This document describes the electronic specifications, RF specifications, interfaces, mechanical characteristics and testing results of the SIMCom module. With the help of this document and other related software application notes/user guides, users can understand and use the modules to design and develop applications quickly.

1.1 Product Outline

Aimed at the global market, the module support GSM, WCDMA, LTE-TDD and LTE-FDD. Users can choose the module according to the wireless network configuration. The supported radio frequency bands are described in the following table

Table 1: Module Frequency Bands

Standard

GSM

WCDMA

LTE-FDD

LTE-TDD

Frequency bands

B20

850MHz

900MHz

1800MHz

1900MHz

B28

B66

B34

A7602E-H-PCIE



Module

A7608SA-H-PCIE



 www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

 

GNSS

Aux ANT

B38

B39

B40

B41

1.2 Hardware Interface Overview



CAT4

Optional



CAT4

Optional

The module provides vari ous hardware interfaces via Mini PCIExpress card connector.

●

Power Supply

PERST#

W_DISABLE#

LED_WWAN#

USB Interface

USIM Interface

UART Interface

I 2 C Interface

PCM Interface

Analog Audio Interface www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

1.3 Hardware Block Diagram

The following figure is module’s hardware block diagram.

Figure 1: Block Diagram

1.4 Functional Overview

Table 2: Key Features

Feature

Power supply

Radio frequency bands

Transmitting power

Implementation

Single supply voltage 3.1V~3.6V (3.3V typical)

Please refer to the Table 1

GSM/GPRS power class:

--GSM850: 4 (2W)

--EGSM900: 4 (2W)

--DCS1800: 1 (1W)

--PCS1900: 1 (1W) www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Data Transmission

Throughput

EDGE power class:

--GSM850: E2 (0.5W)

--EGSM900: E2 (0.5W)

--DCS1800: E1 (0.4W)

--PCS1900: E1 (0.4W)

UMTS power class:

--WCDMA :3 (0.25W)

LTE power class: 3 (0.25W)

GPRS multi-slot class 12

EDGE multi-slot class 12

UMTS R99 speed: 384 kbps DL/UL

HSPA+: 5.76 Mbps(UL), 42 Mbps(DL)

HSDPA/HSUPA: 2.2 Mbps(UL), 2.8 Mbps(DL)

LTE-FDD CAT4 ： 150 Mbps (DL),50 Mbps (UL)

LTE-TDD CAT4 ： 130 Mbps (DL),35 Mbps (UL)

Antenna

GNSS

SMS

GSM/UMTS/LTE main antenna.

UMTS/LTE auxiliary antenna

GNSS antenna

GNSS engine (GPS, BD and GLONASS*)

Protocol: NMEA

MT, MO, CB, Text and PDU mode

SMS storage: USIM card or ME(default)

Transmission of SMS alternatively over CS or PS

USIM interface Support identity card: 1.8V/ 3V

Support SAT class 3, GSM 11.14 Release 98

USIM application toolkit

Support USAT

Phonebook management Support phonebook types: DC,MC,RC,SM,ME,FD,ON,LD,EN

Audio feature

UART interface

USB

Support one analog signal output with 32Ω load resistance,50mW output power, and one analog input.

MAIN UART:

A full modem serial port by default

Baud rate: 9600 bps to 3.6Mbps(default:115200 bps)

Can be used as the AT commands or data stream channel

Support RTS/CTS hardware handshake

Multiplex ability according to GSM 07.10 Multiplexer Protocol

USB 2.0 high speed interface

Firmware upgrade

Physical characteristics

Temperature range

Firmware upgrade over USB interface

Size: 50.80*31*3.6mm

Weight: less than 15g

Normal operation temperature: -30°C to +80°C

Extended operation temperature: -40°C to +85°C*

Storage temperature -45°C to +90°C www.simcom.com

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NOTE

Module is able to make and receive voice calls, data calls, SMS and make

GPRS/WCDMA/HSPA+/LTE traffic in -40 ℃ ~+85 ℃ . The performance will reduce slightly from the

3GPP specifications if the temperature is outside of the normal operating temperature and still within the extreme operating temperature.

GLONASS* ： Indicthe function of this module is under development www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

2 Package Information

2.1 Pin Out Diagram

Figure 2: Pin out Diagram www.simcom.com

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2.2 Schematic diagram of module cooling design

Figure 3: Schematic diagram of thermal design

2.3 PCI Express Mini Card Connector Pin Description

Table 3: Electric Feature

Power domain

P5,P8

Symbol

1.8 V

VOH

VOL

VIH

VIL

Rpu

Rpd

1.8 V

VOH

VOL

VIH

VIL

Rpu

Rpd

3.0 V

VOH

Description

Output high

Output low

Input high

Input low

Pull-up resiter

Pull-down resiter

Output high

Output low

Input high

Input low

Pull-up resiter

Pull-down resiter

Output high

Min

1.6 V

0 V

1.26 V

-0.3 V

55 K Ω

51 K Ω

1.6 V

0 V

1.26 V

-0.3 V

55 K Ω

51 K Ω

2.4 V

Typ

1.8 V

0 V

79 K Ω

87 K Ω

1.8 V

79 K Ω

87 K Ω www.simcom.com

Max

1.8 V

0.2 V

2.0 V

0.54 V

121 K Ω

169 K Ω

1.8 V

0.2 V

2.0 V

0.54 V

121 K Ω

169 K Ω

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Table 4: PCI Express Mini Card Connector Pin Description

Pin name

Power supply

VCC

GND

AGND

Reset

Pin No

2,24,39,41,52

15,18,21,26,27,

29,34,35,37,40,

43,50

4,9

Power

Domain

Defalt

Stats

Description Comment

Power supply for module 3.3V typical

Ground

Analog ground

PERST#

USB 2.0

USB_DP

USB_DN

DI,PU

AIO

Reset input (Active low)

USB 2.0 high speed port for data transfer, voice call, debug and FW download, etc.

If unused, keep open.

USIM card interface

USIM_VDD 8

USIM_DATA 10

DIO,PU

Power output for USIM card, its output Voltage depends on USIM card type automatically. Its output current is up to

50mA.

USIM Card data I/O, which has been pulled up via a 100KR resistor to USIM_VDD internally.

Do not pull it up or down externally.

USIM clock.

USIM_CLK 12

DO,PU

DO,PU USIM Reset.

DI,PU USIM card detect.

Make sure the rise time and fall time of USIM_CLK less than 40ns

USIM_RST

USIM_DET

PCM interface

PCM_CLK

PCM_OUT

PCM_IN

PCM_SYNC

UART interface

DO,PD PCM data bit clock.

DO,PD PCM data output

DI,PD

DO,PU

PCM data input

PCM data frame sync signal.

