ORCA SOM/ORCA Hardware/pdf

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Contents

General Information[edit | edit source]

ORCA Block Diagram[edit | edit source]

ORCA Block diagram

ORCA TOP View[edit | edit source]

ORCA TOP View

ORCA BOTTOM View[edit | edit source]

ORCA BOTTOM View


Processor and memory subsystem[edit | edit source]

The heart of ORCA module is composed by the following components:

  • i.MX8M Plus SoC application processor
  • Power supply unit
  • LPDDR4 memory bank
  • eMMC or NAND flash banks
  • Connectors:
    • 1 x 260 pins SO-DIMM edge connector with interfaces signals

This chapter shortly describes the main ORCA components.

Processor Info[edit | edit source]

Processor i.MX8M Plus Dual i.MX8M Plus Quad
# Cores 2x Arm® Cortex®-A53
1x Arm® Cortex®-M7
1x Hi-Fi4 DSP 		4x Arm® Cortex®-A53
1x Arm® Cortex®-M7
1x Hi-Fi4 DSP
Clock 1.8 GHz
L2 Cache 512 KB
LPDDR4 32 bit @ 2000 MHz
(LPDDR4-4000)
GPU 3D: Vivante GC 7000UL (2 Shader)
2D: Vivante GC520L

OpenGL ES 3.1
Vulkan
Open VG 1.1
Open CL 1.2

VPU 1080p60 H.265, H.264, VP9, VP8 decoder
1080p60 H.265, H.264 encoder
NPU 2.25 TOP/s Neural Processing Unit
Display Controller Dual Channel LVDS up to 1080p60
Video Output 1x HDMI 2.0a
1x MIPI-DSI (4-lanes)
Camera Input 2x MIPI CSI (4-lanes each)
2x ISP
Ethernet 2x 10/100/1000 Mbit/s controller with AVB and IEEE1588
PCIe 1x PCIe 3 (1-lane)
USB 2x USB 2.0/3.0
Table: i.MX8M Plus models comparison

RAM memory bank[edit | edit source]

LPDD4 SDRAM memory bank is composed by 1x 32-bit width chip. The following table reports the SDRAM specifications:

CPU connection Multi-mode DDR controller (MMDC)
Size max 8 GB
Width 32 bit
Speed 2000 MHz

eMMC flash bank[edit | edit source]

On board main storage memory eMMC is connected to the SDIO3 interface and it can act as boot peripheral. The following table reports the eMMC flash specifications:

CPU connection SDIO3
Size min 4 GB
Size max 64 GB
Bootable Yes

NAND flash bank[edit | edit source]

TBD.png Section not completed yet


Alternative option for main storage memory can be a 8-bit wide NAND flash connected to the CPU's Raw NAND flash controller. It can act as boot peripheral. The following table reports the NAND flash specifications:

CPU connection Raw NAND flash controller
Page size TBD
Size min TBD
Size max TBD
Width 8 bit
Chip select TBD
Bootable Yes

Memory map[edit | edit source]

For detailed information, please refer to chapter 2 “Memory Maps” of the i.MX8M Plus Applications Processor Reference Manual

Power supply unit[edit | edit source]

ORCA embeds all the elements required for powering the unit, therefore power sequencing is self-contained and simplified. Nevertheless, power must be provided from carrier board, and therefore users should be aware of the ranges power supply can assume as well as all other parameters.


Hardware versioning and tracking[edit | edit source]

ORCA SOM implements well established versioning and tracking mechanisms:

  • PCB version is copper printed on PCB itself, as shown in Fig. 1
  • serial number: it is printed on a white label, as shown in Fig. 2: see also Product serial number page for more details
  • ConfigID: it is used by software running on the board for the identification of the product model/hardware configuration. For more details, please refer to this link
    • On ORCA SOM ConfigID is stored on OTP memory


Fig.1 PCB version


File:ORCA-top-serial-number.png
Fig.2 Serial number



Part number composition[edit | edit source]

ORCA SOM module part number is identified by the following digit-code table:

