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The crypto chip can be used for authentication, software licensing and copy protection.
The crypto authentication chip is currently not supported. Support is planned for revision 3 of this product.
Image | Note | |
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Set FAN speed to the lowest value. Some FAN´s don't stop when speed is 0.
Set FAN speed to the highest value possible
command to read FAN tachometer. Value displays in rounds per minute.
(Depending on the FAN, this value may need to be scaled/converted)
Auvidea can provide custom enclosures for its carrier boards. These enclosures provide a passively cooled solution. This solution is designed for the AGX models. With a max power draw of 35W (normal mode) the enclosure temperature reaches 55 °C while in 24 °C room temperature which is a safe temperature for Human contact. The MaxN mode (up to 90W) is not recommended as the enclosure temperature increases above acceptable levels for direct human contact. It is also possible to apply your branding on the front and backplate of the Enclosure. Auvidea has in-house capabilities of laser and milling engraving.
Besides the branding options for the enclosure, it is also possible to customize the label field on the carrier board. Auvidea uses the label field to engrave a small QR code and serial number to track production processes. It is possible to add your custom engravings like logos, text or QR codes to this field as a laser engraver is used.
The standard carrier board configuration is designed to suit most use cases. Please see the Pinout description for customization examples like voltage configurations (3.3V or 1.8V).
We take pride in tailoring our products to your special need and are capable to adjust it in small production series. Please contact Auvidea with your special requests to work out a solution.
Image | Note |
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Why is my X221 not going into force recovery?
If your system is not going into force recovery, please contact our support, as you may have got a system with a mismatched firmware.
Why is my system not entering the force recovery state?
Most of our carrier boards are design to enter force recovery mode when they detect a Host PC. This detection only works one time automatically after the system was connected to its power supply. We recommend unplugging your system before connecting to a Host PC and plugging it back in to power after connecting.
If your system still does not enter force recovery, you may have to press the force recovery button or short the respective pins before connecting to power (please see the Technical Reference Manual for a detailed pinout description).
If you cannot disconnect your system from power, it is also possible to enter force recovery via a button sequence.
Press/jumper “force recovery” button/pins
Press/jumper “reset” button/pins
Release/disconnect “reset” button/pins
Release/disconnect “force recovery” button/pins a few seconds later than the “reset” button/pins
X221D + Fan
On the left you see a standard 80x80x15mm fan connected with the adapter cable to the J8 Fan connector.
Adapter cable
On the left you see a drawing of the adapter Kable and the pin description.
In the left image the label field is highlighted.
Barrel plug.
12V Input, please use a high quality power supply for stable operation.
Molex MicroFit 3.0 (alternative power input)
Pin | Description | Socket pin | Note |
---|---|---|---|
RJ45
Standard pinout.
Please note that on REV 2 and below the J5 and J28 label printed on the PCB is swapped, this mistake is fixed in newer revisions.
Q13 (pin 3) is not over current protected (Max 3.7A).
Set GPIO35_PWM3 too low to activate Q13 (pin3).
As you can see, you can control the J5 pin 3 with three options.
The CAM1 and CAM2 control are intended to be set by your camera device
JST-GH 1.25 mm
CAN1 is RX/TX only and is not outputting power
PicoBlade 1.25 mm
PicoBlade 1.25 mm
For the use of a 5V fan, there is an option to resolder a component appropriately.
JST-GH 1.25 mm
Standard pinout, connected to DP-2
JST-GH 1.25 mm
You can set a solder ball to enable 120Ohm Termination resistor as shown in the picture below.
JST-GH 1.25 mm
With the AI model of the X221 you have access to the safety MCU features. Please contact Auvidea for more information.
The basic MCU of the non AI models only handle power up functionality.
Nexus-3815RFY
Standard pinout (type A).
10Gb/s.
Power can be Enabled/Disabled with GPIO22
Standard pinout.
Host and device mode supported.
Powered by power limiting switch with 500mA.
Alternatively, you can use the J29 connector, using the same pins.
Per special request, Auvidea can manufacture the board with CAM1_PWDN and CAM2_PWDN with pull up to 1.8V.
Standard pinout.