If these pins are unused, keep open.

www.simcom.com

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UART_CTS

UART_RTS

UART_RXD

UART_TXD

UART_RI

UART_DTR

I 2 C interface

SCL

SDA

Analog Audio

MICP

MICN

EARP

EARN

Others

W_DISABLE

LED_WWAN# 42

6,23,25,28,31,3

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

DI,PU

DO,PU

DI,PU

DO,PU

DI,PU

Clear to Send

Request to send

Receive Data

Transmit Data

Ring Indicator

DTE get ready

If unused, keep open

OD,PU I 2

C clock output

C data input/output

Pulled up inside the module;

If unused, keep open

1.8V interface

MIC positive input

MIC negative input

Receiver positive output

Receiver negative output

If unused, keep open.

DI,PD

Flightmode Control

DO,PD Network Status

Indication output

No connection

If unused, keep open.

Keep open www.simcom.com

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2.4 Package Dimensions

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

www.simcom.com

Figure 4: Dimensions of module (Unit: mm)

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

3 Interface Application

3.1 Power Supply

The recommended power supply voltage of module is 3.3V.

The module would be auto power on when the 3.3V appears, and customer should remove the 3.3V to power off the module. So, when customer design the power circuit, make sure the main power is controlled by host.

Table 5: Recommended 3.3V Power Supply Characteristics

Symbol

V o

I o

Parameter

Power supply voltage

Supply current capability

Min

3.1

Type

3.3

2500

Max

3.6

Unit

V mA

3.2 PERST#

The module can be reset by pulling the PERST# pin down to ground. The PERST# pin has been pulled up with a resistor to VCC internally, so there is no need to pull it up externally. It is strongly recommended to put a 100nF capacitor and an ESD protection diode close to the PERST# pin. Please refer to the following figure for the recommended reference circuit.

www.simcom.com

Figure 5: PERST# Reference Circuit

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Table 6: PERST# Pin Electronic Characteristic

Symbol

T reset

Description

The active low level time impulse on

PERST# pin to reset module

Input high level voltage

Input low level voltage

Min.

500

Typ.

1000

0.7*VCC VCC

-0.3

Max.

2000

Unit

VCC+0.3 V

0.5

3.3 W_DISABLE#

The W_DISABLE# pin can be used to control the module to enter or exit the Flight mode. In Flight mode, the RF circuit is closed to prevent interference with other equipment and minimize current consumption.

Table 7: W_DISABLE# Pin Status

W_DISABLE# status

Input Low Level

Input High Level

Module operation

Flight Mode: RF is closed.

The module mode depends on AT+CFUN command:

AT+CFUN=1: RF is working.

AT+CFUN=4: RF is closed.

www.simcom.com

Figure 6: W_DISABLE# Reference Circuit

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Table 8: W_DISABLE# Pin Electrical Characteristic

Symbol

Parameter

High-level input voltage

Low-level input voltage

Min

1.17

-0.3

Type

1.8

Max

4.4

0.3

Unit

3.4 LED_WWAN#

The LED_WWAN# pin can be used to drive a network status indication LED by default. Its status is listed in the following table.

Table 9: Network Status Indication LED Status

LED Status

Always On

200ms ON, 200ms OFF

800ms ON, 800ms OFF

OFF

Module Status

Searching Network; Call Connect(include VOLTE,SRLTE)

Data Transmit; 4G registered;

2G/3G registered network

Power off; Sleep

NOTE

NETLIGHT output low level as “OFF”, and high level as “ON”.

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Reference circuit is recommended in the following figure:

Figure 7: LED_WWAN# Reference Circuit

NOTE

The current input the LED_WWAN# should less than 50mA.The value of R should be selected by the

LED character, usually the value is 1K ohm or larger.

3.5 USB Interface

The module is compliant with USB 2.0 specification. It supports full-speed and high- speed when acting as a peripheral device, but the USB charging function is not supported.

The module can be used as a USB device. Module supports the USB suspend and resume mechanism which can reduce power consumption. If there is no data transmission on the USB bus, Module will enter suspend mode automatically, and will be resumed by some events such as voice call or receiving SMS, etc.

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Figure 8: USB Reference Circuit

Because of the high bit rate on USB bus, please pay more attention to the influence of the junction capacitance of the ESD component on USB data lines. Typically, the capacitance should be less than 1pF. It is recommended to use an ESD protection component such as ESD5302N-3 or WE05MUC.

NOTE

1. The USB_DN and USB_DP nets must be traced by 90Ohm+/-10% differential impedance.

The module has two kinds of interface (UART and USB) to connect to host CPU. For example, on windows XP operating system, USB interface is mapped to 4virtual ports: “SimTech HS-USB Audio

9001”, “SimTech HS-USB AT port 9001”, “SimTech HS-USB Diagnostics 9001”, “SimTech HS-USB

NMEA 9001”.

3. It is suggested to reserved test point.

www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

3.6 USIM Interface

USIM interface complies with the GSM Phase 1 specification and the new GSM Phase 2+ specification for

FAST 64 kbps USIM card. Both 1.8V and 3.0V USIM card are supported. USIM interface is powered from an internal regulator in the module.

If the customer uses the SIM card on the module, another SIM card is not supported, choose one of the two

Table 10: USIM Electronic characteristic in 1.8V mode (USIM_VDD =1.8V)

Symbol

USIM_VDD

Parameter

LDO power output voltage

High-level input voltage

Low-level input voltage

High-level output voltage

Low-level output voltage

Min.

1.75

0.65*USIM_VDD -

-0.3

USIM_VDD -0.45

0 0

Typ. Max.

1.8

1.95

USIM_VDD +0.3 V

0.35*USIM_VDD V

USIM_VDD

0.45

Unit

Parameter

LDO power output voltage

High-level input voltage

Low-level input voltage

High-level output voltage

Low-level output voltage

Typ.

Max.

3.0

3.3

USIM_VDD +0.3 V

0.25·USIM_VDD V

Unit

USIM_VDD

0.45

It is recommended to use an ESD protection component such as ST ( www.st.com

) ESDA6V-5W6. Note that the USIM peripheral circuit should be close to the USIM card socket. For more details of AT commands about USIM, please refer to document [1].

The USIM_DET pin is used for detection of the USIM card hot plug. User can select the 8-pin USIM card holder to implement USIM card detection function.

USIM_DET has been pulled up to 1.8V inside module; www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Figure 9: USIM interface reference circuit with detection function

If the USIM card detection function is not used, user can keep the USIM_DET pin open. The reference circuit of 6-pin USIM card holder is illustrated in the following figure.

Figure 10: USIM interface reference circuit

NOTE

USIM_DATA has been pulled up with a 10KΩ resistor to USIM_VDD in module. A 100nF capacitor on USIM_VDD is used to reduce interference.

2. For more details of AT commands about USIM, please refer to document [1]. USIM_CLK is very important signal, the rise time and fall time of USIM_CLK should be less than 40ns, otherwise the USIM card might not be initialized correctly.

3. The recommend TVS is ESD9B5.0ST5G and AZ5315-02F.

3.7 UART Interface

The module provides one MAIN UART interface.

 MAIN UART : Module provides a 7-wire UART (universal asynchronous serial transmission) interface as

DCE (Data Communication Equipment). AT commands and data transmission can be performed through UART interface.