Part number structure Options Description
Family DMU Family prefix code
SOC
  • A: MIMX8ML8CVNKZAB (i.MX 8M Plus Quad - Quad Core, VPU, NPU, ISP, CAN-FD - 1.6 GHz - Industrial - Tj=-40/105°C)
  • C: MIMX8ML3CVNKZAB (i.MX 8M Plus Dual - Dual Core, VPU, NPU, ISP, CAN-FD - 1.6 GHz - Industrial - Tj=-40/105°C)
  • E: MIMX8ML6DVNLZAB (i.MX 8M Plus Quad - Quad Core, VPU, NPU, ISP, CAN-FD - 1.8 GHz - Commercial - Tj=0/95°C)
  • F: MIMX8ML4CVNKZAB (i.MX 8M Plus Quad Lite - Quad Core, VPU, NPU, ISP, CAN-FD - 1.6 GHz - Industrial - Tj=-40/105°C)
  • G: MIMX8ML4DVNLZAB (i.MX 8M Plus Quad Lite - Quad Core, VPU, NPU, ISP, CAN-FD - 1.8 GHz - Commercial - Tj=0/95°C)
  • H: MIMX8ML3DVNLZAB (i.MX 8M Plus Dual - Dual Core, VPU, NPU, ISP, CAN-FD - 1.8 GHz - Commercial - Tj=0/95°C)
 Other versions can be available, please contact technical support
RAM
  • 0: 1GB DDR4
  • 1: 2GB DDR4
  • 2: 4GB DDR4
  • 3: 6GB DDR4
  • 4: 8GB DDR4
Storage eMMC/NAND/QSPI
  • 0: no storage
  • 1: 8GB eMMC, 16MB QSPI, No NAND
  • 2: No eMMC, No QSPI, 1GB NAND
  • 3: 8GB eMMC, No QSPI, No NAND
 NAND SLC and eMMC are possible alternatives not available together. QSPI can be mounted or not. Other versions can be available, please contact technical support
Mounting Options
  • 0: EdgeLock SE050, 32.768K X2, Voltage monitor, SD1 3.3V, SD2 3.3V
  • 1: EdgeLock SE050, 32.768K X2, Voltage monitor, SD1 1.8V, SD2 3.3V
  • 2: No EdgeLock SE050, 32.768K X2, Voltage monitor, SD1 1.8V, SD2 3.3V
 Other versions can be available, please contact technical support
RFU
  • 0: RFU
Temperature range
  • C - Commercial grade: 0 to +70°C
  • E - Extended grade: -20 to +85°C
  • I - Industrial grade: -40 to +85°C
 Other versions can be available, please contact technical support

For the DAVE Embedded Systems' product Temperature Range classification, please find more information at the page Products Classification
PCB revision
  • 0: first version
 PCB release may change for manufacturing purposes (i.e. text fixture adaptation)
Manufacturing option
  • R: RoHS compliant
 typically connected to production process and quality
Software Configuration
  • -00: MAC address only
 If customers require custom SW deployed this section should be defined and agreed. Please contact technical support

Example[edit | edit source]

ORCA SOM code DMUA2300E0R-00

  • DMU - ORCA SOM
  • A - MIMX8ML8CVNKZAB (i.MX 8M Plus Quad - Quad Core, VPU, NPU, ISP, CAN-FD - 1.6 GHz - Industrial - Tj=-40/105°C)
  • 2 - 4GB DDR4
  • 3 - 8GB eMMC, No QSPI, No NAND
  • 0 - EdgeLock SE050, 32.768K X2, Voltage monitor, SD1 interface @ 3V3
  • 0 - RFU
  • E - Extended grade: -20 to +85°C
  • 0 - first version
  • R - RoHS compliant
  • -00 - MAC address only

Pinout Table[edit | edit source]

Connectors and Pinout Table[edit | edit source]

Connectors description[edit | edit source]

In the following table are described all available connectors integrated on ORCA SOM:

Connector name Connector Type Notes Carrier board counterpart
J1 SODIMM DDR4 edge connector 260 pin TE Connectivity 2309407-1

The dedicated carrier board must mount the mating connector and connect the desired peripheral interfaces according to ORCA pinout specifications. See the images below for reference:

ORCA TOP view
ORCA BOTTOM view

Pinout table naming conventions[edit | edit source]

This chapter contains the pinout description of the ORCA module, grouped in two tables (odd and even pins) that report the pin mapping of the 260-pin DDR4 SO-DIMM ORCA connector.