Per special request, Auvidea can manufacture the board with CAM1_PWDN and CAM2_PWDN with pull up to 1.8V.
CSI default voltage is 3.3V, but it can be changed to 5V. To perform this modification, you need to move the bead from the 3.3V location (marked with the number 3 as shown in the picture) to the 5V location (marked with the number 5 as shown in the picture).
The same process applies to I2C, where you must move two beads to the desired location of 1.8 (1.8V) or 3.3 (3.3V).
This modification should be performed with care and some good soldering skills.
Auvidea does not cover damages inflicted by poorly performed modifications.
Please contact Auvidea for custom configurations.
SM08B-GHS-TB
Please note that on REV 2 and below the J5 and J8 label printed on the PCB is swapped, this mistake is fixed in newer revisions.
5A total
This functionality is not available in standard configuration.
Per special request, Auvidea can manufacture the board with this function.
This functionality is not available in standard configuration (only AI version).
SM04B-GHS-TB
SM08B-GHS-TB
Standard pinout.
SM04B-GHS-TB
Alternative connector for J17 (Micro USB), uses same pins.
SM08B-GHS-TB
SM08B-GHS-TB
SM08B-GHS-TB
SM04B-GHS-TB
SM06B-GHS-TB
Bay for the additional Wi-Fi option. Default 3.3V, can be configured for 5V options.
Bay for the additional Wi-Fi option. Default 3.3V, can be configured for 5V options.
Do not use. For production purposes only.
SKU | Description |
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Auvidea can take no responsibility for the accuracy or completeness of any information presented in an exported PDF document as the export feature is developed, managed and maintained by GitBook. Those export mechanisms are subject to change without interaction by Auvidea. Please note that Auvidea includes this version table to identify the document and reference changes.
The X221D is intended to be a great development platform.
This system lets you dive into AI with ease. It allows you to explore AI applications like people detection, face masking and more. The full suite of NVIDIA SDKs may be installed. At your choice, these systems may be equipped with the entire family of NVIDIA compute modules with the AGX Xavier form factor.
The X221D features an industrial strength design and is commercially deployable in any volume.
X221D has only components on top side.
X221D-AI (All In) features components on the top and bottom side, with expanded features.
The heat sink is designed for the AGX Xavier & AGX Xavier Industrial & AGX Orin. It is designed to mount a standard 80×80 mm fan. A production version is available. The Heat sink is not included with the base board. Sets may be available.
