SEQUANS COMMUNICATIONS CA410A M.2

Power Supply Connection

Connect the VBAT, SIM_VCC, USB, and UART power supply pins to the corresponding power sources within the specified voltage ranges.

(U)SIM Signals Connection

Connect the (U)SIM signals including SIM_RST, SIM_CLK, SIM_IO, SIM_VCC, and SIM_DETECT according to the pin configuration provided in the manual.

USB Signals Connection

Connect the USB signals USB_D+ and USB_D- to the appropriate USB ports with a supply voltage of 3.3V.

UART Signals Connection

Connect the UART signals UART0_SOUT and UART0_SIN to the UART interface with a supply voltage of 1.8V.

Power

Table 5: Power Pads Operational Values

Pin

Name

Supply

Dir.

Min Value

Typical Operational Value

Max Value

3GPP RF Compliant

5

Functional

2, 4, 70,

72, 74

VBAT

N/A

In

3.2 V

3.3 V

4.4 V

4.6 V

36

SIM_VCC 4

1.8 V

Out

1.62 V

1.8 V

1.98 V

3.0 V

2.7 V

3.0 V

3.3 V

(U)SIM

Table 6: (U)SIM Signals

Pin

Name

Supply

Direction

30

SIM_RST

1.8 V/3.0 V

Out

32

SIM_CLK

1.8 V/3.0 V

Out

34

SIM_IO

1.8 V/3.0 V

In/Out

36

SIM_VCC 6

1.8 V/3.0 V

Out

66

SIM_DETECT 7

1.8 V

In

USB

Table 7: USB Signals

Pin

Name

Supply

Direction

7

USB_D+

3.3 V

In/Out

9

USB_D-

3.3 V

In/Out

UART

Table 8: UART Signals

Pin

Name

Supply

Direction

8

Pad type

Reset State

63

UART0_SOUT

1.8 V

Out

BIDIR_PU

OUTPUT

65

UART0_SIN

1.8 V

Out

BIDIR_PU

INPUT

 

4. See also Section (U)SIM.

5. Functional behavior of the module with possible degradation of RF performances.

6. See range of values in Table 5.

7. SIM_DETECT is active HIGH (HIGH when a card is present, LOW when no card is present)

8. UART pad types are BIDIR_PU as detailed in Table 12. All their electrical characteristics are detailed in Table 13.

Non Interfacing Signals

Table 9: Non Interfacing Signals

Pin

Name

Supply

Direction

9

Pin Type

Output Class

Reset State

Default Setting

6

MODULE_PWR_EN

VDD_PWR_EN

(see Table 11)

In

N/A

N/A

N/A

N/A

10

NETWORK_LED_N

1.8 V

Out

BIDIR_PU

4 mA

INPUT

INPUT, PULL-UP

23

WAKE_ON_WAN_N (see below)

1.8 V

Out

See below

N/A

N/A

N/A

67

RESET_N (see below)

1.8 V

In

N/A

N/A

N/A

N/A

 

RESET_N Active low (RESET). This signal is used to reset the module.

The following timing requirement applies to the signals VBAT1, MODULE_PWR_EN and RESET_N. It must be respected for proper module behaviour.

RESET_N 

Figure 4: VBAT1, MODULE_PWR_EN and RESET_N Signals Timing Requirement for Cold Start

VBAT1

Figure 5: VBAT1, MODULE_PWR_EN and RESET_N Signals Timing Requirement for Warm Start

Figure 6

Figure 6: VBAT1, MODULE_PWR_EN and RESET_N Signals Timing Requirement for Reset Cycle

Table 10: VBAT1, MODULE_PWR_EN and RESET_N Timing Values

Symbol

Description

Minimum Duration

Maximum Duration

ts

VBAT1 setup time

0 ms

ts1

RESET_N setup time

1 ms

th1

RESET_N hold time

1 µs

WAKE_ON_WAN_N Open drain, active low. This pad wakes up the host. Requires a 10 kΩ pull-up resistor on host side. If unused, do not connect.

If the host does support USB suspend-resume but not remote wake-up function, the WoWWAN# M.2 signal is needed to wake up the host.

Table 11: DC Characteristics for MODULE_PWR_EN, Voltage VDD_PWR_EN

Parameter

Min.

Nom.

Max.

Unit

VIL

Input Low Voltage

-0.3

0.4

V

VIH

Input High Voltage

1.1

VBAT

V

Interfaces Description for the LCC Model

Data for the LCC model will be provided in a future edition of this document.

Digital I/O Characteristics

The voltage and current characteristics of the various I/O pads of the CA410 are given in the tables below.

Table 12 details the various pad types listed in CA410 signals list.