Each row in the pinout tables contains the following information:

Pin Reference to the connector pin
Pin Name Pin (signal) name on the ORCA connectors
Internal
connections 		Connections to the ORCA components
  • CPU.<x> : pin connected to CPU pad named <x>
  • PMIC.<x> : pin connected to the Power Manager IC PCA9450
  • LAN.<x> : pin connected to the LAN PHY KSZ9131
  • eMMC.<x>: pin connected to the flash eMMC
  • NOR.<x>: pin connected to the flash NOR
  • NAND.<x>: pin connected to the flash NAND
  • MTR: pin connected to voltage monitors
  • SE: pin connected to Secure Element unit SE050
Ball/pin # Component ball/pin number connected to signal
Voltage I/O voltage levels
Type Pin type:
  • I = Input
  • O = Output
  • D = Differential
  • Z = High impedance
  • S = Power supply voltage
  • G = Ground
  • A = Analog signal
Notes Remarks on special pin characteristics
Pin MUX alternative functions Muxes:
  • Pin ALT-0
  • ...
  • Pin ALT-N

The number of functions depends on platform

Pinout Table ODD pins declaration[edit | edit source]

Pin Pin Name Internal Connections Ball/pin # Voltage domain Type Notes Alternative Functions
J1.1 DGND DGND - - G
J1.3 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.5 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.7 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.9 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.11 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.13 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.15 CPU_ONOFF CPU.ONOFF G22 NVCC_SNVS_1V8 I/O internal pull-up 100k to NVCC_SNVS_1V8
J1.17 CPU_PORn CPU.POR_B

PMIC.POR_B

J29

9

NVCC_SNVS_1V8 I/O internal pull-up 100k to NVCC_SNVS_1V8
J1.19 PMIC_ON_REQ

//VMON_RST

CPU.PMIC_ON_REQ

PMIC.PMIC_ON_REQ

F22

39

NVCC_SNVS_1V8 I/O more information on Reset scheme page
J1.21 PMIC_RST_B PMIC.PMIC_RST_B 8 NVCC_SNVS_1V8 I/O internal pull-up 100k to NVCC_SNVS_1V8
J1.23 BOARD_PGOOD MTR.RESET_B 2 NVCC_3V3 O
J1.25 BOOT_MODE0 CPU.BOOT_MODE0 G10 NVCC_3V3 I internal 10k pull-up or pull-down