Auvidea provides a variety of compatible boards for the AGX Xavier and AGX Orin. The following table tries to help you find the best fitting carrier board for your needs. For more in depth information about each board, please see the respective manual.
The following table shows the features and differences in more detail
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Pin | Description | Socket pin | Note |
---|---|---|---|
Version | Changes |
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Version | Changes |
---|
Description | X221D | X221D-AI |
---|
Description | Note |
---|
Top side | Bottom side |
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Please see our Heat sink and Fan solution on our website:
Or our Product Brief for the Heat sink and Fan:
Description | X221D & X221D-AI |
---|
Description | AGX Xavier compatible | AGX Orin compatible |
---|
AGX Xavier | AGX Xavier | AGX Orin | AGX Orin |
---|
1
VUSB3-3
F54
3.3V (GPIO22: EN = 1, default = 1)
2
VUSB3-3
F54
3.3V
3
USB2_D_N
A11
4
USB2_D_P
A10
5
GPIO22
F54
Optional (R198)
6
GND
7
UPHY_RX1_N
C22
8
UPHY_RX1_P
C23
9
GND
10
UPHY_TX1_N
G22
11
UPHY_TX1_P
G23
12
GND
1
VCC_SRC
Max 1A
2
VDD_5V
Max 1A
3
GPIO35_PWM3
L50
Low side switch to GND, can be controlled with GPIO35_PWM3 or CAM1-MCLK (1.8-5V) or CAM2-MCLK (1.8-5V) (please see schematic image), Max 3.7A
4
GND
1
NC
Not powered
2
CAN1_TX
H61
2.5V center voltage, with CAN transceiver
3
CAN1_RX
B61
2.5V center voltage, with CAN transceiver
4
GND
1
3.3V
2
SCL
J61
3.3V, open drain
3
SDA
K61
3.3V, open drain
4
GND
1
GND
2
12V
1A
3
TACH
E54
1.8V input 100K pull up to 1.8V, fan speed tacho
4
PWM
K62
open drain output with 10k pullup to 12V
1
3.3V
2
UART3_TX
H62
3.3V, AGX Xavier debug console transmit
3
UART3_RX
K60
3.3V, AGX Xavier debug console receive
4
GPIO13_OUT
G7
3.3V, G7 (AGX Xavier ball), output from Jetson
5
GPIO4_IN
B59
3.3V, B59 (AGX Xavier ball), input to Jetson
6
GND
1
5V
C61
max 500mA (with current limiting switch), can be controlled with CAN0_STBY (GPIO09), socket pin C61 with low = on, high = off, pin is also reverse power protected
2
CAN0_H
F58
2.5V center voltage, with CAN transceiver
3
CAN0_L
D59
2.5V center voltage, with CAN transceiver
4
GND
1
3.3V
2
MCU_TX
3.3V, MCU console debug port, transmit, 115200 baud, 8N1
3
MCU_RX
3.3V, MCU console debug port, receive, 115200 baud, 8N1
4
SWCLK
ST-Link programming interface of MCU
5
SWDIO
ST-Link programming interface of MCU
6
GND
1
Vin
1A, 5V
2
USB3_D_N
G10
3
USB3_D_P
G11
4
GND
5
UPHY_RX11_N
D13
6
UPHY_RX11_P
D12
7
GND
8
UPHY_TX11_N
H13
9
UPHY_TX11_P
H12
10
Vin
1A, 5V
11
USB1_D_N
C10
12
USB1_D_P
C11
13
GND
14
UPHY_RX6_N
B17
15
UPHY_RX6_P
B16
16
GND
17
UPHY_TX6_N
K16
18
UPHY_TX6_P
K17
19
GND
20
GND
21
GND
22
GND
1
VDD_3V3
3.3V
2
SDA-1
Connected to I2C_GP2_Dat_LVS or I2C_GP2_DAT depending on config. I2C bus number 1.