Default baud rate: 115200bps www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

3.7.1

MAIN UART Design Guide

The application circuit is in the following figures.

Figure 11: UART Full modem

Figure 12: UART Null modem

Table 12: UART Electrical Characteristic

Symbol

Parameter

High-level input voltage

Low-level input voltage

High-level output voltage

Low-level output voltage

Min Typ

1.17

1.8

-0.3

1.35

1.8

0 0

Max Unit

2.1

0.63

1.8

0.45

V www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

The module’s UART is 1.8V interface. A level shifter should be used if user’s application is equipped with a

3.3V UART interface. The level shifter TXB0108RGYR provided by Texas Instruments is recommended.

The reference design of the TXB0108RGYR is in the following figures.

Figure 13: Reference circuit of level shift customers can use another level shifter circuits as follow

Figure 14: TX level matching circuit www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Figure 15: RX level matching circuit

To comply with RS-232-C protocol, the RS-232-C level shifter chip should be used to connect the module to the RS-232-C interface. In this connection, the TTL level and RS-232-C level are converted mutually.

SIMCom recommends that user uses the SP3238ECA chip with a full modem. For more information please refers to the RS-232-C chip datasheet.

NOTE

1. User need to use high speed transistors such as MMBT3904.

2. MAIN UART supports the following baud rates: 9600, 19200, 38400, 57600, 115200, 230400,

460800, 921600, 1843200, 3686400 bps. The default band rate is 115200 bps.

3.7.2 RI and DTR Behavior

The RI pin can be used to interrupt output signal to inform the host controller such as application CPU.

Normally RI will keep high level until certain conditions such as receiving SMS, or a URC report coming, and then it will change to low level.

www.simcom.com

Figure 16: RI Behaviour （ SMS and URC report ）

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Normally RI will be kept at a high level until a voice call, then it will output periodic rectangular wave with

5900 ms low level and 100ms high level. It will output this kind of periodic rectangular wave until the call is answered or hung up.

Figure 17: RI Behaviour （ Voice Call ）

NOTE

For more details of AT commands about UART, please refer to document [1] .

3.7.3

DTR function

After sending the sleep command, pull up DTR, close the serial port, and unload the corresponding bus device on the PC side at the same time, and the module enters sleep ； After the module sleeps, it can be awakened by pulling down DTR.

3.8 I2C Interface

The module provides I 2 C interface compatible with I 2 C specification, with clock rate up to 400 kbps. Its operation voltage is 1.8V.

The following figure shows the I 2 C bus reference design.

www.simcom.com

Figure 18: I2C Reference Circuit

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

NOTE

SDA and SCL are pulled up to 1.8V via 2.2K resistors in module. So external pull up resistors are not needed in application circuit. For more details about I 2 C AT commands please refer to document [1].

Table 13: I2C Electrical Characteristic

Symbol

Parameter

High-level input voltage

Low-level input voltage

High-level output voltage

Low-level output voltage

Min Typ

1.17

1.8

-0.3

1.35

1.8

0 0

Max Unit

2.1

0.63

1.8

0.45

3.9 PCM

PCM interface can be used in short sync master mode only, and only supports 16 bits linear format

Table 14: PCM Specification

Characteristics

Line Interface Format

Data length

PCM Clock/Sync Source

PCM Clock Rate

PCM Sync Format

Data Ordering

Specification

Linear (Fixed)

16bits (Fixed)

Master Mode (Fixed)

2048kHz （ 2G/3G ） ,4096Khz (4G

Short sync (Fixed)

MSB

NOTE

PCM interface can be control by AT command. For more details, please refer to document [1] www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Table 15: PCM DC Characteristics

Symbol Parameter

Min

High-level input voltage 1.17

Low-level input voltage -0.3

High-level output voltage 1.35

Low-level output voltage 0

Typ

1.8

0

1.8

0 Max

2.1

0.63

1.8

0.45 V

Unit

V

NOTE

The remaining functions are to be developed.

3.10 Analog Audio Interface

MICP/N is used as microphone input; EARP/N is used as audio output.

Table 16: MIC input characteristics

Parameter

Mic biasing voltage

Working Current

External Microphone Load Resistance

Min

1.2

Typ

1.80

2.2

Max

Unit

V mA

KΩ

Table 17: Audio output characteristics

Parameter

Load resistance

Output power

Min

Typ

50 -

Max Unit

Ω mW

GSM signals can interfere with audio through coupling and conduction. Users can filter out coupling interference by adding 33pF and 10pF capacitors to the audio path. The 33pF capacitor mainly filters out the interference in the GSM900 frequency band, and the 10pF capacitor mainly filters out the interference in the DCS1800 frequency band. The coupling interference of TDD has a lot to do with the user's PCB design.

In some cases, the TDD in the 900 frequency band is more serious, and in some cases, the TDD interference in the 1800 frequency band is serious. Therefore, users can select the required filter capacitors according to the actual test results, and sometimes even do not need to paste filter capacitors.

The GSM antenna is the main source of coupling interference for TDD, so users should pay attention to keeping the audio trace away from the RF antenna and VBAT during PCB layout and routing. It is best to place a set of audio filter capacitors close to the module end, and another set close to the interface end. The audio output should be routed according to the differential signal rules.

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

The conducted interference is mainly caused by the voltage drop of VBAT. If the Audio PA is directly powered by VBAT, it is easier to hear the "squeak" sound at the output end of the SPK. Therefore, it is best to connect the input end of the Audio PA in parallel in the schematic design. Some bulk capacitors and ferrite beads in series.

TDD and GND are also closely related. If the GND is not handled properly, many high-frequency interference signals will interfere with the MIC and Speaker through bypass capacitors and other devices.

Therefore, it is very important for the user to ensure the good performance of the GND during the PCB design stage.

Figure 19: Receiver interface configuration

Figure 20: Microphone interface configuration

NOTE

1. Module has integrated MIC bias circuit. There is no need to pull the MICP and MICN up to the external power, just connect it to microphone. MICP and MICN must be differential lines.

2. The recommend TVS is ESD9X5V-2 or ESD9B5.0ST5G.

www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

3.11 GNSS Control Interface

The GNSS function is optional.

3.11.1

GNSS control

If you only want to enable/disable GNSS control, please execute AT+CGNSSPWR=1 or

AT+CGNSSPWR=0.

When using AP_Flash fast hot start mode, you need to execute AT+CGNSSPWR=0,1 to store the positioning data in the module after the GNSS is set to the upper position for the first time. When

AT+CGNSSPWR=1,1 is executed next time, the positioning data will be loaded into GNSS again.

In ASR1601, this command can only control the GNSS module by pulling up/down the power pin.

Table 18: VGNSS AT control command

AT+CGNSSPWR GNSS power control

Test Command

AT+CGNSSPWR=?

Response

+CGNSSPWR: (0,1)

Read Command

AT+CGNSSPWR?