according to specific model

J1.27 BOOT_MODE1 CPU.BOOT_MODE1 F8 NVCC_3V3 I internal 10k pull-up or pull-down

according to specific model

J1.29 BOOT_MODE2 CPU.BOOT_MODE2 G8 NVCC_3V3 I internal 10k pull-up or pull-down

according to specific model

J1.31 DGND DGND - - G
J1.33 LVDS0_D3_N CPU.LVDS0_D3_N J28 - D
J1.35 LVDS0_D3_P CPU.LVDS0_D3_P H29 - D
J1.37 LVDS0_D2_N CPU.LVDS0_D2_N H28 - D
J1.39 LVDS0_D2_P CPU.LVDS0_D2_P G29 - D
J1.41 LVDS0_CLK_N CPU.LVDS0_CLK_N G28 - D
J1.43 LVDS0_CLK_P CPU.LVDS0_CLK_P F29 - D
J1.45 LVDS0_D1_N CPU.LVDS0_D1_N F28 - D
J1.47 LVDS0_D1_P CPU.LVDS0_D1_P E29 - D
J1.49 LVDS0_D0_N CPU.LVDS0_D0_N E28 - D
J1.51 LVDS0_D0_P CPU.LVDS0_D0_P D29 - D
J1.53 DGND DGND - - G
J1.55 LVDS1_D3_N CPU.LVDS1_D3_N D28 - D
J1.57 LVDS1_D3_P CPU.LVDS1_D3_P C29 - D
J1.59 LVDS1_D2_N CPU.LVDS1_D2_N C28 - D
J1.61 LVDS1_D2_P CPU.LVDS1_D2_P B29 - D
J1.63 LVDS1_CLK_N CPU.LVDS1_CLK_N B28 - D
J1.65 LVDS1_CLK_P CPU.LVDS1_CLK_P A28 - D
J1.67 LVDS1_D1_N CPU.LVDS1_D1_N B27 - D
J1.69 LVDS1_D1_P CPU.LVDS1_D1_P A27 - D
J1.71 LVDS1_D0_N CPU.LVDS1_D0_N B26 - D
J1.73 LVDS1_D0_P CPU.LVDS1_D0_P A26 - D
J1.75 DGND DGND - - G
J1.77 MIPI_CSI2_D0_P CPU.MIPI_CSI2_D0_P A25 - D
J1.79 MIPI_CSI2_D0_N CPU.MIPI_CSI2_D0_N B25 - D
J1.81 MIPI_CSI2_D1_P CPU.MIPI_CSI2_D1_P A24 - D
J1.83 MIPI_CSI2_D1_N CPU.MIPI_CSI2_D1_N B24 - D
J1.85 MIPI_CSI2_CLK_P CPU.MIPI_CSI2_CLK_P A23 - D
J1.87 MIPI_CSI2_CLK_N CPU.MIPI_CSI2_CLK_N B23 - D
J1.89 MIPI_CSI2_D2_P CPU.MIPI_CSI2_D2_P A22 - D
J1.91 MIPI_CSI2_D2_N CPU.MIPI_CSI2_D2_N B22 - D
J1.93 MIPI_CSI2_D3_P CPU.MIPI_CSI2_D3_P A21 - D
J1.95 MIPI_CSI2_D3_N CPU.MIPI_CSI2_D3_N B21 - D
J1.97 DGND DGND - - G
J1.99 MIPI_CSI1_D3_P CPU.MIPI_CSI1_D3_P D26 - D
J1.101 MIPI_CSI1_D3_N CPU.MIPI_CSI1_D3_N E26 - D
J1.103 MIPI_CSI1_D2_P CPU.MIPI_CSI1_D2_P D24 - D
J1.105 MIPI_CSI1_D2_N CPU.MIPI_CSI1_D2_N E24 - D
J1.107 MIPI_CSI1_CLK_P CPU.MIPI_CSI1_CLK_P D22 - D
J1.109 MIPI_CSI1_CLK_N CPU.MIPI_CSI1_CLK_N E22 - D
J1.111 MIPI_CSI1_D1_P CPU.MIPI_CSI1_D1_P D20 - D
J1.113 MIPI_CSI1_D1_N CPU.MIPI_CSI1_D1_N E20 - D
J1.115 MIPI_CSI1_D0_P CPU.MIPI_CSI1_D0_P D18 - D
J1.117 MIPI_CSI1_D0_N CPU.MIPI_CSI1_D0_N E18 - D
J1.119 DGND DGND - - G
J1.121 MIPI_DSI1_D3_P CPU.MIPI_DSI1_D3_P A20 - D
J1.123 MIPI_DSI1_D3_N CPU.MIPI_DSI1_D3_N B20 - D
J1.125 MIPI_DSI1_D2_P CPU.MIPI_DSI1_D2_P A19 - D
J1.127 MIPI_DSI1_D2_N CPU.MIPI_DSI1_D2_N B19 - D
J1.129 MIPI_DSI1_CLK_P CPU.MIPI_DSI1_CLK_P A18 - D
J1.131 MIPI_DSI1_CLK_N CPU.MIPI_DSI1_CLK_N B18 - D
J1.133 MIPI_DSI1_D1_P CPU.MIPI_DSI1_D1_P A17 - D
J1.135 MIPI_DSI1_D1_N CPU.MIPI_DSI1_D1_N B17 - D
J1.137 MIPI_DSI1_D0_P CPU.MIPI_DSI1_D0_P A16 - D
J1.139 MIPI_DSI1_D0_N CPU.MIPI_DSI1_D0_N B16 - D
J1.141 DGND DGND - - G
J1.143 JTAG_MOD CPU.JTAG_MOD G20 NVCC_3V3 I/O
J1.145 JTAG_TCK CPU.JTAG_TCK G18 NVCC_3V3 I/O
J1.147 JTAG_TDI CPU.JTAG_TDI G16 NVCC_3V3 I
J1.149 JTAG_TMS CPU.JTAG_TMS G14 NVCC_3V3 I/O
J1.151 JTAG_TDO CPU.JTAG_TDO F14 NVCC_3V3 O
J1.153 DGND DGND - - G
J1.155 PCIE_REF_PAD_CLK_P CPU.PCIE_REF_PAD_CLK_P D16 - D
J1.157 PCIE_REF_PAD_CLK_N CPU.PCIE_REF_PAD_CLK_N E16 - D
J1.159 PCIE_TXN_P CPU.PCIE_TXN_P A15 - D
J1.161 PCIE_TXN_N CPU.PCIE_TXN_N B15 - D
J1.163 PCIE_RXN_P CPU.PCIE_RXN_P A14 - D
J1.165 PCIE_RXN_N CPU.PCIE_RXN_N B14 - D
J1.167 DGND DGND - - G
J1.169 USB2_VBUS USB2_VBUS - - S See USB section for details (5-20V tolerance)
J1.171 DNU DNU - - - DNU stands for Do Not Use.

