Sagem Wireless 95MASV3C GSM 850/900/1800/1900 Module User Manual OEM Installation Instruction

Sagem Wireless GSM 850/900/1800/1900 Module OEM Installation Instruction

UserManual.wiki >

Sagem Wireless >

95MASV3C User Manual HTML Version

OEM Installation Instruction

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

Please verify the valid document in the official documentation system

Page 1/68

MO2XX MODULE

PRELIMINARY SPECIFICATION

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 2/67

CHANGE HISTORY

Rev.

Date Author Reason for change

A08/09/2004 SAGEM S.A. First document

B18/11/2004 SAGEM S.A. Modifications of all §

TABLE OF CONTENTS

1. OVERVIEW

................................

....................

1.1 Object of the document

................................

....................

1.2 Standards compliance

................................

......................

1.3 compliance with fcc guidelines

................................

........

1.4 Terms and abbreviation

................................

....................

1.5 Conventions

................................

.......

1.6 Product features

................................

BLOC DIAGRAM

................................

...............

3. FUNCTIONAL DESCRIPTION

................................

....................

3.1 SIM

................................

....................

3.2 AUdio

................................

................

3.3 Network LED

................................

....

3.3.1 Network / Low BATTERY

................................

...........

3.3.2 Messages

................................

...

3.3.3 Handfree call

................................

..............................

3.3.4 Summary chart

................................

...........................

3.4 Data

................................

...................

3.4.1 Data services

................................

..............................

3.4.2 UART1: V24

................................

...............................

3.4.3 UART 2

................................

.......

3.5 Antenna

................................

............

3.6 DAI

................................

.....................

3.7 Clocks

................................

...............

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 3/67

3.8 Power management and charge

................................

....

3.8.1 Battery

................................

........

3.8.2 VRIO

................................

...........

3.8.3 Vbackup

................................

.....

3.8.4 Charge

................................

........

3.8.5 This interface includes main protections.AC/DC switching charger

................................

..........

3.8.5.1 Operating temperature

................................

............

3.8.5.2 Electrical ratings

................................

.....................

3.8.5.2.1 Primary input voltage

................................

........

3.8.5.2.2 Primary/secondary insulation

................................

............................

3.8.5.2.3 Static output template

................................

.......

3.8.5.2.4 Dynamic output template

................................

3.8.5.2.5 Reverse current (main off)

................................

3.8.5.3 Thermal ratings

................................

.......................

3.8.6 Simple battery charger

................................

...............

3.9 Power management

................................

.........................

3.9.1 Interface identification and diagrams.

................................

........................

3.9.2 Recommended strategy : software management

................................

......

3.10 Data / Command multiplexing

................................

........

3.11 GLObal Positioning system (GPS) application

................................

............

4. PINOUT

................................

.......................

5. DELTA LIST BETWEEN MO190 TO MO2XX

................................

.............................

6. ELECTRICAL SPECIFICATION

................................

..................

6.1 VBAT

................................

.................

6.2 VRIO

................................

..................

6.3 DAI interface

................................

.....

6.4 Network LED

................................

....

6.5 SERIAL INTERFACE (µWIRE)

................................

.........

6.6 SIM

................................

....................

6.7 V24 (UART 1)

................................

....

6.8 UART2

................................

...............

6.9 DATA / Command multiplexing

................................

......

6.10 Power management

................................

.........................

6.11 AudIO SIGNALS

................................

...............................

6.12 Charger

................................

.............

6.13 Reset

................................

.................

6.14 Spare IO

................................

............

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 4/67

6.15 Clocks

................................

...............

6.16 JTAG interface

................................

7. ENVIRONMENTAL SPECIFICATION

................................

.........

8. MECHANICAL SPECIFICATION

................................

................

PHYSICAL DIMENSIONS

................................

............................

8.2 TERMINAL ASSIGNMENTS

................................

.............

8.2.1. 120 pins connector

................................

......................

8.2.1.1. MO2XX connector

................................

..................

8.2.1.2. Mother board connector

................................

..........

8.2.2. MO2XX Antenna connector

................................

.........

8.2.3. Battery connector

................................

........................

ANNEX 1 : IO DESCRIPTION

................................

...........................

ANNEX 2 : HARDWARE POWER MANAGEMENT

................................

..........................

Different strategies

................................

....

1. Interface specification.

................................

.......................

1.1 Management by DCE alone.

................................

...

1.3.1. Signals.

................................

...............................

1.3.2. Signals and states.

................................

..............

Logical and electrical levels:

................................

..............

1.3.3.1. Transition tables.

................................

..............

1.3.3.2. Command signals.

................................

...........

1.3.3.3. Transition from OFF to ON Active.

................................

..................

1.3.3.4. Transition from ON Active to ON Sleep.

................................

.........

1.3.3.4.1. Initiated by DTE.

................................

........

1.3.3.4.2. Initiated by DCE.

................................

.......

1.3.3.4.3. Transitory states.

................................

.......

1.3.3.5. Transition from ON Sleep to ON Active.

................................

.........

1.3.3.5.1. Initiated by the DCE.

................................

1.3.3.5.2. Initiated by DTE.

................................

........

1.3.3.6. Transition from ON Sleep to OFF.

................................

..................

1.3.3.7. Transition from ON Active to OFF.

................................

..................

1.3.3.8. Reset

................................

...............................

1.3.3.8.1. Initiated by the DCE.

................................

1.3.3.8.2. Initiated by the DTE.

................................

1.3.3.9. Timeout.

................................

...........................

ANNEX 3 : DATA/COMMAND HARDWARE MULTIPLEXING

................................

.........

1. Hardware multiplexing

................................

.......................

1.1. External interfaces

................................

......................

1.2. Capability requirements

................................

.............

1.2.1. Logical and electrical levels

................................

1.2.2. Hardware protocol

................................

...............

1.2.3. State diagram

................................

......................

1.2.4. Transition (1): Command -> Data

................................

.......................

1.2.5. Transition (2): Data -> Suspended Data

................................

.............

1.2.6. Transition (3): Suspended Data -> Data Mode

................................

...

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 5/67

1.2.7. Transition (4): Suspended Data -> Command Mode

................................

..........................

1.2.8. Timeout case

................................

.......................

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 6/67

1. OVERVIEW

1.1 OBJECT OF THE DOCUMENT

This document gives an overview of the MO2XX module: a miniature, single-side board, quad-band GSM/GPRS

module, ready for integration in wireless communicating device as a MODEM.

The major functionalities offered by the MO2XX modules are:

• The audio capabilities

• The voice/data multiplexing

This document describes the main functionalities of this module: GPRS / GSM 900MHz / GSM 850MHz /DCS

1800MHz / PCS 1900MHz, interface to the SIM card, the battery, and the audio (when available), as well as the

electrical interfaces, the mechanical specification (dimension, form…) and the electrical specification of the module.

1.2 STANDARDS COMPLIANCE

• [GSM 02.60]: "Digital cellular telecommunications system (Phase 2+); Stage 1 Service Description of the

General Packet Radio Service (GPRS)". Version 6.3.0.

• [GSM 03.03]: "Digital cellular telecommunications system (Phase 2+); Numbering, addressing and

identification". Version 6.6.0.

• [GSM 03.13]: "Digital cellular telecommunications system (Phase 2+); Discontinuous Reception (DRX) in the

GSM system". Version 6.0.0.

• [GSM 03.60]: "Digital cellular telecommunications system (Phase 2+); General Packet Radio Service (GPRS);

Service description; Stage 2". Version 6.7.0.

• [GSM 03.64]: "Digital cellular telecommunications system (Phase 2+); General Packet Radio Service

(GPRS);Overall description of GPRS radio Interface; Stage 2". Version 6.4.0.

• [GSM 04.02]: "Digital cellular telecommunications system (Phase 2+); GSM Public Land Mobile Network

(PLMN) access reference configuration". Version 6.0.0.

• [GSM 04.03]: "Digital cellular telecommunications system (Phase 2+); Mobile Station - Base Station System

(MS - BSS) interface Channel structures and access capabilities". Version 6.0.0.

• [GSM 04.04]: "Digital cellular telecommunications system (Phase 2+); Layer 1 General requirements". Version

6.0.0.

• [GSM 04.05]: "Digital cellular telecommunications system (Phase 2+); Data Link (DL) layer General aspects".

Version 6.0.1.

• [GSM 04.07]: "Digital cellular telecommunications system (Phase 2+); Mobile radio interface signalling layer 3

General aspects". Version 6.5.1.

• [GSM 04.08]: "Digital cellular telecommunications system (Phase 2+);Mobile radio interface layer 3

specification". Version 6.11.0.

• [GSM 04.60]: "Digital cellular telecommunications system (Phase 2+); General Packet Radio Service (GPRS);

Radio Link Control/Medium Access Control (RLC/MAC) protocol". Version 6.9.0.

• [GSM 04.64]: "Digital cellular telecommunications system (Phase 2+); General Packet Radio Service (GPRS);

Logical Link Control (LLC)". Version 6.7.0.

• [GSM 04.65]: "Digital cellular telecommunications system (Phase 2+); General Packet Radio Service (GPRS);

Mobile Station (MS) - Serving GPRS Support Node (SGSN); Sub network Dependent Convergence Protocol

(SNDCP)". Version 6.7.0.

• [GSM 05.02]: "Digital cellular telecommunications system (Phase 2+); Multiplexing and multiple access on the

radio path". Version 6.9.0.

• [GSM 05.03]: "Digital cellular telecommunications system (Phase 2+); Channel coding". Version 6.2.1.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 7/67

• [GSM 05.08]: "Digital cellular telecommunications system (Phase 2+); Radio subsystem link control". Version

6.8.0.