Response

+CGNSSPWR: 0/1

Write Command

AT+CGNSSPWR=<on/off>

Response

1)If successfully:

2)If failed:

ERROR

Defined Values

<on/off> 0 Close GPS

1 Active GPS

3.12 Test point

3.12.1

DEBUG_UART

The module has reserved test points. Used for log output. Default baud rate: 115200 bps.

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Figure 21: DEBUG_UART

3.12.2

USB_BOOT

Before the module is powered on, USB_BOOT is pulled down to GND, and then powered on, the system will enter the download mode.

Figure 22: USB_BOOT

Table 19: Audio output characteristics

Test point name

USB_BOOT

I/O

Power domain

1.8 V

Default status

B-PU

Index

If the module download failed, then customer can make module enter download mode via this Pin.

Before the module power on, pull the USB_BOOT to ground ， then push the PWRKEY to power on module, when the module enter download mode, the pull down should be removed.

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Figure 23: USB_BOOT Circuit

4 RF Specifications

4.1 GSM/WCDMA/LTE

Table 20: Conducted transmission power

Frequency

GSM850

EGSM900

DCS1800

PCS1900

GSM850 (8-PSK)

EGSM900 (8-PSK)

DCS1800 (8-PSK)

PCS1900 (8-PSK)

WCDMA B1

WCDMA B2

WCDMA B5

WCDMA B8

Power

33dBm ±2dB

30dBm ±2dB

27dBm ±3dB

26dBm +3/-4dB

24dBm +1/-3dB

24dBm + 1/-3dB www.simcom.com

Min.

5dBm ± 5dB

0dBm ± 5dB

5dBm ± 5dB

0dBm ±5dB

<-50dBm

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Frequency

GSM850

EGSM900

DCS1800

PCS1900

WCDMA B1

WCDMA B2

WCDMA B5

WCDMA B8

GPS

GLONASS

LTE-FDD B1

LTE-FDD B2

LTE-FDD B3

LTE-FDD B4

LTE-FDD B5

LTE-FDD B7

LTE-FDD B8

LTE-FDD B20

LTE-FDD B28

LTE-FDD B66

LTE-TDD B34

LTE-TDD B38

LTE-TDD B39

LTE-TDD B40

LTE-TDD B41

Table 21: Operating frequencies

23dBm +/-2.7dB

Receiving

869 ～ 894MHz

925 ～ 960MHz

1805 ～ 1880 MHz

1930~1990 MHz

2110 ～ 2170 MHz

1930~1990 MHz

869 ～ 894 MHz

925 ～ 960 MHz

1574.4

～ 1576.44 MHz

1598 ～ 1606 MHz

1559 ～ 1563 MHz

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

<-40dBm

Transmission

824 ～ 849 MHz

880 ～ 915 MHz

1710 ～ 1785 MHz

1850~1910 MHz

1920 ～ 1980 MHz

1850~1910 MHz

824 ～ 849 MHz

880 ～ 915 MHz

NOTE

The LTE Operating frequencies are shown in the following Table 20.

Table 22: E-UTRA operating bands

E-UTRA

Operating

Band

www.simcom.com

Duplex

Mode

35 / 63

1920 ~1980 MHz

1850~1910 MHz

1710 ~1785 MHz

1710~1755MHz

824 ～ 849 MHz

2500~2570MHz

880 ~915 MHz

832~862MHz

703~748MHz

1710~1780MHz

2010~2025MHz

2570 ~2620 MHz

1880~1920MHz

2300 ~2400 MHz

2496~2690 MHz

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

2110 ~2170 MHz

1930~1990 MHz

1805 ~1880 MHz

2110~2155MHz

869 ～ 894MHz

2620~2690MHz

925 ~960 MHz

791~ 821MHz

758~803MHz

2110~2200MHz

2010~2025MHz

2570 ~2620 MHz

1880~1920MHz

2300 ~2400 MHz

2496~2690 MHz

FDD

TDD

FDD

Table 23: Conducted receive sensitivity

Frequency

GSM850

EGSM900

DCS1800

PCS1900

WCDMA B1

WCDMA B2

WCDMA B5

WCDMA B8

LTE FDD/TDD

Receive sensitivity(Typical)

< -109dBm

< -110dBm

See table 22.

Receive sensitivity(MAX)

3GPP

Table 24: Reference sensitivity (QPSK)

E-UTR

A band

FDD B1

1.4 MHz

FDD B2 -102.7

3 MHz

-99.7

FDD B3 -101.7

-98.7

FDD B4 -104.7

-101.7

FDD B5 -103.2

-100.2

FDD B7

FDD B8 -102.2

-99.2

3GPP standard

5 MHz 10 MHz

-100

-98

-97

-100

-98

-97

-95

-94

-97

-95

-94

5 MHz

-95.2

-93.2

-92.2

-95.2

-93.2

www.simcom.com

15 MHz 20 MHz

-94

-92

-91

-94

-92

FDD

Test

Value

-985

-98.5

-99

-98

-99.5

-96.5

-98.5

36 / 63

FDD B20

FDD B28

FDD B38

FDD B39

-100.2

FDD B66 -104.7

-101.7

FDD B34

FDD B40

FDD B41 -

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

-97

-98.5

-100

-99

-94

-95.5

-97

-96

-91.2

-93.7

-95.2

-94.2

-90

-91

-94

-93

FDD

TDD

-96.5

99.5

-98.5

-99

-97.5

-99.5

-98

-99

NOTE

Test value @ 10MHz www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

4.2 RF Antenna Connector

The module have 3 antenna connectors, one of which is the GSM/UMTS/LTE main antenna connector, the others are UMTS/LTE auxiliary antenna connector and GPS/GLONASS antenna connector.

Recommended antenna characteristics of the module are described by 2 following tables.

Table 25: Recommended Passive Antenna Characteristics

Passive

Direction

Gain

Input impedance

Efficiency

VSWR

Recommended standard

omnidirectional

> -3dBi (Avg)

50 ohm

> 50 %

< 2

Table 26: Recommended Active Antenna Characteristics

Band

GSM850

EGSM900

DCS1800

PCS1900

WCDMA B1

WCDMA B2

WCDMA B5

WCDMA B8

LTE B1

LTE B2

LTE B3

LTE B4

LTE B5

LTE B7

LTE B8

LTE B20

LTE B28

LTE B66

LTE B34

LTE B38

TRP

≧ 29dBm

≧ 26dBm

≧ 19dBm

≧ 18dBm

Performance

TIS

≦ -104dBm

≦ -92dBm(10MHz)

≦ -89dBm(10MHz)

≦ -92dBm(10MHz)

≦ -92dBm(10MHz) www.simcom.com

38 / 63

NOTE

LTE B39

LTE B40

LTE B41

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

≧ 18dBm

≦

-92dBm(10MHz)

-91dBm(10MHz)

The above LTE only test 10MHZ bandwidth

The RF connector in the module side is an ultra small surface mount coaxial connector (Part Numb er: U.FL-R-SMT, vended by HRS). It has high performance with wide frequency range, surface mou ntable and reflows solderable. Following are parameters (Figure 19). Certainly user can visit http://w ww.hirose-connectors.com/ for more information.