This pin must be left unconnected/floating.

J1.173 USB2_D_P CPU.USB2_D_P D14 - D
J1.175 USB2_D_N CPU.USB2_D_N E14 - D
J1.177 DGND DGND - - G
J1.179 USB2_TX_P CPU.USB2_TX_P A13 - D
J1.181 USB2_TX_N CPU.USB2_TX_N B13 - D
J1.183 USB2_RX_P CPU.USB2_RX_P A12 - D
J1.185 USB2_RX_N CPU.USB2_RX_N B12 - D
J1.187 DGND DGND - - G
J1.189 USB1_VBUS USB1_VBUS - - S See USB section for details (5-20V tolerance)
J1.191 ETH0_INTn LAN.INT_N/PME_N2 38 VDD_1V8 O Must be level translated if used @ 3V3

Internally pulled-up to 1.8V

J1.193 USB1_D_P CPU.USB1_D_P D10 - D
J1.195 USB1_D_N CPU.USB1_D_N E10 - D
J1.197 DGND DGND - - G
J1.199 USB1_TX_P CPU.USB1_TX_P A10 - D
J1.201 USB1_TX_N CPU.USB1_TX_N B10 - D
J1.203 USB1_RX_P CPU.USB1_RX_P A9 - D
J1.205 USB1_RX_N CPU.USB1_RX_N B9 - D
J1.207 DGND DGND - - G
J1.209 GPIO1_IO08 CPU.GPIO1_IO08 A8 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO08
Pin ALT-1 ENET_QOS_1588_EVENT0_IN
Pin ALT-2 PWM1_OUT
Pin ALT-3 ISP_PRELIGHT_TRIG_1
Pin ALT-4 ENET_QOS_1588_EVENT0_AUX_IN
Pin ALT-5 USDHC2_RESET_B
J1.211 GPIO1_IO11 CPU.GPIO1_IO11 D8 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO11
Pin ALT-1 USB2_OTG_ID
Pin ALT-2 PWM2_OUT
Pin ALT-4 USDHC3_VSELECT
Pin ALT-5 CCM_PMIC_READY
J1.213 GPIO1_IO09 CPU.GPIO1_IO09 B8 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO09
Pin ALT-1 ENET_QOS_1588_EVENT0_OUT
Pin ALT-2 PWM2_OUT
Pin ALT-3 ISP_SHUTTER_OPEN_1
Pin ALT-4 USDHC3_RESET_B
Pin ALT-5 SDMA2_EXT_EVENT00
J1.215 GPIO1_IO00 CPU.GPIO1_IO00 A7 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO00
Pin ALT-1 CCM_ENET_PHY_REF_CLK_ROOT
Pin ALT-3 ISP_FL_TRIG_0
Pin ALT-6 CCM_EXT_CLK1
J1.217 GPIO1_IO01 CPU.GPIO1_IO01 E8 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO01
Pin ALT-1 PWM1_OUT
Pin ALT-3 ISP_SHUTTER_TRIG_0
Pin ALT-6 CCM_EXT_CLK2
J1.219 GPIO1_IO10 CPU.GPIO1_IO10 B7 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO10
Pin ALT-1 USB1_OTG_ID
Pin ALT-2 PWM3_OUT
J1.221 GPIO1_IO13 CPU.GPIO1_IO13 A6 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO13
Pin ALT-1 TUSB1_OTG_OCBD
Pin ALT-5 PWM2_OUT
J1.223 GPIO1_IO12 CPU.GPIO1_IO12 A5 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO12
Pin ALT-1 USB1_OTG_PWR
Pin ALT-5 SDMA2_EXT_EVENT01
J1.225 GPIO1_IO07 CPU.GPIO1_IO07 F6 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO07
Pin ALT-1 ENET_QOS_MDIO
Pin ALT-3 ISP_FLASH_TRIG_1
Pin ALT-5 USDHC1_WP
Pin ALT-6 CCM_EXT_CLK4
J1.227 GPIO1_IO15 CPU.GPIO1_IO15 B5 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO15
Pin ALT-1 USB2_OTG_OC
Pin ALT-4 USDHC3_WP
Pin ALT-5 PWM4_OUT
Pin ALT-6 CCM_CLKO2
J1.229 GPIO1_IO14 CPU.GPIO1_IO14 A4 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO14
Pin ALT-1 USB2_OTG_PWR
Pin ALT-4 USDHC3_CD_B
Pin ALT-5 PWM3_OUT
Pin ALT-6 CCM_CLKO1
J1.231 GPIO1_IO05 CPU.GPIO1_IO05 B4 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO05
Pin ALT-1 M7_NMI
Pin ALT-3 ISP_FL_TRIG_1
Pin ALT-6 CCM_PMIC_READY
J1.233 GPIO1_IO06 CPU.GPIO1_IO06 A3 NVCC_3V3 I/O Pin ALT-0 GPIO1_IO06
Pin ALT-1 ENET_QOS_MDC
Pin ALT-3 ISP_SHUTTER_TRIG_1
Pin ALT-5 USDHC1_CD_B
Pin ALT-6 CCM_EXT_CLK3
J1.235 DGND DGND - - G
J1.237 ETH0_TXRX3_M LAN.TXTRM_D 11 - D
J1.239 ETH0_TXRX3_P LAN.TXTRP_D 10 - D
J1.241 ETH0_TXRX2_M LAN.TXTRM_C 8 - D
J1.243 ETH0_TXRX2_P LAN.TXTRP_C 7 - D
J1.245 ETH0_TXRX1_M LAN.TXTRM_B 6 - D
J1.247 ETH0_TXRX1_P LAN.TXTRP_B 5 - D
J1.249 ETH0_TXRX0_M LAN.TXTRM_A 3 - D
J1.251 ETH0_TXRX0_P LAN.TXTRP_A 2 - D
J1.253 DGND DGND - - G
J1.255 ETH0_LED1 LAN.LED2 15 VDD_1V8 O Must be level translated if used @ 3V3

Internally pulled-up to 1.8V during bootstrap

J1.257 ETH0_LED2 LAN.LED1/PME_N1 17 VDD_1V8 O Must be level translated if used @ 3V3

Internally pulled-up to 1.8V during bootstrap

J1.259 DGND DGND - - G

Pinout Table EVEN pins declaration[edit | edit source]