• [GSM 05.10]: "Digital cellular telecommunications system (Phase 2+); Radio subsystem synchronization".

Version 6.6.0.

• AT command Set for Sagem Modules SCT TMO MOD SPEC 465 B

• GCF-CC (V.3.16.0) and GT.01.

• NAPRD.03 (V.2.10.1).

1.3 COMPLIANCE WITH FCC GUIDELINES

Devices incorporating MO2XX modules must be designed to maintain a minimum separation distance of 20 cm

between the antenna and the end user to satisfy RF exposure requirements for mobile transmitting devices.

1.4 TERMS AND ABBREVIATION

ADC Analog to Digital Converter

ADPCM Adaptive Delta Pulse Code Modulation

AFC Automatic Frequency Correction

ASIC Application Specific Integrated Circuit

BMP Bitmap

CODEC Coder-Decoder

CTS Clear To Send

DAC Digital to Analog Converter

DAI Digital Audio Interface

DCS Digital Communications System

DSP Data Signal Processor

DSR Data Set Ready

DTR Data Terminal Ready

EGSM Enhanced GSM

EMS Enhanced Messaging Services

ESD Electrostatic Discharge

ETS European Telecommunication Standard

GSM Global System for Mobile communication

GPRS General Packet Radio Services

IC Integrated Circuit

IEEE Institute of Electrical and Electronics Engineers

I/O Input / Output

IRDA Infra Red Device Application

ISO International Standards Organisation

ITU International Telecommunication Union

JPEG Joint Picture Expert Group

JTAG Joint Test Action Group

Kbps Kbits per second

LCD Liquid Crystal Display

LED Light Emitting Diode

LNA Low Noise Amplifier

Mbps Mbits per second

MIDI Musical Instrument Digital Interface

MMI Man Machine interface

PA Power Amplifier

PBCCH Packet Broadcast Channel

PCB Printed Circuit Board

PCS Personal Communication System

PLL Phase Locked Loop

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 8/67

PNG Portable Network Graphics

RAM Random Access Memory

RF Radio Frequency

RI Ring Indication

RMS Root Mean Square

RTS Ready To Send

RX Reception

SIM Subscriber Identification Module

SMS Short Message Service

SRAM Static Random Access Memory

TBC To Be Confirmed

TBD To Be Defined

TX Transmission

UART Universal Asynchronous Receiver and Transmitter

USB Universal Serial Bus

USSD Unstructured Supplementary Service Data

VCO Voltage Controlled Oscillator

WAP Wireless Application Protocol

WBMP Wide Bitmap

1.5 CONVENTIONS

Throughout this document, DTE (Data Terminal equipment) indicates the equipment which masters and controls

the module device MO2XX by simply sending AT commands via its serial interface.

DCE (Data Communication Equipment) indicates the module device MO2XX.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 9/67

1.6 PRODUCT FEATURES

Temperature range

Normal range: -10°C to +55°C (fully compliant)

Extended range: -20°C to –10°C and +55°C to +70°C

(functional without any risk for the network)

Storage: -40°C to °85°C

Weight (in g) 10g

ESD ESD protection < 1.5 kV

Physical dimensions 34x54.4x3 mm (typical)

Connection 120 pins connector + 1 antenna connection + 1

battery connection

Power supply 3.45V to 4.5V range, 3.8V nominal.

Power consumption

Off mode: 120 uA (typ)

Stand-by mode: < 2.5 mA (typ)

Communication mode: 280 mA (typ at Pmax), 2.2 A

peak during TX slot

Power supply connector Dedicated connector

Battery charge management and interface Battery charge management is included. The charger

interface is provided on 120 pins connector.

Antenna No antenna included in the module.

Frequency bands GSM850 + EGSM900 + DCS1800 + PCS1900

Voice codecs Half Rate, Full Rate, Enhanced Full Rate,

Adaptive Multi Rate

GSM class Small MS

Transmit power Class 4 (2W) for GSM850 / EGSM900

Class 1 (1W) for DCS1800 / PCS1900

Supported SIM card

3V SIM cards.

To prevent SIM card’s damages, the power supply of

the module has to be turned off before any

manipulation of the SIM card.

SIM slot Not included on the module. Signals for the

management of the SIM card are provided on 120

pins connector

Network LED LEDR and LEDG management.

Audio up-link 2 differential inputs are provided for microphone

(accessories and handset).

Audio down-link 2 differential outputs are provided for non stereo

earphone and 1 differential output for accessories.

The power consumption is highly dependent on customer’s software and global environment of GSM Module

(MMI, Accessories,…).

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 10/67

D.A.I GSM DAI test mode interface

UART1 interface with flow control

Up to 115.2 Kbaud with auto bauding.

Full flow control signals (+2.8V) are provided on ball-

out.

If a full compliant RS232 (+/-5V) serial interface is

needed:

The drivers (like MAX3232, ST3237CD, …) are not

included in the module and have to be added on the

main PCB.

A proven schematic to build the RS232 interface is

provided in application note.

Data/command multiplexing Hardware management of data/command

multiplexing on the serial link UART1

Power management Hardware management of sleeping and waking in

module /DTE architecture

UART2 interface Up to 115.2 Kbaud.

Data services GPRS, CSD, Fax

Supplementary services (supported via AT

commands, refer to SCT TMO MOD SPEC 465 B)

Caller Line Identification, Call Waiting, Call Hold, Call

Forwarding, Multiparty, Call Barring, Advice of

Charge, USSD, CPHS

Reset pin Available (reset of all the system including backup)

Power on pin Available

General purpose I/Os pin 3 x I/O, 1 interrupt, 1 ADC available

GPRS SMG 31bis, Multi slot class 10, class B terminal,

PBCCH support

GSM/DCS certification GCF-CC V.3.16.0 and GT.01

PCS certification NAPRD.03 (V.2.10.1)

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 11/67

2. BLOC DIAGRAM

Figure 1

MO2XX bloc diagram

*Depending on software version

MO2xx

GPRS

GSM900 / GSM850*/ DCS1800 / PCS1900

Hardware

Power

Management

SIM interface (3V)

Mod_On*_Cmd

Mod_Off*_Cmd

Dte_reset*_cmd

Mod_on_state

Mod_uart_state

Mod_flow_state

Mod_reset_state

Dte_uart*_state

Mod_reset*_cmd

IO7

STDBYCAM

TSPACTEXT

INT1

IO6

IO5

SDAI2C

SDCI2C

CLK32K

CLKSYREN

VRIO

Simclk

Simrst

Simvcc

Simio

Simcd

MICIP

MICIN

HPP8

HPN8

HPP32

HPN32

HSOR

HSOL

HSMICIP

HSMICIN

Ledr

Ledg

Spare I/Os

Uart2

Uart1

Mod_Esc*._Cmd

DTE_Esc._Cmd

VBAT

Handset Microphone

Handset

Speaker

Module On signal

VBAT

Module Off signal

V24

Interface

Transceiver

(if necessary)

Accessory Microphone

Accessory

earphone

earpiece

Data/command

multiplexing

(hardware solution)

GPS

RF + Chip

set

VBAT

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 12/67

3. FUNCTIONAL DESCRIPTION

3.1 SIM

The SIM Card interface is compatible with the ISO 7816-3 IC card standard on the issues required by the GSM

11.11 Phase 2+ standard. The module also supports Release 99 of the SIM Toolkit recommendation too and

supports a Fixed Dialling Number directory.

The SIM Card interface insures the detection (SIMCD), the power on (SIMVCC) of the SIM Card and the

communication with it through a data signal (SIMIO), a clock signal (SIMCLK) and a reset signal (SIMRST).

Signal Pin N° Description

SIMRST SIM reset, provided by Base-band processor

SIMCLK SIM clock, provided by Base-band processor

SIMIO SIM serial data line, input and output

SIMVCC SIM supply voltage

SIMCD SIM insertion detection

SIM card connection:

Figure 2

SIM connection

The SIMCD signal should be connected to the SIM card reader in order to get SIMCD at low level (GND) when no

card is present and at high level (SIMVCC) when card is present (external pull down needed when SIM card

connector with detection is used).

This interface includes main protections.

MO2XX

SIMVCC

SIMIO

SIMRST

SIMCLK

SIMCD

SIM card

In option

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 13/67

3.2 AUDIO

The module supports the following voice codecs:

• Half-Rate

• Full-Rate

• Enhanced Full Rate

• Adaptive Multi Rate

It manages an external handset microphone (MICIP/MICIN) and an external handset earphone (32 Ohms

HPP32/HPN32 and 6 to 8 Ohms HPP8/HPN8) in differential mode.

The bias voltage of the microphone is provided directly on MICIP/MICIN pins.

There are two options for the earphone:

- Two earphones, one 32 Ohms as earpiece and one 6 Ohms minimum as Ring/melody and as hands-free

loudspeaker if it is far from the microphone.

- one 32 Ohms earphone as earpiece.

The module can also manage accessories (earphone and microphone) through dedicated lines

(HSMICIP/HSMICIN for microphone and HSOL/HSOR for stereo earphone). The typical impedance for the

earphone is 150 Ohms.

Figure 3

Audio

This interface includes main protections.

To ensure proper operation of such sensitive signals, there have to be isolated from the other by ground on mother

board layout.

NB: To avoid destruction of module components, the HP inductance has to be 47nH +/- 5% @ 200MHz

Base-band

Ampli+Filter

MICIP

MICIN

HSMICIP

HSMICIN

HPP32

HPN32

HSOR

HSOL

HPP8

HPN8

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 14/67

3.3 NETWORK LED

Two external pins of the module are dedicated to network and alarm LEDs:

- LEDR

- LEDG

Figure 4

Network LED connection

3.3.1 Network / Low BATTERY

The network/battery indication consist in by a 30ms flash with period of 2 s.

