BH001RB 3093_90
CC 100nF-S 01065C
03093 03090 BATTERY HOLDER
01065C Y5V 1206 COND
46
CC 15pF-S 01088
CC 1nF-S 01096
CC 1uF100V-S 01760A
01088 SMD 1206 COND
01096 SMD 1206 COND
01760A Y5V 1206 COND
13
CC 47pF-S 01100
CE 100uF25V-S 01793B
CE 10uF35V-S 01778A
CE 1uF35V-S 01613A
CE 220uF50V LOW ESR
CE 22uF16V-S
CE 47uF35V-S 01790A
D 1N4148-S 03002
D 50WQ06FN
D BAS85-S
D BAT54S
DIS MGLS12864T
DL KA-3528SGC 03057
DL LEDG5 03060
DL LEDR5 03061
DL LEDY5 03054B
IC 24LC64 04815
IC 78M12 4307B
IC CD4051BM-S
IC LM2596S-5.0
IC LM358M-S 04660
IC LM393-S 04639
IC LMC6482-S
IC LMC6484-S
01100 SMD 1206 COND
01793B ELETTR SMD COND
01778A ELETTR SMD COND
01613A TANTALIUM ELETTR SMD CO
1799A ELETTR SMD COND LOW ESR
01780A ELETTR SMD COND
01790A ELETTR SMD COND
03002 SMD DIODE
03019A SMD DIODE SCHOTTKY 5,5A
03024 SMD DIODE SCHOTTKY
03199 SMD SCHOTTKY DIODE A-K T
03083A 128x64 DOT (BLUE-LED WH
03057 GREEN SMD LED DIODE
03060 GREEN LED DIODE 5mm
03061 RED LED DIODE 5mm
03054B YELLOW LED DIODE 5mm
04815 SMD INTEG CIRCUIT
04307B SMD VOLTAGE REGULATOR
04615 SMD INTEG CIRCUIT
04580 SMD INTEG CIRCUIT
04660 SMD INTEG CIRCUIT
04639 SMD INTEG CIRCUIT
04632 SMD INTEG CIRCUIT
04634 SMD INTEG CIRCUIT
19
IC M41T56 04611
IC MAX232-S 04804B
IC MAX3080-S 04770
IC MAX942CSA-S
IC MB90F543PF
IC MPC100-450DI-TO
IC TC7662BCOA 04758A
IC ULN2003A 4870
IND 2u2H-S 05020A
04611 SMD INTEG CIRCUIT
04804B SMD INTEG CIRCUIT
04770 SMD INTEG CIRCUIT
04572 SMD INTEG CIRCUIT
04596 SMD INTEG CIRCUIT
04608 INTEG CIRCUIT
04758A SMD INTEG CIRCUIT
04870 SMD INTEG CIRCUIT
05020A INDUCTOR
BATT1
C2, C7-10, C12, C16, C19, C21-27
C29, C31, C33, C37-40, C44-46,
C49, C58-61, C63, C65-69, C74,
C76, C78-81, C83-84, C87, C90
C13-15, C17
C3-6, C50-51, C53
C1, C18, C28, C36, C43, C54,
C56-57, C62, C73, C77, C88-89
C42, C52
C11, C47
C20, C32
C70-72, C75, C82
C55, C64, C85-86
C34-35, C41, C48
C30
D1-2, D5-9
D23
D14-15
D3-4, D10-13, D16-22, D24-29
DIS1
DL2, DL5-10
DL1
DL4
DL3
IC17
IC8
IC7, IC14, IC23
IC19
IC3
IC2
IC24
IC1, IC4, IC6, IC9, IC13, IC18,
IC25
IC20
IC21
IC22
IC10
IC11
IC16
IC5
IC12, IC15
L1
103
Part Name/Number
Description
Qty.
Comps.