Pin Pin Name Internal Connections Ball/pin # Voltage domain Type Notes Alternative Functions
J1.2 DGND DGND - - G
J1.4 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.6 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.8 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.10 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.12 VIN_SOM INPUT VOLTAGE - 3.3VIN S
J1.14 DGND DGND - - G
J1.16 SD1_CLK CPU.SD1_CLK W28 NVCC_3V3 I/O Pin ALT-0 USDHC1_CLK
Pin ALT-1 ENET1_MDC
Pin ALT-3 I2C5_SCL
Pin ALT-4 UART1_TX
Pin ALT-5 GPIO2_IO[0]
J1.18 SD1_CMD CPU.SD1_CMD W29 NVCC_3V3 I/O Pin ALT-0 USDHC1_CMD
Pin ALT-1 ENET1_MDIO
Pin ALT-3 I2C5_SDA
Pin ALT-4 UART1_RX
Pin ALT-5 GPIO2_IO[1]
J1.20 SD1_DATA0 CPU.SD1_DATA0 Y29 NVCC_3V3 I/O Pin ALT-0 USDHC1_DATA0
Pin ALT-1 ENET1_RGMII_TD1
Pin ALT-3 I2C6_SCL
Pin ALT-4 UART1_RTS_B
Pin ALT-5 GPIO2_IO[2]
J1.22 SD1_DATA1 CPU.SD1_DATA1 Y28 NVCC_3V3 I/O Pin ALT-0 USDHC1_DATA1
Pin ALT-1 ENET1_RGMII_TD0
Pin ALT-3 I2C6_SDA
Pin ALT-4 UART1_CTS_B
Pin ALT-5 GPIO2_IO[3]
J1.24 SD1_DATA2 CPU.SD1_DATA2 V29 NVCC_3V3 I/O Pin ALT-0 USDHC1_DATA2
Pin ALT-1 ENET1_RGMII_RD0
Pin ALT-3 I2C4_SCL
Pin ALT-4 UART2_TX
Pin ALT-5 GPIO2_IO[4]
J1.26 SD1_DATA3 CPU.SD1_DATA3 V28 NVCC_3V3 I/O Pin ALT-0 USDHC1_DATA3
Pin ALT-1 ENET1_RGMII_RD1
Pin ALT-3 I2C4_SDA
Pin ALT-4 UART2_RX
Pin ALT-5 GPIO2_IO[5]
J1.28 SD1_DATA4 CPU.SD1_DATA4 U26 NVCC_3V3 I/O Pin ALT-0 USDHC1_DATA4
Pin ALT-1 ENET1_RGMII_TX_CTL
Pin ALT-3 I2C1_SCL
Pin ALT-4 UART2_RTS_B
Pin ALT-5 GPIO2_IO[6]
J1.30 SD1_DATA5 CPU.SD1_DATA5 AA29 NVCC_3V3 I/O Pin ALT-0 USDHC1_DATA5
Pin ALT-1 ENET1_TX_ER
Pin ALT-3 I2C1_SDA
Pin ALT-4 UART2_CTS_B
Pin ALT-5 GPIO2_IO[7]
J1.32 SD1_DATA6 CPU.SD1_DATA6 AA28 NVCC_3V3 I/O Pin ALT-0 USDHC1_DATA6
Pin ALT-1 FLEXSPI_B_DATA[2]
Pin ALT-2 USDHC3_DATA2
Pin ALT-3 FLEXSPI_A_DATA[6]
Pin ALT-4 ISP_PRELIGHT_TRIG_1