The flash can take 3 colors:

• green when network attached and battery ok.

• orange (green + red) network attached and battery low.

• red no network and battery low.

The battery threshold is 3650 mV.

3.3.2 Messages

The message received indication takes place after the network/battery indication, it consists in 3 successive

20ms red flashes. It indicates the presence of a new SMS or voice mailbox.

3.3.3 Handfree call

During a handfree call (with at+vip=1 during a call), the led becomes alternately red and green with a period

of 1 s. Handfree led mode has priority over other modes (Network,Messages…)

LEDR or

LEDG

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 15/67

3.3.4 Summary chart

Battery low :

Network :

+ battery low :

Message received :

(SMS, voice / not read)

+ battery low :

Communication :

+ battery low :

Communication (handsfree) :

+ battery low :

(no effect)

+message:

(no effect)

3.4 DATA

3.4.1 Data services

The module supports the following services:

• GPRS

• CSD: transparent and non-transparent up to 9600 BPS

• Fax: class 1 group 3

3.4.2 UART1: V24

A V24 interface is provided on external pins of the module with the following signals:

- RTS/CTS

- RX/TX

- DSR

- DTR

- DCD

- RI

It supports speeds up to 115.2 KBPS and may be used in auto bauding mode.

Two supplementary signals (MOD_ESCAPE*_CMD, DTE_ESCAPE_CMD) are provided to toggle from data

mode to command mode on this serial link.

3.4.3 UART 2

It is strongly recommended to leave this interface externally accessible for Debug.

There is no flow control on this interface.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 16/67

3.5 ANTENNA

Two accesses for the antenna connection are provided.

- one by mean of a 50ohms connector

- one by mean of a simple copper area

Figure 5

Antenna area on the MO2XX

See into Application Note for more details.

3.6 DAI

A DAI interface is provided on the module for type approval tests.

3.7 CLOCKS

A 32KHz frequency clock and a 13MHz frequency digital clock are provided on external pins of the module.

To ensure proper operation of such sensitive signals, they have to be isolated from the other by ground on mother

board layout.

3.8 POWER MANAGEMENT AND CHARGE

3.8.1 Battery

The power supply signal VBAT is 3.45V to 4.5V range and 3.8V nominal.

Only Li-Ion battery are supported.

It has to be more than 3.2V, even during transients in order to avoid unwanted resets. The power supply dropout

has to be limited to 450mV, when the current consumption goes from minimum to maximum (0.1 to 2A). The noise

level of the power supply has to be limited to 50mV RMS in the 100KHz – 1MHz frequency range

SAGEM advises to use Sanyo or LG battery. If battery is used, SAGEM agreement is needed (slight qualification

tests).

Only battery with 200mOhms maximum internal resistor are managed by the module.

Antenna ground

copper area

Antenna copper pad

50 Ohms connector

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 17/67

3.8.2 VRIO

+2.8V output is available on external pin of the module and could supply +2.8V external components (current

capability 10mA in active mode).

This interface includes main protections.

3.8.3 Vbackup

External Backup could be supply through the VBACKUP input (from 2.2V to 3.2V). A internal mechanism is present

to charge the backup battery.

If No external Backup is supplied, VBACKUP input has to be connected to VBAT signal.

3.8.4 Charge

This interface manages the charge of the battery for regulated charger, when a charger is connected, even in the

following conditions: deeply discharged battery, short-circuited battery and unconnected battery (600mA with

regulated charger).

The interface manages the charge of some regulated chargers, that have to be qualified by SAGEM (see listing in

application note).

WARNING :

The charger interface must be connected with wide tracks (1 mm width / 17.5um height tracks on the MO2XX ) to

allow 600 mA maximum current from the charger.

When using MO2XX as slave MODEM of a Host system sharing the same power supply (example : PDA), it is

strongly recommended to manage the charging function on Host side: so, in such a case, do not use the charge

function of the module.

3.8.5 This interface includes main protections.AC/DC switching charger

3.8.5.1 Operating temperature

0°C to +55°C.

3.8.5.2 Electrical ratings

Battery charger

Figure 6

Charging.

Class II equipment (EN 60950 § 1-2-4-2)

3.8.5.2.1 Primary input voltage

98V < Vp < 254V ; F = 50/60Hz.

3.8.5.2.2 Primary/secondary insulation

Security transformer class E (EN 60950 § 5-1)

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 18/67

Electric strength : reinforced insulation (EN 60950 § 5-3-2)

3.8.5.2.3 Static output template

Figure 7

Charging valid area.

3.8.5.2.4 Dynamic output template

An external device is controlling the battery charge by means of a switch S1, which can be switched on and off.

Following templates shows the output current and voltage during transients, this feature is very important to enable

the charging control by controlling S1 (PWM).

Warning: These are the most important characteristics for a charger (it concerns the safety of the MO2XX

module). A charger has to be (at least) fully compliant with the current and voltage transients.

Figure 8

Charge principle.

550 mA

450 mA

500 mA

VALID AREA

BATTERY CHARGER

0V <Vbat< 4.5V

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 19/67

Figure 9

Transients in charge: Current transients & Voltage transients.

3.8.5.2.5 Reverse current (main off)

Main off or unplug, the current flowing from the battery to the charger have to stay smaller than « Ir » in order to

prevent discharge !

Ir < 100µA for Vbat ≤≤ 5V

3.8.5.3 Thermal ratings

The heating of the enclosure will comply with EN 60950 § 5-1

Tab. 16 - part 2.

3.8.6 Simple battery charger

Ask SAGEM to check compatibility for this kind of charger.

Is (dynamic)

Time

5A Max

5ms Max

S1 is

switched on

VALID AREA

Ripple : +/- 50mA

Vs (dynamic)

Time

20V Max

0.2ms Max

S1 is

switched off

VALID AREA

Ripple : +/- 200mV

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 20/67

3.9 POWER MANAGEMENT

3.9.1 Interface identification and diagrams.

On an external point of view (i.e. as seen by a DTE), the MO2XX has 4 different states:

• OFF:

In this state, none of the MO2XX functionality are running (the serial link is switched off)

• ON Sleep:

In this state, the MO2XX is asleep and the external serial link is switched off. Any interrupt will wake the

module up as well as the external serial link. An interrupt can be generated by reception of a character

but it is lost.

NB: in this state, the module is attached to the GSM network.

• ON Active:

In this state, the MO2XX is switched on and the serial link is activated. The MO2XX is able to receive

correctly the data sent by the DTE.

NB: in this state, the module is attached to the GSM network.

• Reset:

This state indicates that the MO2XX is in its setup procedure and implies that the serial link is

deactivated.

3.9.2 Recommended strategy : software management

A software management of the power consumption can be handled via the GSM 07.10 protocol.

Other strategies are possible and they are developed in the Annex 2.

3.10 DATA / COMMAND MULTIPLEXING

The serial link between the DCE and a DTE (PDA, phone,…) is used to send two different kinds of data

flow: AT commands and PPP data packets. these two flows cannot be mixed together (not enough

bandwidth). So, this serial link can be used in two different exclusive modes:

- Command Mode: The serial link is reserved for the AT Commands flow

- Data Mode: The serial link is reserved for the data flow

But, during a data connection, the modem or the DTE may need to send some AT Commands to notify the

other side of a major event. As there is just one serial link to send these two kinds of data, it is necessary

to have a special procedure to switch from one kind to the other.

• The first solution provided by the GSM standard is to use +++ and ATO. This solution very simple to

implement, has the main drawback to allow only the DTE to control the switch between the 2 modes and it is

usually only used to hang up a data call.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 21/67

• The second solution consists to implement the GSM 07.10 standard, this solution is available (customer has to

develop its own driver for the host). SAGEM recommends to use this solution.

• A third method, developed by SAGEM S.A. and explained in details hereafter in the annex 3, consists to create

a third mode for the serial link and handle it through hardware signals. This mode is called “Suspended Data

Mode” and is temporarily used to send AT Commands. All data must to be stored during a Suspended data

mode switch. In the case of no-response from DTE, We need to implement a cyclic mechanism to change the

hardware signals states.