Table 12: Pad Types Detail

Pad Type

Description

Maximum Input High Voltage

Analogue

Analogue (or power for powers and ground for grounds)

Not Applicable

BIDIR_PD

1.8 V in/out with software controlled internal pull- down. Refer to Table 13 for DC I/O characteristics.

VIH max = 3.6 V

BIDIR_PU

1.8 V in/out with software controlled internal pull- up. Refer to Table 13 for DC I/O characteristics.

VIH max = 3.6 V

IN

1.8V input.

VIH max = 3.6 V

Pad Type

Description

Maximum Input High Voltage

IN_PD

1.8 V input with software controlled internal pull- down. Refer to Table 13 for DC I/O characteristics.

VIH max = 3.6 V

IN_PU

1.8V input with software controlled internal pull-up.

VIH max = 3.6 V

OUT

1.8 V output. Refer to Table 13 for DC I/O characteristics.

VIH max = 3.6 V

Refer to CA410 pin list for the type of I/O pad used on every termination.

      • The Minimum values for IOL and IOH should not be exceeded to guarantee that the logical level are not spoiled for each pad type.
      • The Nominal values for IOL and IOH represent the nominal values for the pad type. They are provided for information only.
      • The Maximum values for IOL and IOH represent the maximal values for the pad type. They are provided for information only.

Table 13: DC Characteristics for Digital I/Os, Voltage 1.8 V

Parameter

Drive Strength

Min.

Nom.

Max.

Unit

VIL

Input Low Voltage

-0.3

0.63

V

VIH

Input High Voltage

1.17

3.6

V

VT

Threshold Point

0.79

0.87

0.94

V

VT+

Schmitt Trigger Low to High Threshold Point

1

1.12

1.22

V

VT-

Schmitt Trigger High to Low Threshold Point

0.61

0.71

0.8

V

VT PU

Threshold Point with Pull-up Resistor Enabled

0.79

0.86

0.93

V

VT PD

Threshold Point with Pull-down Resistor Enabled

0.8

0.87

0.95

V

VT+ PU

Schmitt Trigger Low to High Threshold Point with Pull-up Resistor Enabled

1

1.12

1.21

V

VT- PU

Schmitt Trigger High to Low Threshold Point with Pull-up Resistor Enabled

0.61

0.7

0.8

V

VT+ PD

Schmitt Trigger Low to High Threshold Point with Pull-down Resistor Enabled

1.01

1.13

1.23

V

 

Parameter

Drive Strength

Min.

Nom.

Max.

Unit

VT- PD

Schmitt Trigger High to Low Threshold Point with Pull-down Resistor Enabled

0.62

0.72

0.81

V

II

Input Leakage Current @ VI=1.8V or 0V

±10

µA

IOZ

Tri-state Output Leakage Current @ VO=1.8V or 0V

±10

µA

Input Capacitance

3

pF

RPU

Pull-up Resistor

56

89

148

RPD

Pull-down Resistor

52

90

167

VOL

Output Low Voltage

0.45

V

VOH

Output High Voltage

1.35

V

IOL

Low Level Input Current at VOL(max)

2 mA

1.2

2.2

3.6

mA

4 mA

2.3

4.3

7.1

mA

8 mA

4.6

8.6

14.3

mA

IOH

High Level Output Current at VOH(max)

2 mA

1.0

2.4

4.6

mA

4 mA

2.0

4.7

9.2

mA

8 mA

4.0

9.4

18.4

mA

Reliability and Radio performance

Reliability Figures

The reliability test plan for the CA410 comprises the steps below:

Item

DQA Test Stress Conditions

Standards

Results

Pro-con

JESD22-A113

*

TC 1000

Temperature Cycling (TC):

-40°C to +85°C

Air to air 23 min

Ramp rate 20°C / min 1000 cycles

JESD22-A104

*

THB

Temperature Humidity Bias Test: 85°C, 85% RH

Vcc max

1000 h +168/-24 h

JESD22-A101

*

Environmental Testing A Cold

Environmental Testing – Test A Cold

-40 °C, 96 h

IEC60068-2-1

*

Environmental Testing B Dry Heat

Environmental Testing – Test B Dry Heat

+85 °C, 1000 h

IEC60068-2-2

*

HTOL

High Temperature Operation Test: 75°C

Vcc max

Tx: 50% and Rx: 50%

283 h

N/A

*

HTS

High Temperature Storage Test:

+85°C, 1000 h

IEC60068-2-2

*

LTS

Low Temperature Storage Test:

-40°C, 1000 h

IEC60068-2-1

*

Micro Analysis (MA)