To get good RF performance in user’s design, SIMCom suggests user to use the matching RF adapter cable which is also supplied by HRS (Part Number: U.FL-LP （ V ） -040), the following figure (Figure 20) is the dimensions of U.FL series RF adapter cable. User can contact SIMCom for more information.

www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

www.simcom.com

Figure 24: U.FL-R-SMT (Unit: mm)

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Figure 25: U.FL series RF adapter cable (Unit: mm)

To facilitate the antenna tuning and certification test, a RF connector and an antenna matching circuit should be added. The following figure is the recommended circuit.

Figure 26: Antenna matching circuit (MAIN_ANT)

Figure 27: Antenna matching circuit (AUX_ANT)

In above figure, the component R1/R2 is reserved for antenna matching, the value of components can only be got after the antenna tuning, usually, The RF test connector in the figure is used for the conducted RF performance test, and should be placed as close as to the module’s antenna pin. The traces impedance between components must be controlled in 50Ω. The component D1/D2 is a Bidirectional ESD Protection device, which is suggested to add to protection circuit, the recommended Part Numbers of the TVS are listed in the following table: www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Table 27: TVS part number list

Package

0402

Type

PESD0402-03

PESD0402-12

Supplier

PRISEMI

NOTE

SIMCom suggests the LTE auxiliary antenna to be kept on, since there are many high bands in the designing of LTE-TDD, such as band38, band40 and band41.

4.3 GNSS

Module merges GNSS (GPS/GLONASS/BD/QZSS GALILEO) satellite and network information to provide a high-availability solution that offers industry-leading accuracy and performance. This solution performs well, even in very challenging environmental conditions where conventional GNSS receivers fail, and provides a platform to enable wireless operators to address both location-based services and emergency mandates.

4.3.1 GNSS Technical specification

●

Tracking sensitivity: -159 dBm （ GPS ） /-158 dBm （ GLONASS ） /-159 dBm （ BD ） /-159 dBm （ GALILEO ）

Cold-start sensitivity: -148 dBm

Accuracy (Open Sky): 2.5 m (CEP50)

TTFF (Open Sky): Hot start <1 s, Cold start<35 s

Receiver Type: 16-channel, C/A Code

GPS L1 Frequency: 1575.42±1.023 MHz

GLONASS: 1597.5~1605.8 MHz

BD: 1559.05~1563.14 MHz

GALILEO: 1575.42±1.023 MHz

Update rate: Default 1 Hz

GNSS data format: NMEA-0183

GNSS Current consumption: 100mA (GSM/UMTS/LTE Sleep ,in total on VBAT pins)

GNSS antenna: Passive/Active antenna

4.3.2 GNSS Application Guide

Users can adopt an active antenna or a passive antenna to module. If using a passive antenna, an external

LNA is a must to get better performance.

www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

The following figure is the reference circuits.

Figure 28: Active Antenna Circuit

Figure 29: Passive antenna circuit

In above two figures, the component C1 is used for DC isolation, and L1 is used for antenna matching, the value of it can be obtained after the antenna tuning usually, so the default value is NC. In active antenna circuit, users also can use an external LDO/DCDC to provide VDD voltage which value should be taken according to active antenna characteristic, and VDD can be shut down to avoid consuming additional current when not being used.

Users can adopt an active antenna as GNSS signal receiver. The following is the reference circuit.

This command is used to control the power supply of the built-in LNA of the active antenna.

www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Table 28: VDD_AUX AT control command

AT+CVAUXS Set state of the pin named VDD_AUX

Test Command

AT+CVAUXS=?

Response

+CVAUXS: ( list of supported <state>s)

Read Command

AT+CVAUXS?

Response

+CVAUXS: <state>

Write Command

AT+CVAUXS=<state>

Response

ERROR

Defined Values

<state> 0 output of the pin disabled.

1 output of the pin enabled.

NOTE

1.If the antenna is active type, the power should be given by main board because there is no power supply on the GPS antenna pad. If the antenna is passive, it is suggested that the external LNA should be used.

2.If customer need save the power when the GNSS function is disabled, then customer should design a switch circuit to cut off the active antenna power to get a lower power consumption.

4.3.3 GNSS Operate Mode

The module supports A-GPS, A-GPS includes mobile-assisted and mobile-based mode.

In mobile-assisted mode, when a request for position location is issued, available network information is provided to the location server (e.g. Cell-ID) and assistance is requested from the location server. The location server sends the assistance information to the handset. The handset/mobile unit measures the

GNSS observables and provides the GNSS measurements along with available network data (that is appropriate for the given air interface technology) to the location server. The location server then calculates the position location and returns results to the requesting entity.

www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

In mobile-based mode, the assistant data provided by the location server encompasses not only the information required to assist the handset in measuring the satellite signals, but also the information required to calculate the handset’s position. Therefore, rather than provide the GNSS measurements and available network data back to the location server, the mobile calculates the location on the handset and passes the result to the requesting entity.

In standalone (autonomous) mode, the handset demodulates the data directly from the GNSS satellites.

This mode has some reduced cold-start sensitivity, and a longer time to first fix as compared to the assisted modes. However, it requires no server interaction and works out of network coverage.

This combination of GNSS measurements and available network information provides:

●

High-sensitivity solution that works in all terrains: Indoor, outdoor, urban, and rural

High availability that is enabled by using both satellite and network information

Therefore, while network solutions typically perform poorly in rural areas and areas of poor cell geometry/density, and while unassisted, GNSS-only solutions typically perform poorly indoors. The module’s GNSS solution provides optimal time to fix, accuracy, sensitivity, availability, and reduced network utilization in both of these environments, depending on the given condition.

GNSS can be used by NMEA port. User can select NMEA as output through USB. NMEA sentences are automatic and no command is provided. NMEA sentences include GSV, GGA, RMC, GSA, and VTG.

Before using GNSS, user should configure module in proper operating mode by AT command. Please refer to related document for details. Module can also get position location information through AT directly.

www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

5 Electrical Specifications

5.1 Absolute Maximum Ratings

The absolute maximum ratings are described by the following table. Module may be damaged beyond these ratings.

Table 29: Absolute maximum ratings

Symbol

Parameter

VCC input voltage

Voltage at digital pins

(1.8V digital I/O) *

Min

-0.3

Type

3.3

NOTE

These parameters are for digital interface pins, such as I 2 C, UART, GPIO.

Max

4.6

2.1

Unit

5.2 Recommended Operating Conditions

Please refer to the follow table for recommended operating conditions.

Table 30: Operating Conditions

Symbol

OPER

STG

Parameter

3.3V Input voltage

Voltage at digital pins (1.8V

digital I/O)

Operating temperature

Storage temperature

Min

3.1

-40

-45

Type

3.3

1.8

+25

Max

4.6

1.95

+85

+90

Unit

℃

℃ www.simcom.com

46 / 63

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

5.3 Operating Mode

5.3.1 Operating Mode

The table below summarizes the various operating modes of the module.