3
SCL-1
Connected to I2C_GP2_CLK_LVS or I2C_GP2_CLK depending on config. I2C bus number 1.
4
GND
5
CAM1_MCLK
J28
Connected to J28 CAM LED pin 3
6
CAM1_PWDN
K57
Can be controlled with PWM01_40Pin (GPIO_07), default configuration is high, open drain output with pullup 2.2k to 3.3V, this also connects to CAM2_PWDN.
7
GND
8
CSI_7_D1_P
C47
9
CSI_7_D1_N
C48
10
GND
11
CSI_7_D0_P
A44
12
CSI_7_D0_N
A45
13
GND
14
CSI_6_CLK_P
J44
15
CSI_6_CLK_N
J45
16
GND
17
CSI_6_D1_P
H46
18
CSI_6_D1_N
H45
19
GND
20
CSI_6_D0_P
K44
21
CSI_6_D0_N
K43
22
GND
1
VDD_3V3
3.3V
2
VDD_3V3
3.3V
3
VDD_3V3
3.3V
4
GND
5
PEX_CLK0_P
E15
6
PEX_CLK0_N
E14
7
GND
8
UPHY_TX2_P
K21
9
UPHY_TX2_N
K20
10
GND
11
UPHY_RX2_P
B21
12
UPHY_RX2_N
B20
13
GND
14
UPHY_TX3_P
H20
15
UPHY_TX3_N
H21
16
GND
17
UPHY_RX3_P
D20
18
UPHY_RX3_N
D21
19
GND
20
UPHY_TX4_P
J18
21
UPHY_TX4_N
J19
22
GND
23
UPHY_RX4_P
A18
24
UPHY_RX4_N
A19
25
GND
26
UPHY_TX5_P
G19
27
UPHY_TX5_N
G18
28
GND
29
UPHY_RX5_P
C19
30
UPHY_RX5_N
C18
31
GND
32
PEX_WAKE_N
A8
33
PEX_L0_RST_N
D10
34
GND
35
I2C_GP2_DAT_LVS
K61
3.3V (2.2k pullup)
36
I2C_GP2_CLK_LVS
J61
3.3V 2.2k (pullup)
37
PEX_L0_CRQ_N
E11
38
VDD_3V3
3.3V
39
VDD_3V3
3.3V
40
VDD_3V3
3.3V
1
VDD
3.3V (5V optional)
2
I2C-GP5 (SDA)
3.3V (1.8V optional)
3
I2C-GP5 (SCL)
3.3V (1.8V optional)
4
GND
5
CAM2_PWDN
F57
Can be controlled with PWM01_40Pin (GPIO_07, socket pin F57), default configuration is high, open drain output with pullup 2.2k to 3.3V, this also connects to CAM1_PWDN
6
CAM2—MCLK
Connected to J28 CAM LED pin 3
7
GND
8
CSI_1_D1_P
J41
9
CSI_1_D1_N
J42
10
GND
11
CSI_1_D0_P
G41
12
CSI_1_D0_N
G42
13
GND
14
CSI_0_CLK_P
F43
15
CSI_0_CLK_N
F42
16
GND
17
CSI_1_D1_P
E39
18
CSI_1_D1_N
E38
19
GND
20
CSI_0_D0_P
E42
21
CSI_0_D0_N
E41
22
GND
1
VDD_5V
5V
2
VDD_3V3
3.3V
3
VDD_1V8
1.8V
4
SPI1_CS0
E55
5
SPI1_SCK
J57
6
SPI1_MOSI
D55
7
SPI1_MISO
A56
8
GND
1
VDD_5V
5V
2
I2C_GP5_SCL
A53
3.3V (2.2k pullup)
3
I2C_GP5_SDA
C53
3.3V (2.2k pullup)
4
GND
1
GND
2
GPIO17
A54
3
PEX_WAKE_N
A8
4
GND
5
PEX_L1_CRQ_N
D9
6
PEX_L1_RST_N
B9
7
GND
8
UPHY_RX0_N
A23
9
UPHY_RX0_P
A22
10
GND
11
UPHY_TX0_N
J23
12
UPHY_TX0_P
J22
13
GND
14
PEX_CLK1_N
F17
15
PEX_CLK1_P
F16
16
GND
17
VDD_3V3
3.3V
18
VDD_3V3
3.3V
19
GND
20
VDD_5V
5V
21
VDD_5V
5V
22
GND
1
VCC_SRC
12V
2
VCC_SRC
12V
3
VCC_SRC
12V
4
VCC_SRC
12V
5
GND
6
GND
7
GND
8
GND
1
GND
2
VDD_3V3
3.3V
3
D1_P
A10
Internal USB hub AND LM823 module share lane! HUB: USB2_D_P (socket pin A10)
4
D1_N
A11
Internal USB hub AND LM823 module share lane! HUB: USB2_D_N (socket pin A11)
5
VUSB2_3
5V 500mA (controlled by GPIO22 – EN=1)
1
GND
2
VDD_3V3
3.3V
3
D2_P
A10
Internal USB hub, HUB: USB2_D_P(socket pin A10)
4
D2_N
A11
Internal USB hub, HUB: USB2_D_N (socket pin A11)
5
VDD_5V
5V
LED-R
GPIO14
L15
ON = 1, default = 0 (red)
LED-G
GPIO16
F9