3.11 GLOBAL POSITIONING SYSTEM (GPS) APPLICATION

A GPS application can be implemented in the product. See application note for more detail.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 22/67

4. PINOUT

MO2XX MO190 Required

operation for

electrical

compatibility

IO type Function MO2XX

Description

Pin N°

XS2xx

Pin N°

MO190

MO2xx

DAIRST DAIRST Not

required Input DAI reset M4 116

DAIOUT DAIOUT Not

required Output DAI output data M3 115

DAIIN DAIIN Not

required Input DAI input data M2

117

DAICLK DAICLK Not

required Input

DAI

interface

(for

certification

tests only)

DAI clock L2 118

USL1 Input - T5

USL2 Output - S4

USL3 Output - S5

USL4 Output - S6

USL5 Output R3

USL6 (IO3) Output - R4

USL7 Input -

O17

USL8 Input -

P17

USL9 Input -

P16

USL10 Input

Useless

Q17

MOD_ESCAPE*_CMD MOD_ESCAPE*_CMD Not

required Input Command mode

request signal (from

DTE to MO2XX)

interrupt

L14

USL11 Input -

M15

USL12 Output

Useless

M14

DTE_ESCAPE_CMD DTE_ESCAPE_CMD Not

required Output Command mode

request signal (from

MO2XX to DTE)

L13

MOD_RESET_STATE MOD_RESET_STATE Not

required Output Signal showing a

RESET occurrence

of the module

M13

MOD_UART_STATE MOD_UART_STATE Not

required Output Signal giving the

state of the serial

link in the module

M12

MOD_FLOW_STATE MOD_FLOW_STATE Not

required Output Signal giving the

state of the module

M16

MOD_ON_STATE MOD_ON_STATE Not

required Output Signal giving the

state of the module

L15

MOD_ON*_CMD MOD_ON*_CMD Not

required Input ON signal Module ON signal

B10

113

SIMVCC SIMVCC Not

required Output SIM power supply T7 6

SIMRST SIMRST Not

required Output

SIM

interface

SIM reset T8 5

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 23/67

SIMCLK SIMCLK Not

required Output SIM clock T9 4

SIMIO SIMIO Not

required In/output SIM data

T10

SIMCD SIMCD Not

required Input SIM insertion

detection

B12

114

HSMICIP BFTXP

Audio level

Input Differential input

from microphone

O15

HSMICIN BFTXN

Audio level

Input

To external

microphone

(accessory)

Differential input

from microphone

P14

HSOL BFRXN

Audio level

Output

O14

HSOR BFRXP

Audio level

Output

To external

stereo HP

(accessory)

Differential output to

earphone

O13

MICIP MICP

Audio level

Input Differential input to

handset microphone

R15

MICIN MICN

Audio level

Input

Microphone

interface

Differential input to

handset microphone

Q15

HPP32

New signal

Output Differential output to

32ohms handset

earphone

N11

HPN32 LPHPN

New signal

Output

Earphone

interface

Differential output to

32ohms handset

earphone

O11

HPP8 HPP

Audio level

Output Differential output to

8ohms handset

earphone

O10

HPN8 HPN

Audio level

Output Differential output to

8ohms handset

earphone

N10

USL13 Output Useless -

M17

RI RI Not

required Output Ring Indicator N5 109

DSR DSR Not

required Output Data Send Ready E3 94

DCD DCD Not

required Output Data Carrier Detect E2 110

DTR DTR Not

required Input Data Terminal

Ready D3 95

CTS CTS Not

required Output Clear To Send C5 82

RTS RTS Not

required Input Request To Send D4 83

TXD1 TXD1 Not

required Output UART transmit 1 B5 101

RXD1 RXD1 Not

required Input

V24

interface

with flow

control

UART receive 1 B7 105

TXD2 TXD2 Not

required Output UART transmit 2 B8 103

RXD2 RXD2 Not

required Input

UART2

interface

UART receive 2 B9 104

INT1 SPRINT (CINT) Not

required Input Spare interrupt Q3 111

SCLI2C (ex USL15) SCLI2C Not

required Output

Useless

C11

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 24/67

SDAI2C (ex USL16) SDAI2C Not

required In/out -

B11

DTE_UART*_STATE DTE_UART*_STATE Not

required Input Signal giving the

state of the DTE H6 92

CHARGEUR CHARGEUR Only 6.5V

charger Input Battery

charging

interface

Charge O3,

O4,

69, 70

MOD_OFF*_CMD MOD_OFF*_CMD Not

required Input Module OFF signal

interrupt N6 76

USL17 In/output - K5

USL18 In/output - K4

USL19 In/output - K3

USL20 In/output - K2

USL21 In/output - J2

USL22 In/output - J3

USL23 In/output - J4

USL24 In/output - I4

USL25 In/output - I3

USL26 In/output - I2

USL27 In/output - H2

USL28 In/output - H3

USL29 In/output - H4

USL30 In/output - G4

USL31 In/output - G3

USL32 In/output - G2

USL33 Output - I5

USL34 Output - F5

USL35 Output

Useless

- F6

USL36 Output - F4

USL37 Output - F3

USL38 Output - F2

USL39 In/output - I13

USL40 In/output -

N18

USL41 In/output -

L16

USL42 In/output - I12

USL43 In/output -

G17

USL44 In/output -

K15

USL45 In/output -

H15

USL46 In/output - I15

USL47 Output - I14

USL48 Output -

H13

USL49 Output -

G12

USL50 Output - I16

USL51 Output

Useless

J16

DTE_RESET*_CMD

(ex RESETLCD*) DTE_RESET*_CMD

(ex CMDSW2) Electrical

level Output DTE reset signal N2 106

USL52 In/output

N16

USL53 In/output

N17

USL54 Input

Useless

T15

USL55 Output

C17

USL56 In/output

Useless

- Q8

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 25/67

USL57 In/output - Q9

USL58 Input -

O16

USL59 Output - M8

USL60 Output -

K12

USL61 In/output -

D10

USL62 In/output - C4

USL63 In/output - C8

USL64 In/output -

E11

USL65 In/output -

EC6

USL66 In/output -

F10

USL67 In/output - C9

USL68 In/output - D5

USL69 Output -L3

USL70 Output - M5

USL71 Input -

C10

USL72 Output -L5

USL73 Output -L4

USL74 Output -

C15

USL75 Output -

H12

USL76 Output - I9

USL77 Output - E4

USL78 Output - D9

USL79 Output - D6

USL80 Input - D8

USL81 Output - E8

USL82 In/output -

D12

USL83 In/output -

B15

USL84 In/output -

B16

USL85 In/output -

B17

USL86 Output -

D11

USL87 Output -

B13

USL88 Input -

C12

CLK13M CLK13M Not

required

Compatibi

lity

MO190=>

MO2XX

Output 13MHz digital clock

output

L12

CLK32K CLK32K Electrical

level Output

Useless

32KHz digital clock

output R7 9

ADC2 ADC1 Hardware

interfacing

Input - Q5 11

USL90 Input -

C13

USL91 Output -

D13

USL92 In/output -

E12

USL93 In/output - E9

IO5 ITFLAP

New signal

In/output N4 80

IO6 A_0<>

New signal

In/output N3 65

IO7 SPRIO

CMDSW 1 Electrical

level In/output

Useless

J5 107

LEDR LEDR Electrical

level output LED P2 91

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 26/67

LEDG LEDG Electrical

level output Q2 90

TSPACTEXT A_4<>

New signal

output

Radio signal

C17

STBYCAM A_5 <>

New signal

output standby M5 66

CSMIW2* CSMIW2 Electrical

level Output Serial

interface for

LED chipset

Chip select for

backlight component

R3 97

CSMIW1* CSMIW1 Electrical

level Output LCD Driver chip

select of the serial

link

S6 98

DIMIW DIMIW Not

required Input LCD driver input

data of serial link T5 86

CKMIW CKMIW Not

required Output LCD driver clock of

serial link S5 85

DOMIW DOMIW Not

required output

Serial

interface to

connect

LCD or chip

melody (1

chip select)

LCD driver output

data of serial link S4 84

MOD_RESET*_CMD TESTRST* Electrical

level Input

Reset system signal

P4 81

VBAT VBAT Electrical

level Input Power

supply +3.8V battery power

supply (nominal) F19,

F20,

F21,

F22,

F23,

G19

,G2

0,H1

9,H2

Bat.

conn.

1,2

VRIO VRIO Electrical

level Output +2.8V output power

supply Q4 2

VBACKUP VBACKUP Not

required Input - P5 12

GND GND Not

required Ground Ground GND 8, 10,

15,

17,

48,

51,

54,

58,

60,

61, 64

Bat.

Conn

3,4

ANTENNE OUT_ANT Not

required Output/inp

ut Antenna

input/output

Antenna connection

(50 ohms) I23 Ant.

Conn.

TCK TCLK Not

required Input JTAG

T11

Test

point

TMS TMS Not

required Input JTAG

T14

Test

point

TDIDIGIT TDI Not

required Input JTAG

C14

Test

point

TDODIGIT TDODIGIT Not

required Output JTAG

D17

Test

point

TDIANALOG TDIANALOG Not

required Input

JTAG

interface

(SAGEM

use only)

JTAG R9 Test

point

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 27/67

TDOANALOG TDOANALOG Not

required Output JTAG P7 Test

point

BSCAN* NBSCAN Not

required Input JTAG

D16

Test

point

EMU0* NEMU0 Not

required Output For debug

C18

Test

point

EMU1* NEMU1 Not

required Output For debug

B18

Test

point

NC NC Not connected Q21

,R21

,R20

,S20

, L1,

P3,

Q6,

R5,

* active on low electrical state

WARNING:

The USL signals are useless in MO2XX versions, these signals are not connected to the pins of the 120 pts

connector.

The USL signals shall not be connected to any other signal neither to ground on the mother board.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 28/67

5. DELTA LIST BETWEEN MO190 TO MO2XX

The MO2XX is inherited from the XS2xx. It aims to replace the MO190 module and to be compatible with it.