Table 31: Operating Mode

Mode

Normal operation

Power off

GSM/UMTS/LTE

Sleep

GSM /UMTS/LTE Idle

GSM /UMTS/LTE Talk

GPRS/EDGE/UMTS/L

TE/WIFI Standby

GPRS/EDGE/UMTS/L

TE transmission

Data

Minimum functionality mode

Function

In this case, the current consumption of module will be reduced to the minimal level and the module can still receive paging message, call, SMS and TCP/UDP.

Software is active. Module is registered to the network, and the module is ready to communicate.

Connection between two subscribers is in progress. In this case, the power consumption depends on network settings such as DTX off/on, FR/EFR/HR, hopping sequences, and antenna.

Module is ready for data transmission, but no data is currently sent or received. In this case, power consumption depends on network settings.

There is data transmission in progress. In this case, power consumption is related to network settings (e.g. power control level); uplink/downlink data rates, etc.

AT command “AT+CFUN=0” AT+CSCLK=1 can be used to set the module to a minimum functionality mode without removing the power supply. In this mode, the RF part of the module will not work and the USIM card will not be accessible, but the serial port and USB port are still accessible. The power consumption in this mode is lower than normal mode.

Customer could cut off the VCC to power off module.

5.3.2 Power saving mode

The module has two power saving modes: minimum functionality mode and sleep mode. In which module will achieve lower power consumption for power saving.

5.3.3 Sleep mode

In sleep mode, the current consumption of module will be reduced to the minimal level, and module can still receive paging message, SMS, TCP and UDP.

The module has two sleep modes, the corresponding floor current in each mode is different, and the two www.simcom.com

47 / 63

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

modes can be switched by AT command

●

AT*CPCBTYPE=0,0: floor current [email protected](Default) (CFUN=0) ；

AT*CPCBTYPE=0,1: floor current [email protected](CFUN=0).

There are three steps to let the module enter into the sleep mode:

●

Execute AT command AT+CVAUXS=0 to power off the antenna;

Execute AT command

AT+CGNSSPWR=0, AT+CGNSSTST=0

to turn

off the GPS power supply;

Execute AT command

AT+CSCLK=1

to enable the sleep mode

;

The following is a detailed explanation of the two sleep modes

5.3.3.1 USB suspend mode

When the host supports the USB suspend function, this mode can be used for hibernation.

In this mode, the USB power supply will always supply power. At this time, the module can be hibernated by controlling the host to hibernate. When the host exits the sleep mode, the module also exits the sleep mode, and the sleep current in this mode is about 2.5mA. The following is a flow chart of module sleep and wake-up in this mode www.simcom.com

Figure 30:Module sleep(USB suspend mode)

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Figure 31: Module wakes up(USB suspend mode)

5.3.3.2 USB voltage controllable mode

In this mode, when the module is working normally, the USB power supply keeps supplying power.

When the module sleeps, the USB power supply is disconnected. At this time, the module can be hibernated by controlling the host to sleep. However, when the module wakes up, it needs to pull down DTR externally, and the module will wake up after the running host exits dormancy. The sleep current in this mode is about 1.5mA.

www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

www.simcom.com

Figure 32: Module sleep(USB voltage controllable mode)

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Figure 33: Module wakes up(USB voltage controllable mode)

The corresponding sleep currents in the two different modes are different. Customers can choose the appropriate sleep mode according to actual needs.

Others hardware and software conditions must be satisfied together in order to let module enter into sleep mode:

1. UART condition

2. Software condition

NOTE

Before designing, pay attention to how to realize sleeping/waking function and refer to Document [22] for more details.

www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

5.3.4 Minimum functionality mode

Minimum functionality mode ceases a majority function of module, thus minimizing the power consumption.

This mode is set by the AT command which provides a choice of the functionality levels.

●

AT+CFUN=0: Minimum functionality

AT+CFUN=1: Full functionality (Default)

AT+CFUN=4: Disable RF function of the module (Flight mode)

The module has been set to minimum functionality mode, module will firstly enter sleep mode, then the RF function and USIM card function will be closed. In this case, the serial port is still accessible, but RF function or USIM card will be unavailable. When module is in minimum functionality or flight mode, it can return to full functionality by the AT command “AT+CFUN=1”.

5.4 Current Consumption

The current consumption is listed in the table below.

Table 32: Current Consumption (VCC=3.3V)

GNSS

GNSS supply current

(AT+CFUN=0, with USB connection)

GSM sleep/idle mode

@ -140dBm ， Tracking Typical:60mA

GSM/GPRS supply current

(GNSS off)

Sleep mode@ BS_PA_MFRMS=2 Typical: 2.8mA

（ USB suspend mode ）

Sleep mode@ BS_PA_MFRMS=2 Typical: 2mA （ USB voltage controllable mode ）

Idle mode@ BS_PA_MFRMS=2 Typical: 30mA

UMTS sleep/idle mode

WCDMA supply current

(GNSS off)

Sleep mode @DRX=1.28s Typical: 4.0mA

（ USB suspend mode ）

Sleep mode @DRX=1.28s Typical: 3.0mA

（ USB voltage controllable mode ）

Idle mode @DRX=1.28

s Typical: 30mA

LTE sleep/idle mode

LTE-FDD supply current

(GNSS off)

Sleep mode @DRX=1.28s Typical: 3.5mA

（ USB suspend mode ）

Sleep mode @DRX=1.28s Typical: 2.8mA

（ USB voltage controllable mode ）

Idle mode @DRX=1.28

s Typical: 30mA

LTE-TDD supply current Sleep mode @DRX=1.28s Typical: 3.5mA

（ USB suspend mode ） www.simcom.com

52 / 63

(GNSS off)

GSM Talk

EGSM900

DCS1800

UMTS Talk

WCDMA B1

WCDMA B8

GPRS

GSM900( 1 Rx,4 Tx )

GSM900( 3 Rx,2 Tx )

DCS1800( 3 Rx,2 Tx )

DCS1800( 1 Rx,4 Tx )

EGPRS

GSM900( 1 Rx,4 Tx )

GSM900( 3Rx,2 Tx )

DCS1800( 3Rx,2 Tx )

DCS1800( 1 Rx,4 Tx )

HSDPA Data

WCDMA B1

WCDMA B8

LTE Data

LTE-FDD B1

LTE-FDD B3

LTE-FDD B5

LTE-FDD B8

LTE-TDD B34

LTE-TDD B38

LTE-TDD B39

LTE-TDD B40

LTE-TDD B41 www.simcom.com

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Sleep mode @DRX=1.28s Typical: 2.8mA