IND MS85 10uH-S
IND T100uH-1.8A 4958
J CON HD515V/05-4PVE
J DB9_F-0° LT
J FC-10P 02697-02699
J FC-16P 02701-02700
J PAN2 02739-40-41
J PAN8 02716
JU JUMP2 02739-02742
JU JUMP3 02707-02742
R 100K-1%-S 00065B
R 100R-1%-S 00029D
04948 INDUCTOR 2,7 A
04958 TOROIDAL-STORAGE CHOKES
02881 + 02882 PANDUIT PCB CONN
02794 PCB CONNECTOR DB9 LONG T
02697+02699 PCB CONNECTOR POL
02701+02700 PCB CONNECTOR POL
02739+02740+02741 PCB CONNECTO
02716 PCB CONNECTOR
02739+02742 MASCHIO PAN2
02707+02742 MASCHIO PAN3
00065B RES 1/4W 1% SMD 1206
00029D RES 1/4W 1% SMD 1206
10
12
R 10K-1%-S 00053B
00053B RES 1/4W 1% SMD 1206
32
R 10R-S 00017A
R 1206 NOT MOUNTED
R 1K0-1%-S 00041B
00017A RES 1/4W 5% SMD 1206
NOT MOUNTED RES 1/4W 5% SMD 12
00041B RES 1/4W 1% SMD 1206
R 22K-1%-S 00057B
00057B RES 1/4W 1% SMD 1206
11
R 2K2-1%-S 00045B
R 470K-S 00073A
00045B RES 1/4W 1% SMD 1206
00073A RES 1/4W 5% SMD 1206
11
R 470R-1%-S 00037B
R 4K7-1%-S 00049B
R 68K-1%-S 00063B
R 820R-S 00040A
R 8K2-1%-S 00052B
RL 30.22.24 07569
RV 100K-3266X
RV 10K-3266X 00807
SW SWITCH-8DIP
T 06086 N 7630 7632
TR BC848 03457
TR BC856 03455
XTAL 32.768k-S 05146
XTAL 4MHz-S 05101A
00037B RES 1/4W 1% SMD 1206
00049B RES 1/4W 1% SMD 1206
00063B RES 1/4W 1% SMD 1206
00040A RES 1/4W 5% SMD 1206
00052B RES 1/4W 1% SMD 1206
07569 RELE
00814 VARIABLE RESISTOR
00807 VARIABLE RESISTOR
07530A PCB DIP SWITCH SMD
7630 7632 KTI06086 PULSANTE 2
03457 NPN SMD TRANSISTOR
03455 PNP SMD TRANSISTOR
05146 QUARTZ
05101A QUARTZ
L2
L3
J14
J13
J1-2, J6, J8-12
J3
J5, J7, J15
J4
JP3
JP1-2
R65-66, R94-101
R24, R47, R58, R71, R75,R81,
R83, R89, R103-105, R113
R7, R10, R12, R14-16, R22, R25,
R27, R30, R33-34, R36, R38, R51,
R62-64, R78-79, R84-85, R87-88,
R92-93, R106-111
R68
R91
R17, R54, R59-60, R76-77, R86,
R90
R9, R21, R26, R28-29, R37, R45,
R48-50, R69
R52, R55, R61
R8, R23, R40, R42, R46, R57, R70
R74, R80, R102, R112
R11, R13, R39, R53, R56, R67
R18, R31, R43
R19-20, R32, R44
R35, R72-73, R82, R114-116
R41
RLY1-3
R1-4
R5-6
SW1
T1-4
TR1-2
TR3-4
XTAL2
XTAL1
104
Page 2/2

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XMP Toolkit                     : XMP toolkit 2.9.1-14, framework 1.6
About                           : uuid:8971a555-5f55-4baf-9719-c2eb46cb482c
Modify Date                     : 2006:03:06 21:52:33-06:00
Create Date                     : 2006:03:06 21:52:20-06:00
Metadata Date                   : 2006:03:06 21:52:33-06:00
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Format                          : application/pdf
Title                           : APT137BM_AUTV_3500LD_Rev0_Date090605.p65
Creator                         : PageMaker 6.5
Author                          : Gianluca
Producer                        : Acrobat Distiller 3.0 for Windows
EXIF Metadata provided by EXIF.tools
FCC ID Filing: PHLTXUP3500

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