Nevertheless, following discrepancies are noted:

Compatibility issues MO190 MO2XX

Audio signals BFTXP/N :

1st gain : [-12, -6, 0, +6, +12, +18, +21] dB

2nd gain : 4.6 or 28.2 dB

HSMICIP/N : Only 25.6 dB

(see § 6.11.2)

Audio signals BFRXP/N : Nominal impedance : 150 Ω

HSOL/R: Nominal impedance : 32 Ω (see

§ 6.11.3)

Audio signals MICP/N

Value of the polarization : about 4V

MICIP/N:

Value of the polarization : 2.5V

(see § 6.11.1)

Audio signals HPP/N and LPHP HPP/N 8 and HPP/N 32 : maximum output

levels are different between MO2XX and

MO190

Hardware incompatibility: 4 signals instead

of 3 signals

(see § 6.12)

Charger Voltage 0-16V Voltage 6-7V

MOD_RESET*_CMD MOD_RESET*_CMD active low state Compliance with MO190 : to be verified

DTE_RESET*_CMD VLmin = - 0.5V

VLmax= + 0.8V

VHmin= + 2.0V

Vhmax= + 3.2V

Electrical incompatibility :

VLmax= +0.59V

VHmin= + 2.32V

CLK13M

Compatibility

MO190=>MO2XX:OK

VLmax= +0.4V

VHmin= + 2.4V

Electrical incompatibility :

VLmax= + 0.59V

VHmin= + 2.32V

CLK32K

VLmax= +0.4V

VHmin= + 1.6V

Electrical incompatibility :

VLmax= + 0.297V

VHmin= + 1.32V

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 29/67

LEDG Imax = 4 mA Electrical level : to be verified

LEDR Imax = 4 mA Electrical level : to be verified

VBAT Vmax = 5V Electrical limitation : Vmax = 4.5V

V56 available Hardware incompatibility : not available

VRIO Current capability sleep mode = 1 mA Electrical limitation :

Current capability sleep mode = 0.5 mA

ADC2 ADC1 Hardware interfacing :

5.7Kohms on MO190

12pF on MO2XX

IO5 New signal

IO6 New signal

IO7 SPRIO =CMDSW1, Imax = 4 mA Electrical limitation : IO7, Imax = 2 mA

TSPACTEXT New signal

STBYCAM New signal

ALIMLCD available Not available

SPI bus Available Not available

Parallel bus (16bit) Available Not available

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 30/67

6. ELECTRICAL SPECIFICATION

VOH High level output voltage

VOL Low level output voltage

VIH High level input voltage

VIL Low level input voltage

6.1 VBAT

The module is supplied through the VBAT signal with the following characteristics:

Parameter Name Min Typ Max

VBAT period (ms) VbatTe (*) 4.614 4.615 DC

VBAT low duration

(us) VbatTi (*) 550 - VBAT period

VBAT rise time (us) VbatTr (*) 0 - -

VBAT fall time (us) VbatTf (*) 0 - -

VBAT maximum

voltage (V) VbatMax (*) - - 4.5

VBAT minimum

voltage (V) VbatMin (*) 3.45 - -

VBAT drop voltage

(mV) DeltaVbat (*) - - 450 (**)

Transient voltage

(V) 3 - -

Noise level (Vrms)

@100MHz-1MHz - - 50mV

(*): cf figure 8.

(**): for a new battery. Of course for an old battery, this value will be higher and will create a reset (without MMI

message) of the modul when the battery begins to be discharged.

Figure 4

VBAT voltage waveform

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 31/67

6.2 VRIO

Signal Min Typ Max Remarks

Voltage level (activ

mode) 2.70V 2.80V 2.90V

Voltage level (sleep

mode) 2.70V 2.80V 3.00V

Current capability

Active mode - - 10mA

Current capability

Sleep mode - - 0.5mA

Rise time -10µs-

6.3 DAI INTERFACE

DAIRST, DAIIN, DAICLK and DAIOUT have the following characteristics:

VL (V) VH (V)Signal

Min Max Min Max

Remarks

DAIRST -0.5 +0.8 +2.03 +3.2

DAICLK -0.5 +0.8 +2.03 +3.2 PD 100K

DAIIN -0.5 +0.8 +2.03 +3.2 PD 100K

DAIOUT - +0.59 +2.32 -

6.4 NETWORK LED

LEDR and LEDG have the following characteristics:

VL (V) VH (V)Signal

Min Max Min Max

Remarks

State after RESET

LEDR (out) - -

To be verified

LEDG (out) - -

To be verified

6.5 SERIAL INTERFACE (µWIRE)

DIMIW, DOMIW, CKMIW, CSMIW1* have the following characteristics:

VL (V) VH (V)Signal

Min Max Min Max

Remarks

DIMIW -0.5 +0.8 +2.03 +3.2 PU 100K

DOMIW - +0.59 +2.32 -

CKMIW - +0.59 +2.32 -

CSMIW1* - +0.59 +2.32 -

6.6 SIM

VL (V) VH (V)Signal

Min Max Min Max

Remarks

State after RESET

SIMRST

SIMCLK

SIMIO

SIMVCC

SIMCD

Fully compliant to the GSM11.11 and

ISO/IEC 7816-3 standards

Fully

compliant to

the GSM11.11

and ISO/IEC

7816-3

standards. PD

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 32/67

6.7 V24 (UART 1)

TXD,RXD,CTS, RTS, DCD, DSR, DTR and RI have the following characteristics:

VL (V) VH (V)

Remarks

State after resetSignal

Min Max Min Max

RTS -0.5 +0.8 +2.03 +3.2

PU 100K

RI - +0.59 +2.32 -

CTS - +0.59 +2.32 -

DSR - +0.59 +2.32 - PD

DCD - +0.59 +2.32 - PU 10K

DTR -0.5 +0.8 +2.03 +3.2

PU 100K

TXD1 - +0.59 +2.32 -

RXD1 -0.5 +0.8 +2.03 +3.2 PU 10K

6.8 UART2

TXD2 and RXD2 have the following characteristics:

VL (V) VH (V)Signal

Min Max Min Max

Remarks

State after RESET

RXD2 -0.5 +0.8 +2.03 +3.2 PU 100K

TXD2 - +0.59 +2.32 -

6.9 DATA / COMMAND MULTIPLEXING

MOD_ESCAPE*_CMD and DTE_ESCAPE*_CMD have the following characteristics:

VL (V) VH (V) Remarks State after resetSignal

Min Max Min Max

MOD_ESCAPE*_CMD

-0.5 +0.8 +2.03 +3.2 ESD

protection

DTE_ESCAPE_CMD - +0.59 +2.32 -ESD

protection

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 33/67

6.10 POWER MANAGEMENT

They have the following characteristics:

VL (V) VH (V)Signal

Min Max Min Max

Remarks State after RESET

MOD_RESET_STATE,

MOD_UART_STATE,

MOD_FLOW_STATE,

MOD_ON_STATE

- +0.59 +2.32 -ESD protection

PD 100K

MOD_ON*_CMD -

0.3*VBAT

0.7*VBAT

- PU

Ton min: 33 ms

DTE_UART*_STATE -0.5 +0.8 +2.03 +3.2 Prog PU

DTE_RESET*_CMD - +0.59 +2.32 -

MOD_OFF*_CMD -0.5 +0.8 +2.03 +3.2 PU

Pulse duration in

functional mode:

77ns min.

6.11 AUDIO SIGNALS

Audio Inputs

Parameter Tests Conditions Min Typ Max Units

Maximum input range

(MICIP-MICIN) Inputs 3 dBm0 (Maximum digital sample

amplitude with PGA gain set to 0dB) 32.5 mVrms

Maximum Input Range

(HSMIC-AUXI)

Inputs 3 dBm0 (Maximum digital sample

amplitude with PGA gain set to 0dB),

HSDIF = 1 32.5 mVrms

Nominal reference level

(MICIP-MICIN) -10 dBm0

Nominal reference level

at (HSMIC-AUXI) HSDIF = 1 -10 dBm0

Differential input

resistance (MICIP-

MICIN) HSDIF = 0 36

Differential input

resistance (HSMIC-

AUXI) HSDIF = 1 36

Micro amplifier gain

(MICIP- MICIN) HSDIF = 0 25.6 dB

Micro amplifier gain

(HSMIC - AUXI) HSDIF = 1 25.6 dB

Audio Outputs

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 34/67

Parameter Tests Conditions

Min Typ Max

Units

Output swing 3.9 Vpp 120

Differential Minimum resistive load

between HPP32 and HPN32 ; R// Output swing 1.5 Vpp 33

Differential Maximum capacitor

load between HPP32 and HPN32;

C//

100

Common mode Minimum resistive

load at HPP32 and HPN32 200 k

Common mode Maximum load at

HPP32 and HPN32

Minimum resistive load at HSOL

and HSOR: R// 32

Maximum capacitor load at HSOL

and HSOR: C//

100

Differential Minimum resistive load

between HPP8 and HPN8: R// Output swing 4.38 Vpp 8

Differential Maximum capacitor

load between HPP8 and HPN8:

C//

100

Common mode Minimum resistive

load at HPP8 and HPN8 200

Common mode Maximum

capacitor load at HPP8 and HPN8

Global Characteristics

Parameter Tests Conditions

Min Typ Max

Units

Distortion ≤3.1 3.92

Earphone Maximum output

swing at HPP32 - HPN32 Distortion ≤

5.34dBm0 1.2 1.5 Vpp

Earphone amplifier gain 1 dB

Headphone Maximum output

swing at (HSOL/R) Distortion ≤1.6 1.96 Vpp

Headphone L/R amplifier gain -5 dB

Distortion ≤

Pout=340mW, SPKG = 0 3.73 4.66

Distortion ≤

Pout=380mW, SPKG = 1, VMIDSEL=1,

VSP input level=-2.5dBm0 3.96 4.95Speaker maximum output at

HPP8 - HPN8

Distortion ≤

Pout=430mW, SPKG = 1, VMIDSEL=1,

VSP input level=-2dBm0 4.2 5.24

Vpp

Speaker amplifier gain SPKG=0

SPKG=1 2.5

8.5 dB

6.12 CHARGER

Charger has the following characteristics:

Parameter Description MIN Max

VCHARGEUR Charger voltage 6V 7V

See details on Application Note

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 35/67

6.13 RESET

MOD_RESET*_CMD is active at low state

It has the following characteristics:

Signal Min Max Remarks

VL (V) - 0.3 VBAT

VH (V) 0.7 VBAT -

Treset (ms) 65 -

Electrical levels TBC

NB: The reset signal resets all the system including backup.