Pin ALT-5 GPIO3_IO[12]
J1.34 SD1_DATA7 CPU.SD1_DATA7 U25 NVCC_3V3 I/O Pin ALT-0 USDHC1_DATA7
Pin ALT-1 ENET1_RX_ER
Pin ALT-3 I2C2_SDA
Pin ALT-4 UART3_RX
Pin ALT-5 GPIO2_IO[9]
J1.36 SD1_RESET_B CPU.SD1_RESET_B W25 NVCC_3V3 I/O Pin ALT-0 USDHC1_RESET_B
Pin ALT-1 ENET1_TX_CLK
Pin ALT-3 I2C3_SCL
Pin ALT-4 UART3_RTS_B
Pin ALT-5 GPIO2_IO[10]
J1.38 SD1_STROBE CPU.SD1_STROBE W26 NVCC_3V3 I/O Pin ALT-0 USDHC1_STROBE
Pin ALT-3 I2C3_SDA
Pin ALT-4 UART3_CTS_B
Pin ALT-5 GPIO2_IO[11]
J1.40 DGND DGND - - G
J1.42 SD2_CD_B CPU.SD2_CD_B AD29 NVCC_3V3 I/O Pin ALT-0 USDHC2_CD_B
Pin ALT-5 GPIO2_IO[12]
J1.44 SD2_CLK CPU.SD2_CLK AB29 NVCC_3V3 I/O Pin ALT-0 USDHC2_CLK
Pin ALT-2 ECSPI2_SCLK
Pin ALT-3 UART4_RX
Pin ALT-5 GPIO2_IO[13]
J1.46 SD2_CMD CPU.SD2_CMD AB28 NVCC_3V3 I/O Pin ALT-0 USDHC2_CMD
Pin ALT-2 ECSPI2_MOSI
Pin ALT-3 UART4_TX
Pin ALT-4 AUDIOMIX_CLK
Pin ALT-5 GPIO2_IO[14]
J1.48 SD2_DATA0 CPU.SD2_DATA0 AC28 NVCC_3V3 I/O Pin ALT-0 USDHC2_DATA0
Pin ALT-2 I2C4_SDA
Pin ALT-3 UART2_RX
Pin ALT-4 AUDIOMIX_BIT_STREAM[0]
Pin ALT-5 GPIO2_IO[15]
J1.50 SD2_DATA1 CPU.SD2_DATA1 AC29 NVCC_3V3 I/O Pin ALT-0 USDHC2_DATA1
Pin ALT-2 I2C4_SCL
Pin ALT-3 UART2_TX
Pin ALT-4 AUDIOMIX_BIT_STREAM[1]
Pin ALT-5 GPIO2_IO[16]
J1.52 SD2_DATA2 CPU.SD2_DATA2 AA26 NVCC_3V3 I/O Pin ALT-0 USDHC2_DATA2
Pin ALT-2 ECSPI2_SS0
Pin ALT-3 AUDIOMIX_SPDIF_OUT
Pin ALT-4 AUDIOMIX_BIT_STREAM[2]
Pin ALT-5 GPIO2_IO[17]
J1.54 SD2_DATA3 CPU.SD2_DATA3 AA25 NVCC_3V3 I/O Pin ALT-0 USDHC2_DATA3
Pin ALT-2 ECSPI2_MISO
Pin ALT-3 AUDIOMIX_SPDIF_IN
Pin ALT-4 AUDIOMIX_BIT_STREAM[3]
Pin ALT-5 GPIO2_IO[18]
Pin ALT-6 SRC_EARLY_RESET
J1.56 SD2_RESET_B CPU.SD2_RESET_B AD28 NVCC_3V3 I/O Pin ALT-0 USDHC2_RESET_B
Pin ALT-5 GPIO2_IO[19]
Pin ALT-6 SRC_SYSTEM_RESET
J1.58 SD2_WP CPU.SD2_WP AC26 NVCC_3V3 I/O Pin ALT-0 USDHC2_WP
Pin ALT-5 GPIO2_IO[20]
Pin ALT-6 CORESIGHT_EVENTI
J1.58