（ USB voltage controllable mode ）

Idle mode @DRX=1.28

s Typical: 30mA

@power level #5 Typical: 300mA

@power level #0 Typical: 245mA

@Power 21dBm Typical: 480mA

@Power 21dBm Typical: 550mA

@power level #5 Typical: 600mA

@power level #5 Typical: 470mA

@power level #0 Typical: 350mA

@power level #0 Typical: 460mA

@power level #8 Typical: 450mA

@power level #8 Typical: 320mA

@power level #2 Typical: 320mA

@power level #2 Typical: 460mA

@Power 21dBm

Typical: 490mA

Typical: 550mA

@5MHz 22.3 dBm Typical: 577 mA

@10MHz 22.4 dBm Typical: 590 mA

@20MHz 22.4 dBm Typical: 630 mA

@5MHz 22.2 dBm Typical: 479 mA

@10MHz 22.1 dBm Typical: 498 mA

@20MHz 22.1 dBm Typical: 530 mA

@5MHz 22.2 dBm Typical: 610 mA

@10MHz 22.1 dBm Typical: 600 mA

@20MHz 22.1 dBm Typical: 630 mA

@5MHz 22.8 dBm Typical: 644 mA

@10MHz 22.8 dBm Typical: 646 mA

@5MHz 21.5 dBm Typical: 407 mA

@10MHz 21.7 dBm Typical: 416 mA

@20MHz 21.6 dBm Typical: 435 mA

@5MHz 21.8 dBm Typical: 370 mA

@10MHz 21.8 dBm Typical: 380 mA

@20MHz 21.8 dBm Typical: 403 mA

@5MHz 21.5 dBm Typical: 407 mA

@10MHz 21.6 dBm Typical: 420 mA

@20MHz 21.7 dBm Typical: 444 mA

@5MHz 21.5 dBm Typical: 407 mA

@10MHz 21.7 dBm Typical: 416 mA

@20MHz 21.7 dBm Typical: 444 mA

@5MHz 21.6 dBm Typical: 390 mA

@10MHz 21.7 dBm Typical: 396 mA

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

@20MHz 21.7 dBm Typical: 420 mA

NOTE

In the table above the current consumption value is the typical one of the module tested in the laboratory. In the mass production stage, there may be some difference.

5.5 Electro-Static Discharge

The module is an ESD sensitive component, so more attention should be paid to the procedure of handling and packaging. The ESD test results are shown in the following table.

Table 33: ESD characteristics (Temperature: 25 ℃ , Humidity: 45 %)

Part

VBAT, GND

Antenna port

Other PADs

Contact discharge

+/-5K

+/-4K

+/-1K

Air discharge

+/-10K

+/-8K

+/-2K www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

6 Packaging

The module support tray packaging.

Module tray drawing:

Figure 34: Tray packaging

Table 34: Tray size

Length

（

±3mm

）

245.0

www.simcom.com

Figure 35: Tray drawing

Width

（

±3mm

）

165.0

Number

55 / 63

Small carton drawing:

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Figure 36: Small carton drawing

Table 35: Small Carton size

Length

（

±10mm

）

Width

（

±10mm

）

Height

（

±10mm

）

270 180 120

Big carton drawing:

Number

10*10=100

Figure 37: Big carton drawing

Table 36: Big Carton size

Length

（

±10mm

）

Width

（

±10mm

）

380 280

Height

（

±10mm

280

）

Number

100*4=400 www.simcom.com

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A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

7 Appendix

7.1 Coding Schemes and Maximum Net Data Rates over Air Interface

Table 37: Coding Schemes and Maximum Net Data Rates over Air Interface

Multislot definition(GPRS/EDGE)

Slot class

GPRS coding scheme

CS 1 = 9.05 kb/s / time slot

CS 2 = 13.4 kb/s / time slot

CS 3 = 15.6 kb/s / time slot

CS 4 = 21.4 kb/s / time slot

MCS 1 = 8.8 kb/s/ time slot

MCS 2 = 11.2 kb/s/ time slot

MCS 3 = 14.8 kb/s/ time slot

MCS 4 = 17.6 kb/s/ time slot

MCS 5 = 22.4 kb/s/ time slot

MCS 6 = 29.6 kb/s/ time slot

MCS 7 = 44.8 kb/s/ time slot

MCS 8 = 54.4 kb/s/ time slot

DL slot number UL slot number Active

1 1 2

slot

Modulation type Max data rata

（

4 slots

）

36.2 kb/s

53.6 kb/s

62.4 kb/s

85.6 kb/s

35.2 kb/s

44.8 kb/s

59.2 kb/s

70.4 kb/s

89.6 kb/s

118.4 kb/s

179.2 kb/s

217.6 kb/s

GMSK

8PSK

8PSK www.simcom.com

57 / 63

MCS 9 = 59.2 kb/s/ time slot

HSDPA device category

Category 1

Category 2

Category 3

Category 4

Category 5

Category 6

Category 7

Category 8

Category 9

Category 10

Category 11

Category 12

Category 13

Category 14

Category 15

Category 16

Category 17

Category 18

Category 19

Category 20

Category 21

Category 22

Category 23

Category 24

HSUPA device category

Category 1

Category 2

Category 3

Category 4

Category 5

Category 6

LTE-FDD device category

(Downlink)

Category 1

Category 2

Category 3

236.8 kb/s

Max data rate

（

peak

）

1.2M bps

1.8M bps

1.8 Mbps

3.6 Mbps

7.2 Mbps

10.2 Mbps

14.4 Mbps

0.9 Mbps

1.8 Mbps

17.6 Mbps

21.1 Mbps

23.4 Mbps

28 Mbps

23.4 Mbps

28 Mbps

35.5 Mbps

42 Mbps

23.4 Mbps

28 Mbps

35.5 Mbps

42.2 Mbps

Max data rate

（

peak

）

0.96 Mbps

1.92 Mbps

3.84 Mbps

5.76 Mbps

Max data rate

（

peak

）

10 Mbps

50 Mbps

100 Mbps

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

8PSK

Modulation type

QPSK

64QAM

16QAM

64QAM

16QAM,QPSK

64QAM

16QAM

64QAM

Modulation type

QPSK

Modulation type

QPSK/16QAM/64QA

QPSK/16QAM/64QA www.simcom.com

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Category 4

LTE-FDD device category

(Uplink)

Category 1

Category 2

Category 3

Category 4

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

150 Mbps

Max data rate

（

peak

）

5 Mbps

25 Mbps

50 Mbps

QPSK/16QAM/64QA

Modulation type

QPSK/16QAM

7.2 Related Documents

Table 38: Related Documents

SN Title

[1]

[2]

A7600 Series AT Command

Manual_V1.xx

ITU-T Draft new recommen dation V.25ter

[3] GSM 07.07

[4] GSM 07.10

[5]

[6]

[7]

[8]

[9]

[10]

[11]

[12]

[13]

[14]

[15]

GSM 07.05

GSM 11.14

GSM 11.11

GSM 03.38

GSM 11.10

3GPP TS 51.010-1

3GPP TS 34.124

3GPP TS 34.121

3GPP TS 34.123-1

3GPP TS 34.123-3

EN 301 908-02 V2.2.1

Description

AT command Manual

Serial asynchronous automatic dialing and control

Digital cellular telecommunications (Phase 2+); AT command set for GSM Mobile Equipment (ME)

Support GSM 07.10 multiplexing protocol

Digital cellular telecommunications (Phase 2+); Use of Data

Terminal Equipment – Data Circuit terminating Equipment

(DTE – DCE) interface for Short Message Service (SMS) and

Cell Broadcast Service (CBS)

Digital cellular telecommunications system (Phase 2+);

Specification of the SIM Application Toolkit for the Subscriber

Identity Module – Mobile Equipment (SIM – ME) interface

Digital cellular telecommunications system (Phase 2+);

Specification of the Subscriber Identity Module – Mobile

Equipment (SIM – ME) interface

Digital cellular telecommunications system (Phase 2+);

Alphabets and language-specific information

Digital cellular telecommunications system (Phase 2); Mobile

Station (MS) conformance specification; Part 1: Conformance specification

Digital cellular telecommunications system (Release 5);

Mobile Station (MS) conformance specification

Electromagnetic Compatibility (EMC) for mobile terminals and ancillary equipment.