Micro analysis X-ray SAT, CSA TC = 0 TC = 1000 cycles

N/A

*

Shock

Mechanical Shock (MS): Half Sine

500 m/s2

11 ms

6 shocks (one for each ± axis)

DIN IEC68-2-27

*

  1. Bake: 125°C / 24 h

  2. MSL3: 30°C / 60% RH, 192 h

  3. SAT (CSAM & TSCAN)

  4. X-ray

  5. Reflow 3 cycles @ Tp: 250 ± 2°C

  6. SAT (CSAM & TSCAN)

Reliability and Radio performance RF Performance

 

Item

DQA Test Stress Conditions

Standards

Results

Drop

Drop Test:

DIN IEC68-2-31

ETS 300019-2-7

*

Vibration

Vibration Test (Vib):

Sweep-Sine Vibration:

Sinusoidal 10 to 500 Hz

1.0 octave/min

10 sweep cycles for 2h on each axis (X, Y, Z)

DIN IEC68-2-6

EIA/TIA 571

§4.1.1.2

*

Human Body Model ESD

TA = 25 °C

± 1000 V → ± 2000V

JS-001 JESD22-A114

*

Charged Device Model ESD

TA = 25 °C

± 250 V→ ± 500 V

JS-002 STM5.3.1

*

Dimensions

Package Physical Dimensions (including ‘warpage’)

N/A

*

TCT

Temperature Change Test:

10 cycles

One cycle follows these steps (roughly 7+ h): Ramp ambient (23°C) to -40°C at 3°C / min 3 h at -40°C

Ramp to 85°C at 3°C / min 3 h at 85°C

Ramp 85°C to 23°C at 3°C / min

IEC60068-2-14

*

Drop (Transportation)

Free Fall:

1 corner

3 edges and 6 faces at a height of 76 cm.

ASTM D5276

*

  1. Height: 80 cm

  2. Concrete or steel

  3. All surfaces and edges

*: All results will be included in a future version of this document.

RF Performance

The RF performance figures of the CA410 M will be given in a future edition of this document.

Power Consumption

The power consumption figures for the CA410 M will be given in a future edition of this document.

Mechanical Characteristics

Device Marking

Device Marking

Figure 10: CA410 Shield Marking Description

The elements marked on the package are:

      • Sequans’s logo
      • CA410 product name
      • Cassiopeia platform name
      • RoHS logo
      • FCC ID: 2AAGMCA410A
      • IC/ISED: 12732A-CA410A
      • IMEI as digits and QR code
      • The module Serial Number as digits and QR code:
        • VVV: 4MA

        • YYMMDD: Manufacturing date

        • LLLL: tracking batch number

        • SSS: three-digits serial number (HEX format 000 to FFF)

      • Manufacturing country (VN: Vietnam)
M.2 Device

1. Mechanical Characteristics

Figure 8: Mechanical Description

The dimensions shown in Figure 8 are in millimeters.

The CA410 M.2 complies to the M.2 specification, type 3042-S3-B.

2. Packing

The CA410 M.2 is delivered in tray. One tray can hold up to 40 pieces. 1 box can contain 10 trays, thus up to 400 pieces. This is represented on Figure 9.

Figure 9: CA410 M.2 Packing

LCC Device

1.Mechanical Characteristics

Figure 10: Mechanical Description

The dimensions shown in Figure 10 are in millimeters.

2. Packing

The CA410 LCC is delivered in reels. One reel can hold up to 500 pieces. 1 box can contain 2 reels, thus up to 1000 pieces. This is represented on Figure 11.

Packing

Figure 11: CA410 LCC Packing

Specifications

  • RF Connector: FoxconnTM KK12011-02-7H
  • Power Supply:
    • VBAT: 1.8V to 3.3V
    • SIM_VCC: 1.8V to 3.0V
    • USB: 3.3V
    • UART: 1.8V
  • (U)SIM Signals:
    • SIM_RST, SIM_CLK, SIM_IO, SIM_VCC, SIM_DETECT
    • Supply: 1.8V/3.0V
  • USB Signals:
    • USB_D+, USB_D-
    • Supply: 3.3V
  • UART Signals:
    • UART0_SOUT, UART0_SIN
    • Supply: 1.8V

FAQ

What is the purpose of the WAKE_ON_WAN_N signal?

The WAKE_ON_WAN_N signal is an open drain, active low signal that wakes up the host. It requires a 10k pull-up resistor on the host side. If unused, it should not be connected. This signal is necessary to wake up the host if the host supports USB suspend-resume but not remote wake-up function.

Documents / Resources

SEQUANS COMMUNICATIONS CA410A M.2 Model [pdf] Owner's Manual
CA410A M.2 Model, CA410A, M.2 Model, Model

References

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