ON = 1, default = 0 (green)
LED-B
GPIO11
B8
ON = 1, default = 0 (blue)
1
VDD_3V3
2
WPS_U13
3
WPS_U14
4
GND
1
VDD
3V3
2
I2S3_DIN
J59
1.8V
3
I2S3_DOUT
K59
1.8V
4
I2S3_FS
C60
1.8V
5
I2S3_SCLK
C59
1.8V
6
GPIO24
J51
1.8V
7
GPIO19
K56
1.8V
8
GND
1
V_USB
5V 500mA (MCU control)
2
USB0-D N
F13
3
USB0-D P
F12
4
GND
1
VDD
3.3V
2
UART_TXD
3.3V, to safety MCU
3
UART_RXD
3.3V, to safety MCU
4
LTE_INT
3.3V, to safety MCU
5
UART5_TX
J58
3.3V, output
6
UART5_RX
H58
3.3V, input
7
UART5_RTS
K58
3.3V, output
8
GND
1
VCC_SRC_FET
Input Voltage = 12V (always on)
2
VCC_SRC_FET
Input Voltage = 12V (always on)
3
VCC_SRC
12V 1A max
4
VCC_SRC
12V 1A max
5
VCC_SRC
12V 1A max
6
GND
7
GND
8
GND
1
VDD
3.3V
2
UART1_TX
K53
3.3V
3
UART1_RX
K54
3.3V
4
GPIO_25_Out
D56
3.3V (output only)
5
GPIO_15_In
F10
3.3V (input only)
6
I2C_GP3_CLK
F53
3.3V (2.2k pullup)
7
I2C_GP3_DAT
E53
3.3V (2.2k pullup)
8
GND
1
VDD_5V
5V 1A max
2
VDD_5V
5V 1A max
3
GND
4
GND
1
VDD_1V8
1.8V
2
I2S2_SDIN
F6
1.8V
3
I2S2_SDOUT
F5
1.8V
4
I2S2_FS
E4
1.8V
5
I2S2_CLK
G4
1.8V
6
GND
1
I2C_GP4_CLK
D61
1k pullup to 1.8V
2
I2C_GP4_DAT
E60
1k pullup to 1.8V
3
GND
1
BUTTON_POWER_ON*
MCU
Low active, secondary power button
2
VIN_PWR_ON
MCU
High active, output for monitoring power up of main power control of carrier board
3
GND
0.1 | Initial document, internal verification process |
0.3 | Reduced board variety, fixed appendix B |
0.4 | Added AI Version and bottom pinout description and information about swapped labels for J5 and J28 |
1.0 | Integration of X221D-AI version |
1.1 | Added missing Information to several chapters |
1.2 | Ported Manual to Gitbook |
38500-1 | Initial release version |
Operating Voltage | 12V (20V abs. max) | 12V (20V abs. max) |
Jetson power modes | 30W + MAXN | 30W + MAXN |
Supported modules | AGX-Xavier, AGX-Xavier-Industrial | AGX-Xavier, AGX-Xavier-Industrial |
Supported module configurations | Configuration 2 | Configuration 2 |
Super Cap UPS | (optional) | (optional) |
RTC super cap | 200mF | 200mF |
Rechargeable lithium cell (MS621FE) | (optional) | (optional) |
Power out | - | 5V 2A (J35) 12V 3A (J31) |
Power/Reset/Force-Recovery Buttons | - | yes |
Revers voltage protection | yes | yes |
Overvoltage protection | yes | yes |
HDMI out (4kp60) | 1x | 1x |
USB 2.0 | 1x microUSB | 1x quad USB2.0 hub: (1: J41, 2: U14 (LM823), 3: U13 (LM823) (or J39 - optional)) 1x microUSB |
USB 3.0 | 2x USB-A (J15) +1x FPC (J3) | 2x USB-A (J15) + 1x FPC (J3) |
Safety MCU | - | yes (UART via LTE option) |
Basic MCU | yes | - |
GbE (RJ45) | 2x RTL8111 (PCIe to GbE) | 2x RTL8111 (PCIe to GbE) |
WIFI | - | - (2x optional LM823-1463) |
MicroSD/UFS card slot | - | 1x |
CAN1 (RX/TX only) (J6) | 1x | 1x |
CAN0 (J12) | 1x | 1x |
UART5 (user UART) | - | 1x RX/TX/RTS (3.3V) (J30) |