Technical Specification Group Radio Access Network;

Terminal conformance specification; Radio transmission and reception (FDD)

User Equipment (UE) conformance specification; Part 3:

Abstract Test Suites.

Electromagnetic compatibility and Radio spectrum Matters

(ERM); Base Stations (BS) and User Equipment (UE) for www.simcom.com

59 / 63

[16]

[17]

[18]

[19]

[20]

[21]

[23]

EN 301 489-24 V1.2.1

IEC/EN60950-1(2001)

3GPP TS 51.010-1

GCF-CC V3.23.1

2002/95/EC

Module secondary-SMT-UGD-V1.xx

ANTENNA DESIGN

GUIDELINES FOR

DIVERSITY RECEIVER

SYSTEM

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

IMT-2000. Third Generation cellular networks; Part 2:

Harmonized EN for IMT-2000, CDMA Direct Spread

(UTRA FDD) (UE) covering essential requirements of article

3.2 of the R&TTE Directive

Electromagnetic compatibility and Radio Spectrum Matters

(ERM); Electromagnetic Compatibility (EMC) standard for radio equipment and services; Part 24: Specific conditions for

IMT-2000 CDMA Direct Spread (UTRA) for Mobile and portable (UE) radio and ancillary equipment

Safety of information technology equipment (2000)

Digital cellular telecommunications system (Release 5);

Mobile Station (MS) conformance specification

Global Certification Forum - Certification Criteria

Directive of the European Parliament and of the Council of 27

January 2003 on the restriction of the use of certain hazardous substances in electrical and electronic equipment (RoHS)

Module secondary SMT Guidelines

ANTENNA DESIGN GUIDELINES FOR DIVERSITY

RECEIVER SYSTEM

7.3 Terms and Abbreviations

Table 39: Terms and Abbreviations

Abbreviation Description

ADC Analog-to-Digital Converter

ARP

BER

Antenna Reference Point

Bit Error Rate

BTS

CSD

CTS

DAC

DRX

DSP

DTE

DTR

DTX

EFR

Base Transceiver Station

Coding Scheme

Circuit Switched Data

Clear to Send

Digital-to-Analog Converter

Discontinuous Reception

Digital Signal Processor

Data Terminal Equipment (typically computer, terminal, printer)

Data Terminal Ready

Discontinuous Transmission

Enhanced Full Rate www.simcom.com

60 / 63

I 2 C

IMEI

LTE

PAP

GMSK

GPRS

GSM

HSPA

EGSM

EMC

ESD

ETS

EVDO

FCC

FDMA

SMS

SPI

SMPS

TDMA

UART

PBCCH

PCB

PCS

RMS

RTC

SIM www.simcom.com

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Enhanced GSM

Electromagnetic Compatibility

Electrostatic Discharge

European Telecommunication Standard

Evolution Data Only

Federal Communications Commission (U.S.)

SIM fix dialing phonebook

Frequency Division Multiple Access

Full Rate

Gaussian Minimum Shift Keying

General Packet Radio Service

Global Standard for Mobile Communications

Half Rate

High Speed Packet Access

Inter-Integrated Circuit

International Mobile Equipment Identity

Long Term Evolution

Mobile Originated

Mobile Station (GSM engine), also referred to as TE

Mobile Terminated

Password Authentication Protocol

Packet Switched Broadcast Control Channel

Printed Circuit Board

Personal Communication System, also referred to as GSM 1900

Radio Frequency

Root Mean Square (value)

Real Time Clock

Subscriber Identification Module

Short Message Service serial peripheral interface

Switched-mode power supply

Time Division Multiple Access

Terminal Equipment, also referred to as DTE

Transmit Direction

Universal Asynchronous Receiver & Transmitter

61 / 63

VSWR

EDGE

HSDPA

HSUPA

ZIF

WCDMA

VCTCXO

USIM

UMTS

UART

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

Voltage Standing Wave Ratio

SIM phonebook

Not connect

Enhanced data rates for GSM evolution

High Speed Downlink Packet Access

High Speed Uplink Packet Access

Zero intermediate frequency

Wideband Code Division Multiple Access

Voltage control temperature-compensated crystal oscillator

Universal subscriber identity module

Universal mobile telecommunications system

Universal asynchronous receiver transmitter www.simcom.com

62 / 63

A7602E-H&A7608SA-H Mini-PCle module Hardware Design V1.01

7.4 Safety Caution

Table 40: Safety caution

Marks Requirements

When in a hospital or other health care facility, observe the restrictions about the use of mobiles. Switch the cellular terminal or mobile off, medical equipment may be sensitive to not operate normally for RF energy interference.

Switch off the cellular terminal or mobile before boarding an aircraft. Make sure it is switched off. The operation of wireless appliances in an aircraft is forbidden to prevent interference with communication systems. Forget to think much of these instructions may lead to the flight safety or offend against local legal action, or both.

Do not operate the cellular terminal or mobile in the presence of flammable gases or fumes. Switch off the cellular terminal when you are near petrol stations, fuel depots, chemical plants or where blasting operations are in progress. Operation of any electrical equipment in potentially explosive atmospheres can constitute a safety hazard.

Your cellular terminal or mobile receives and transmits radio frequency energy while switched on. RF interference can occur if it is used close to TV sets, radios, computers or other electric equipment.

Road safety comes first! Do not use a hand-held cellular terminal or mobile when driving a vehicle, unless it is securely mounted in a holder for hands free operation. Before making a call with a hand-held terminal or mobile, park the vehicle.

GSM cellular terminals or mobiles operate over radio frequency signals and cellular networks and cannot be guaranteed to connect in all conditions, for example no mobile fee or a invalid SIM card. While you are in this condition and need emergent help, please remember using emergency calls. In order to make or receive calls, the cellular terminal or mobile must be switched on and in a service area with adequate cellular signal strength.

Some networks do not allow for emergency call if certain network services or phone features are in use (e.g. lock functions, fixed dialing etc.). You may have to deactivate those features before you can make an emergency call.

Also, some networks require that a valid SIM card be properly inserted in the cellular terminal or mobile.

www.simcom.com

63 / 63

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