6.14 SPARE IO

IO5, 6, 7 have the following characteristics:

VL (V) VH (V) Remarks State after RESETSignal

Min Max Min Max

Input -0.5 +0.8 +2.03 +3.2

Output - +0.59 +2.32 -

IO 5,6,7: PD

Iout max = 2mA

6.15 CLOCKS

CLK13M and CLK32K have the following characteristics:

VL (V) VH (V)Signal

Min Max Min Max

Remarks

CLK13M - +0.59 +2.32 -

CLK32K - 0,297 1,32 -

6.16 JTAG INTERFACE

TCLK, TMS, TDI, TDODIGIT, TDIANALOG, BSCAN*, EMU0*, EMU1* have the following characteristics:

VL (V) VH (V)Signal

Min Max Min Max

Remarks

TMS, TDI,

TDIANALOG,

BSCAN*

-0.5 +0.8 +2.03 +3.2 PU

TCK -0.5 +0.8 +2.03 +3.2 PD

TDODIGIT,

TDOANALOG, - +0.59 +2.32 -

EMU0*, EMU1* - +0.59 +2.32 - PU

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 36/67

7. ENVIRONMENTAL SPECIFICATION

Parameter Min Max

Ambient temperature

Normal range -10°C +55°C

Ambient temperature

Extended range -20°C +70°C

Storage temperature -40°C +85°C

Long damp heat

Operating conditions Tested at +60°C, 95% RH during 504 hours

Short damp heat

Storage and

transportation conditions

Tested at +40°C, 95% RH during 96 hours

Normal Range, from -10°c to +55°c:

Inside this normal range, full compliance with GSM standards is guaranteed by SAGEM.

Certification tests reports applies to modules operating in this interval.

Extended Range, from -20°c to -10°c and from +55°c to +70°c:

Inside this extended range, the operability is guaranteed by SAGEM. However, there is not a full certification test

report in this range.

Practically, SAGEM performs non regression tests in this range in order to ensure that the module can attach to the

network and handle a call.

Some performances may remain under the normal GSM expectation (sensitivity, RXlev 1 or 2 dB lower, TX

emitting power slightly weaker).

Out of operational range:

No operation is guaranteed by SAGEM out of the operational range. No operating tests are made below -20°c and

above +70°c.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 37/67

8. MECHANICAL SPECIFICATION

8.1 PHYSICAL DIMENSIONS

Figure 10

MO2XX

120

AVX Board to Board connector

JST 2 way stacker assembly

Pad for antenna

connection

Murata

coaxial

connection

Ground area

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 38/67

Figure 11

MO2XX dimensions

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 39/67

Figure 12

MO2XX connection to a mother board

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 40/67

8.2 TERMINAL ASSIGNMENTS

8.2.1. 120 PINS CONNECTOR

8.2.1.1. MO2XX connector

Recommended PC Board Mounting pattern:

Dimensions and references:

Pin Number Reference

120 AVX 10 5604 120 212 829

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 41/67

8.2.1.2. Mother board connector

Recommended PC Board Mounting pattern:

Dimensions and references:

Pin Number References

120 AVX 20 5604 120 222 829

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 42/67

8.2.2. MO2XX ANTENNA CONNECTOR

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 43/67

8.2.3. BATTERY CONNECTOR

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 44/67

ANNEX 1 : IO description

IO name Type Pin N°

DAIRST Digital bi directional buffer (IDI041/OUK431) 116

DAIOUT Digital bi directional buffer (IDI041/OUK431) 115

DAIIN Digital bi directional buffer (IDI041/OUK431). Pull down 117

DAICLK Digital bi directional buffer (IDI041/OUI431). Pull down 118

USL1 Digital input buffer (IDI041/PS0201)

USL2 Digital output buffer (OUK431)

USL3 Digital output buffer (OUI431)

USL4 Digital output buffer (OUK431)

USL5 Digital output buffer (OUK431)

USL6 Digital bi directional buffer (IDG091/OUI431/PE1001)

USL7 Digital bi directional buffer (IDI041/OUI431/PS1001)

USL8 Digital bi directional buffer (IDI041/OUI431/PS1001)

USL9 Digital bi directional buffer (IDI041/OUI431/PS1001)

USL10 Digital bi directional buffer (IDI041/OUI431/PS1001)

MOD_ESCAPE*_CMD Digital bi directional buffer (IDI041/OUI431/PS1001) 18

USL11 Digital bi directional buffer (IDI041/OUI431/PS1001)

USL12 Digital output buffer (OUO431)

DTE_ESCAPE_CMD Digital output buffer (OUI431) 23

MOD_RESET_STATE Digital output buffer (OUI431) 24

MOD_UART_STATE Digital output buffer (OUI431) 25

MOD_FLOW_STATE Digital output buffer (OUI431) 26

MOD_ON_STATE Digital output buffer (OUI431) 27

MOD_ON*_CMD Digital input 113

SIMVCC Power supply output 6

SIMRST Digital output buffer 5

SIMCLK Digital output buffer 4

SIMIO Digital bi directional buffer 7

SIMCD Digital input buffer (IDI091) 114

HSMICIP Analog audio input 52

HSMICIN Analog audio input 53

HSOL Analog audio output 50

HSOR Analog audio output 49

MICIP Analog audio input 63

MICIN Analog audio input 62

HPP32 Analog audio output 46

HPN32 Analog audio output 47

HPP8 Analog audio output 56

HPN8 Analog audio output 57

USL13 Digital bi directional buffer (IDG091/OUI431/PE1001)

RI Digital bi directional buffer (IDG091/OUO431/PS1001) 109

DSR Digital bi directional buffer (IDG091/OUI431/PE1001) 94

DCD Digital output buffer (OUI831) 110

DTR Digital bi directional buffer (IDI091/OUI831) 95

CTS Digital output buffer (OUI831) 82

RTS Digital bi directional buffer (IDI091/OUO431) 83

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 45/67

TXD1 Digital output buffer (OUI831) 101

RXD1 Digital bi directional buffer (IDI091/OUI831) 105

TXD2 Digital output buffer (OUI831) 103

RXD2 Digital input buffer (IDI091) 104

TXIR Digital bi directional buffer (IDI041/OUI831)

RXIR Digital bi directional buffer (IDI091/OUK431)

CMDIRDA Digital output buffer (OUK431)

USL14 Digital bi directional buffer (IDG091/OUI431/PS1001)

USL15 Digital bi directional buffer (IDI091/UOS205)

USL16 Digital bi directional buffer (IDI091/UOS205)

DTE_UART*_STATE Digital bi directional buffer (IDG091/OUI431/PS1001) 92

CHARGEUR Power supply input 69, 70

LEDC Analog output

MOD_RESET*_CMD Digital input 81

MOD_OFF*_CMD Digital bi directional buffer (IDI091/OUI431/PS1001) 76

USL17 Digital bi directional buffer (IDI041/OUI831)

USL18 Digital bi directional buffer (IDI041/OUI831)

USL19 Digital bi directional buffer (IDI041/OUI831)

USL20 Digital bi directional buffer (IDI041/OUI831)

USL21 Digital bi directional buffer (IDI041/OUI831)

USL22 Digital bi directional buffer (IDI041/OUI831)

USL23 Digital bi directional buffer (IDI041/OUI831)

USL24 Digital bi directional buffer (IDI041/OUI831)

USL25 Digital bi directional buffer (IDI041/OUI831)

USL26 Digital bi directional buffer (IDI041/OUI831)

USL27 Digital bi directional buffer (IDI041/OUI831)

USL28 Digital bi directional buffer (IDI041/OUI831)

USL29 Digital bi directional buffer (IDI041/OUI831)

USL30 Digital bi directional buffer (IDI041/OUI831)

USL31 Digital bi directional buffer (IDI041/OUI831)

USL32 Digital bi directional buffer (IDI041/OUI831)

USL33 Digital bi directional buffer (IDI041/OUI831)

USL34 Digital output buffer (OUI831)

USL35 Digital bi directional buffer (IDI041/OUI831)

USL36 Digital bi directional buffer (IDI041/OUI831)

USL37 Digital bi directional buffer (IDI041/OUI831)

USL38 Digital bi directional buffer (IDI041/OUI831)

USL39 Digital bi directional buffer (IDI041/OUI431)

USL40 Digital bi directional buffer (IDI041/OUI431)

USL41 Digital bi directional buffer (IDI041/OUI431)

USL42 Digital bi directional buffer (IDI041/OUI431)

USL43 Digital bi directional buffer (IDI041/OUI431)

USL44 Digital bi directional buffer (IDI041/OUI431)

USL45 Digital bi directional buffer (IDI041/OUI431)

USL46 Digital bi directional buffer (IDI041/OUI431)

USL47 Digital output buffer (OUI431)

USL48 Digital output buffer (OUI431)

USL49 Digital output buffer (OUI431)

USL50 Digital output buffer (OUI431)

USL51 Digital output buffer (OUI431)

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 46/67

DTE_RESET*_CMD Digital output buffer (OUI431) 106

USL52 Digital bi directional buffer (UIS245/UOS181)

USL53 Digital bi directional buffer (UIS245/UOS181)

USL54 Power supply input

USL55 Digital output buffer (OUI831)

USL56 Digital bi directional buffer (IDG091/OUM431/PE0201)

USL57 Digital bi directional buffer (IDG091/OUI831)

USL58 Digital output buffer (IDG091)

USL59 Digital input buffer (OUM431)

USL60 Digital output buffer (OUI431)

USL61 Digital bi directional buffer (IDI041/OUI431)

USL62 Digital bi directional buffer (IDI041/OUI431)

USL63 Digital bi directional buffer (IDI041/OUI431)