UART1 (user UART) | - | 1x UART1 (3.3V) + 2x GPIO |
SPI | 1x (1.8V) (J28) | 1x (1.8V) (J28) |
I2S | - | 1x I2S2 (1.8V) (J36) 1x I2S3 (1.8V) (J23) + 2x GPIO |
I2C | 2x J7 + J33 | 2x J7 + J33 1x J32 |
PCIe x4 | 1x 40p FPC (J20) | 1x 40p FPC (J20) |
PCIe x1 | 1x 22p FPC (J37) | 1x 22p FPC (J37) |
CSI-2 (4 lanes each) | 2x (3.3V) (J24+J19) 1.8V/5V opt. | 2x (3.3V) (J24+J19) 1.8V/5V opt. |
Auto flashing | yes | yes |
Debug port | yes (J10) | yes (J10) |
Fan connector (5V, PWM) | 1x | 1x |
RGB LED (GPIO controlled) | yes | yes |
Crypto authentication chip | - (planned for rev. 3) | - (planned for rev. 3) |
HDMI | 2.0, 4k60p |
USB 3.1 | 10Gb/s |
Physical size | 125mm x 104.6mm | 3D STP model available |
Mounting holes | For 4x M3 (3.2mm) |
Temperature range | -25°C to +70°C | Cold temperature monitoring with MCU optional |
Humidity | Noncondensing humidity |
Longevity | Very good | No temperature sensitive electrolytic capacitors used |
Carrier board logic | 1-2W |
1.8/3.3/5V power converter efficiency | >90% |
Power in converter efficiency | - |
extendable carrier board with M222, etc | X221 | X230 |
Developer series (fixed function) | X221D | X230D |
X231 = X230 plus 2x PCIe x8 connector | - | X231 |
Compatible board | X220 | X221D | X230D | X230/X231 |
Recommended configuration | config 2 | config 2 | config 2 | config 2 |
UPHY_RX0/TX0 | PCIe x1 |
| PCIe x1 FPC | GbE 2 |
UPHY_RX1/TX1 | USB 3 (ext. optional) | USB 3 FPC 12p | USB 3 Type A | USB 3 Type A |
UPHY_RX20/TX20 |
|
| USB 3 Type A | USB 3 Type A |
UPHY_RX21/TX21 |
|
| GbE 1 | GbE 1 |
UPHY_RX22/TX22 |
|
| GbE 2 | M.2 NVME (C4), RP |
UPHY_RX23/TX23 |
|
|
| M.2 NVME (C4), RP |
UPHY_RX10/TX10 | UFS | UFS |
| M.2 NVME (C4), RP |
UPHY_RX11/TX11 | USB 3 Type A | USB 3 Type A |
| M.2 NVME (C4), RP |
UPHY_RX11/TX11 | M.2 NVME | M.2 NVME | M.2 NVME | PCIe x8 (C5), RP/EP |
UPHY_RX13/TX13 | M.2 NVME | M.2 NVME | M.2 NVME | PCIe x8 (C5), RP/EP |
UPHY_RX14/TX14 | M.2 NVME | M.2 NVME | M.2 NVME | PCIe x8 (C5), RP/EP |
UPHY_RX15/TX15 | M.2 NVME | M.2 NVME | M.2 NVME | PCIe x8 (C5), RP/EP |
UPHY_RX16/TX16 |
|
|
| PCIe x8 (C5), RP/EP |
UPHY_RX17/TX17 |
|
|
| PCIe x8 (C5), RP/EP |
UPHY_RX18/TX18 |
|
|
| PCIe x8 (C5), RP/EP |
UPHY_RX19/TX19 |
|
|
| PCIe x8 (C5), RP/EP |
UPHY_RX2/TX2 | PCIe x4 on extension connector (for 38451 add-on) | PCIe x4 FPC (J20) | PCIe x4 FPC (J20) | PCIe x8 (C7), RP/EP |
UPHY_RX3/TX3 | PCIe x8 (C7), RP/EP |
UPHY_RX4/TX4 | PCIe x8 (C7), RP/EP |
UPHY_RX5/TX5 | PCIe x8 (C7), RP/EP |
UPHY_RX6/TX6 | USB 3 Type A | USB 3 Type A |
| PCIe x8 (C7), RP/EP |
UPHY_RX7/TX7 | GbE 1 | GbE 1 |
| PCIe x8 (C7), RP/EP |
UPHY_RX8/TX8 | GbE 2 | GbE 2 |
| PCIe x8 (C7), RP/EP |
UPHY_RX9/TX9 |
|
|
| PCIe x8 (C7), RP/EP |
X221D |
X221D-AI |
X221D with module and cooler |
70884 | Standard version |