USL64 Digital bi directional buffer (IDI041/OUI431)

USL65 Digital bi directional buffer (IDI041/OUI431)

USL66 Digital bi directional buffer (IDI041/OUI431)

USL67 Digital bi directional buffer (IDI041/OUI431)

USL68 Digital bi directional buffer (IDI041/OUI431)

USL69 Digital bi directional buffer (IDG091/OUI431/PE1001)

USL70 Digital bi directional buffer (IDG091/OUI431/PS1001)

USL71 Digital bi directional buffer (IDG091/OUI431/PS1001)

USL72 Digital bi directional buffer (IDG091/OUO431/PS1001)

USL73 Digital bi directional buffer (IDG091/OUI431/PS1001)

USL74 Digital bi directional buffer (IDI091/OUI831/PS1001)

USL75 Digital output buffer (OUI431)

USL76 Digital output buffer (OUI431)

USL77 Digital output buffer (OUI431)

USL78 Digital output buffer (OUI431)

USL79 Digital output buffer (OUI431)

USL80 Digital bi directional buffer (IDI041/OUI431)

USL81 Digital output buffer (OUI431)

USL82 Digital bi directional buffer (IDG091/OUM431/PS0201)

USL83 Digital bi directional buffer (IDG091/OUM431/PS0201)

USL84 Digital bi directional buffer (IDG091/OUM431/PS0201)

USL85 Digital bi directional buffer (IDG091/OUM431/PS0201)

USL86 Digital bi directional buffer (IDG091/OUI431)

USL87 Digital output buffer (OUI431)

USL88 Digital bi directional buffer (IDG091/OUM431/PS1001)

CLK13M Digital bi directional buffer (IDI041/OUI831) 16

CLK32K Digital output buffer (OUK431) 9

ADC2 Analog input 11

USL90 Digital input buffer (IDG091)

USL91 Digital output buffer (OUM431)

USL92 Digital bi directional buffer (IDG091/OUM431)

USL93 Digital bi directional buffer (IDG091/OUM431)

IO5 Digital bi directional buffer (IDG091/OUI431/PE1001) 80

IO6 Digital bi directional buffer (IDG091/OUI431/PE1001) 65

IO7 Digital bi directional buffer (IDG091/OUI431/PS1001) 107

LEDR Digital output buffer (OUI831) 91

LEDG Digital output buffer (OUK431) 90

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 47/67

VBAT Power supply input Bat Con

1,2

VRIO Power supply output 2

VBACKUP Power supply input 12

ANTENNE Analog bi directional HF Ant

TCK Digital input buffer (IDI091/ PE0201) Test point

TMS Digital input buffer (IDI091/ PS0201) Test point

TDIDIGIT Digital input buffer (IDI091/ PS0201) Test point

TDODIGIT Digital bi directional buffer (OUI431) Test point

TDIANALOG Digital bi directional buffer Test point

TDOANALOG Digital bi directional buffer Test point

BSCAN* Digital input buffer (IDI041/ PS0201) Test point

EMU0* Digital bi directional buffer (IDI091/OUO431/PS1001) Test point

EMU1* Digital bi directional buffer (IDI091/OUO431/PS1001) Test point

OUO231 : rated output current = 1mA (with Voh = Vccmin)

OUI431, OUK431, OUO431 :rated output current = 2mA (with Voh = Vccmin)

OUI831, OUK831 : rated output current = 4mA (with Voh = Vccmin)

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 48/67

ANNEX 2 : Hardware power management

Different strategies

The transition of the MO2XX from awake to asleep can be managed in 4 different ways:

• Inhibition by DTE:

The DTE can forbid the MO2XX to go to sleep. But if it is allowed to sleep, it do it when it wants and without

informing the DTE.

This allows a very simple management by the DTE but should be used when the power management is not

a critical issue. In this case, the DTE only handles the ON and OFF states without any requirement.

• Management by DCE alone:

The MO2XX goes to sleep on its own decision and the DTE can't forbid it. The DTE doesn't know the state

of the MO2XX.

This is the most common case because it allows to reduce the module’s consumption without requiring

special treatments on the host side. In this case, the host uses the UART capabilities to wake up on a byte

reception (*).

(*): The first byte may be lost by the module

• Hardware management:

The transition to sleep state is done only when the 2 equipments agree. So each one knows the state of

the other.

This solution allows to switch off the serial link on both side and so to save as much battery life as possible;

it is strongly recommended when the battery life is a critical issue.

Details are given in the following chapters.

1. Interface specification.

1.1 Management by DCE alone.

MO190

DTE

RTS

DTR

MO2XX

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 49/67

When the UART of the MO2XX doesn't detect any activity on the RX input during a certain time, it allows

the MO2XX to switch off the UART when it wants. The DTE doesn't know when the MO2XX switches its

UART off.

If the DTE sends data to the MO2XX when the UART is off, the first character will wake up the DCE and

the first byte may be lost. Another way for the DTE to wake up the MO2XX is to put down its DTR or RTS.

1.2 Inhibition by DTE.

It is the same management as in 1.1 except that as long as the DTE has its DTR active, the MO2XX is

not allowed to switch off the UART anymore.

1.3 Hardware management.

This management uses signals to inform each equipment of the state of the other one. Signals are also

used to request a change of state of the other.

This methods allows to achieve a lower power consumption of the device by switching off the interface

modules as often as possible (i.e. when no communication is needed).

1.3.1. Signals.

There are 5 outputs and 4 inputs used to control the different states:

Output: MOD_ON_STATE, DTE_RESET*_CMD, MOD_UART_STATE, MOD_FLOW_STATE and

MOD_RESET_STATE.

Inputs: MOD_ON*_CMD, MOD_RESET*_CMD, DTE_UART*_STATE, MOD_OFF*_CMD.

As for now, the DTE_RESET*_CMD is not actually controlled by the MO2XX. It is just provided as a

spare in case the DTE needs a reset command from the DCE (very unlikely).

MOD_ON_STATE

MOD_UART_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

MOD_OFF*_CMD

DTE_UART*_STATE

MOD_RESET*_CMD

MOD_ON*_CMD

DTE_RESET*_CMD

MO2xx

DTE

MOD_ON_STATE is active when the MO2XX is ON.

MOD_UART_STATE is inactive when the MO2XX is in deep sleep.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 50/67

MOD_FLOW_STATE is inactive when the MO2XX has nothing to send.

MOD_RESET_STATE is active during the the software reset procedure, but it can not be trusted

during hardware reset.

MOD_OFF*_CMD command the switch off of the MO2XX.

MOD_ON*_CMD command the switch on of the MO2XX.

DTE_UART*_STATE is inactive when the DTE has nothing to send. If MOD_FLOW_STATE is

inactive too, the DTE can switch off its UART.

MOD_RESET*_CMD command the reset of the DCE.

To make an interface with a host, the XS200 power management and hardware multiplexing

signals need to be polarized with pull down or pull up resistors :

Power management inputs :

DTE_UART*_STATE need pull up resistors (100K).

1.3.2. Signals and states.

In these tables as well as in the following chapters, we will consider the logical levels (active,

inactive or either) and not the actual electric one (high, low ...).

• MO2XX modes:

Each state is represented by the combination of MOD_ON_STATE and MOD_UART_STATE

signals.

MOD_ON_STATE

MOD_UART_STATE

MOD_RESET_STATE

OFF Inactive Inactive Inactive

ON Sleep Active Inactive Inactive

ON Active Active Active Inactive

RESET Active Either Active

• DTE modes:

The DCE only needs to know if the serial link of the DTE is active or not. It is represented by the

DTE_UART_STATE signal.

DTE_UART_STATE

OFF Inactive

ON Sleep Inactive

ON Active Active

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 51/67

Logical and electrical levels:

Signal Logical levels Electrical levels

Active Low level

DTE_RESET*_CMD Inactive High level

Active High level

MOD_ON_STATE Inactive Low level

Active High level

MOD_UART_STATE Inactive Low level

Active High level

MOD_FLOW_STATE Inactive Low level

Active High level

MO2XX output

MOD_RESET_STATE Inactive Low level

Active Low level

MOD_OFF*_CMD Inactive High level

Active Low level

MOD_ON*_CMD Inactive High level

Active Low level

DTE_UART*_STATE Inactive High level

Active Low level

MO2XX input

MOD_RESET*_CMD Inactive Low level

1.3.3. Communication protocols.

1.3.3.1. Transition tables.

This table lists the possible transition of the DCE from one state to another and which equipment can

initiate the change.

Initial Final OFF ON Sleep ON Active RESET

OFF Impossible DTE Impossible

ON Sleep DTE DCE/DTE DCE/DTE

ON Active DTE DTE/DCE DCE/DTE

RESET X Impossible X

1.3.3.2. Command signals.

A logical rising edge on MOD_ON_CMD means that the DTE wants the DCE to go ON.

A logical rising edge on MOD_OFF_CMD means that the DTE wants the DCE to go OFF.

A logical falling edge on DTE_UART_STATE means that the DTE has nothing to send yet.

A logical falling edge on MOD_FLOW_STATE means that the DCE has nothing to send yet.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 52/67

1.3.3.3. Transition from OFF to ON Active.

This transition is only possible by a command from the DTE (the MO2XX never switches off by

itself).

Levels shown on the diagram are logical levels (active, inactive, either)

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

1.3.3.4. Transition from ON Active to ON Sleep.

This transition can be initiated by DCE or DTE.

When an equipment has nothing to send any more, it informs the other. If the other equipment has

nothing to transmit too, they can go to SLEEP state.

The UART of both the equipment's can switch off only when DTE_UART_STATE and

MOD_FLOW_STATE are inactive.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 53/67

1.3.3.4.1. Initiated by DTE.

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

UART is OFF

MOD_RESET_STATE

state 1

state 2

This transition show 2 transitory states.

During transitory states 1 and 2, the DTE can't send data. If it has to, it must put DTE_UART_STATE

up first.

During transitory state 1, the DTE can receive data and the DCE can send data: there's no problem

for DCE to emit.

During transitory state 2, the DCE can't send data and the DTE can't receive data. So if the DCE

wants to emit, it must put MOD_FLOW_STATE up first.

The state 2 can be long.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 54/67

1.3.3.4.2. Initiated by DCE.

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

UART is OFF

state 3

state 2

This transition show 2 transitory states.

During transitory states 2 and 3, the DCE can't send data:

• If it has to during state 2 it must put MOD_FLOW_STATE up (cf. 2.2.3.3.4.3.a) to wake up the

DTE.

• If it has to during state 3 it has to wait for the falling edge of DTE_UART_STATE and then it is

state 2.

During transitory state 3, the DCE can receive data and the DTE can send data: there's no problem

for DTE to emit.

During transitory state 2, the DTE can't send data and the DCE can receive data. So if the DTE

wants to emit, it has just to put DTE_UART_STATE up (cf. 2.2.3.3.4.3.b).

The state 2 can be long.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 55/67

1.3.3.4.3. Transitory states.

a) DTE has data to send:

This case can happen in transitory state 1 and state 2.

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

b) DCE has data to send:

This case can happen in transitory state 2.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 56/67

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

1.3.3.5. Transition from ON Sleep to ON Active.

This transition can be initiated by both the DTE and the DCE.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 57/67

1.3.3.5.1. Initiated by the DCE.

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

1.3.3.5.2. Initiated by DTE.

The DCE can react on the rising edge of the DTE_UART_STATE signal or on the reception of a

character which will be lost. It is only used to wake up the MO2XX.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 58/67

This character is

not mandatory

and will be lost

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

1.3.3.6. Transition from ON Sleep to OFF.

This transition is only possible by a command from the DTE (the MO2XX never switches off by

itself).

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 59/67

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

1.3.3.7. Transition from ON Active to OFF.

This transition is very unlikely but still theoretically possible.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 60/67

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

Another solution to switch off the MO2XX is the AT command AT+CPOF:

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 61/67

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

AT+CPOF

1.3.3.8. Reset

There are 2 possibilities :

• The MO2XX reboots by itself for a major internal problem and warns the DTE of this operation. In

this case, the MO2XX moves the MOD_RESET_STATE signal to Active. At the end of the reset

operation, the MO2XX deactivate this signal and its current state is ON Active.

• The DTE orders the MO2XX to reset. In this case, the DTE moves the MOD_RESET_CMD signal

to initiate the process.

The latest data sent by the DTE should be considered as lost and resent to the MO2XX if need be.

This transition is possible whatever the states of the DCE and the DTE.

At the end of the RESET, the DTE and the DCE are always ON.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 62/67

1.3.3.8.1. Initiated by the DCE.

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

RESET

MOD_UART_STATE

MOD_ON_STATE

MOD_FLOW_STATE

MOD_RESET_STATE

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 63/67

1.3.3.8.2. Initiated by the DTE.

MOD_ON_CMD

MOD_OFF_CMD

DTE_UART_STATE

MOD_RESET_CMD

RESET

MOD_UART_STATE

MOD_ON_STATE

MOD_RESET_STATE

MOD_FLOW_STATE

1.3.3.9. Timeout.

If a command has no effect on the other equipment, it must be requested again after a one second

timeout. The maximum number of requests is 5 and then a reset procedure of the DCE must be

initiated by the DTE.

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 64/67

ANNEX 3 : Data/Command hardware multiplexing

1. Hardware multiplexing

1.1. External interfaces

In the first set (hardware MUX), we need to use two hardware signals (MOD_ESCAPE*_CMD and

DTE_ESCAPE_CMD) and the full serial link V24.

In the second set, we only need to use the full V24.

To make an interface with a host, the MO2xx hardware multiplexing signals need no added hardware.

1.2. Capability requirements

1.2.1. Logical and electrical levels

Signal Logical levels Electrical levels

Active High level

MO2xx output DTE_ESCAPE_CMD Inactive Low level

Active Low level

MO2xx input MOD_ESCAPE*_CMD Inactive High level

1.2.2. Hardware protocol

SET_2 :

We switch between DATA and

COMMAND

MUX

V24

reception

emission

COMMAND

DATA

Hardware management:

DTE_ESCAPE_CMD and

MOD_ESCAPE_CMD

Software management:

Escape strings detection

In the paragraphs below only the logical signals are considered

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 65/67

1.2.3. State diagram

1.2.4. Transition (1): Command -> Data

The data connection is established when the PDA receives the “CONNECT: <speed>” message

from the SB.

CONNECT:9600

Modem Tx

Command mode

Data mode

Remark:

The Connect message is different between voice call, a classical data connection, a GPRS data connection

and a fax call, so it is necessary to treat the entire message to separate the data and voice calls.

1.2.5. Transition (2): Data -> Suspended Data

The modem or the DTE can request this transition, so it is necessary to distinguish two cases.

1st case: the DTE orders the modem to go in the suspended data mode

1. The DTE indicates the order by moving MOD_ESCAPE*_CMD and then begins to search in the data flow the

MOD_ESCAPE_STR from the modem.

2. When the modem is ready, it sends the MOD_ESCAPE_STR string and it wait for DTE_ESCAPE_STR.

3. When receiving this string, the DTE then move back MOD_ESCAPE*_CMD and sends the

DTE_ESCAPE_STR, which indicates to the modem every byte after that must be considered as part as an AT

Command

Modem Tx

DTE_ESCAPE_CMD

DTE Tx

MOD_ESCAPE_CMD

MOD_ESCAPE_STR

DATA

COMMAND

DATA

DTE_ESCAPE_STR

COMMAND

Wait for

DTE_ESCAPE_STR

DTE : MOD_ESCAPE*_CMD

Modem : DTE_ESCAPE_CMD

Already implemented

COMMAND

DATA

SUSPENDED

DATA

DTE : +++

DTE : ATO

DTE : ATH

Modem : NO CARRIER

To be defined

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 66/67

Remarks:

• DTE_ESCAPE_CMD = MOD_ESCAPE_CMD = {0x18,0x7E,0xDB,0xFF}, this string could be change by

AT command in the future.

• These two strings are the effective separation between the data flow and the command flow

2nd case: the modem requests the DTE to go in the suspended data mode

1. The modem indicates the request by moving DTE_ESCAPE_CMD.

2. The DTE indicates the order by moving MOD_ESCAPE*_CMD and then begins to search in the data flow the

MOD_ESCAPE_STR from the modem.

3. When the modem is ready, it sends the MOD_ESCAPE_STR string and it wait for DTE_ESCAPE_STR.

4. When receiving this string, the DTE then move back MOD_ESCAPE*_CMD and sends the

DTE_ESCAPE_STR, which indicates to the modem every byte after that must be considered as part as an AT

Command

Modem Tx

DTE_ESCAPE_CMD

DTE Tx

MOD_ESCAPE_CMD

MOD_ESCAPE_STR

DATA

DTE_ESCAPE_STR

COMMAND

Wait for

DTE_ESCAPE_STR

1.2.6. Transition (3): Suspended Data -> Data Mode

This transition is always ordered by the PDA via the classical ATO command.

The SB acknowledges with the CONNECT message

Modem Tx

DTE Tx

DATA

COMMAND

ATO

DATA

COMMAND

CONNECT:9600

1.2.7. Transition (4): Suspended Data -> Command Mode

The theoretical transition is Data to Command and happens to end a data connection; the

Suspended Data Mode is just a temporary transition between the two.

The real procedure is Data to Suspended Data (already detailed in transition 2) and then Suspended Data

to Command Mode.

There are two different cases:

• Or the distant can hang up and then the modem is going to send a “NO CARRIER” message

Modem Tx

COMMAND

NO CARRIER

COMMAND

Suspended data mode

Command mode

• Or the DTE wants to hang up and then an ATH is sent and the transition has to be made on the answer

to this command (OK)

Ref : SCT TMO MOD SPEC 662

Rev.: B

Ref. sec. :

Date: 18/11/2004

Document . All rights of reproduction and disclosure reserved.

MO2XX module – Confidential under NDA Page 67/67

Modem Tx

DTE Tx

COMMAND

ATH

COMMAND

Suspended data mode

Command mode

1.2.8. Timeout case

If modem didn’t receive the DTE_ESCAPE_STR after a timeout (2s), it send again his

MOD_ESCAPE_STR and wait for DTE_ESCAPE_STR as long as the MOD_ESCAPE*_CMD signal

is active. After 3 retry, module closes the MUX mechanism.

Modem Tx

DTE_ESCAPE_CMD

DTE Tx

MOD_ESCAPE_CMD

MOD_ESCAPE_STR

DATA

COMMAND

DATA

DTE_ESCAPE_STR

COMMAND

Time out

MOD_ESCAPE_STR

Wait for

DTE_ESCAPE_STR

Remarks:

If MOD_ESCAPE_CMD returns in inactive mode and the escape string hasn’t been received by the

modem, we have to resume the data connection.

---

END OF DOCUMENT

---

Sagem Wireless 95MASV3C GSM 850/900/1800/1900 Module User Manual OEM Installation Instruction

Sagem Wireless GSM 850/900/1800/1900 Module OEM Installation Instruction

OEM Installation Instruction

Navigation menu

Namespaces

Views

Navigation