(both NAND and

NOR on board)

SD2_WP CPU.SD2_WP AC26 NVCC_3V3 O internal use for

NAND/NOR selection,

do not connect

J1.60 DGND DGND - - G
J1.62 CLKIN1 CPU.CLKIN1 K28 NVCC_3V3 I
J1.64 CLKIN2 CPU.CLKIN2 L28 NVCC_3V3 I
J1.66 DGND DGND - - G
J1.68 CLKOUT1 CPU.CLKOUT1 K29 NVCC_3V3 O
J1.70 CLKOUT2 CPU.CLKOUT2 L29 NVCC_3V3 O
J1.72 DGND DGND - - G
J1.74 HDMI_CEC CPU.HDMI_CEC AD22 NVCC_3V3 I/O Pin ALT-0 HDMIMIX_EARC_CEC
Pin ALT-3 I2C6_SCL
Pin ALT-4 CAN2_TX
Pin ALT-5 GPIO3_IO[28]
J1.76 HDMI_DDC_SCL CPU.HDMI_DDC_SCL AC22 NVCC_3V3 I/O Pin ALT-0 HDMIMIX_EARC_SCL
Pin ALT-3 I2C5_SCL
Pin ALT-4 CAN1_TX
Pin ALT-5 GPIO3_IO[26]
J1.78 HDMI_DDC_SDA CPU.HDMI_DDC_SDA AF22 NVCC_3V3 I/O Pin ALT-0 HDMIMIX_EARC_SDA
Pin ALT-3 I2C5_SDA
Pin ALT-4 CAN1_RX
Pin ALT-5 GPIO3_IO[27]
J1.80 HDMI_HPD CPU.HDMI_HPD AE22 NVCC_3V3 I/O Pin ALT-0 HDMIMIX_EARC_DC_HPD
Pin ALT-1 AUDIOMIX_EARC_HDMI_HPD_O
Pin ALT-3 I2C6_SDA
Pin ALT-4 CAN2_RX
Pin ALT-5 GPIO3_IO[29]
J1.82 DGND DGND - - G
J1.84 HDMI_TXC_N CPU.HDMI_TXC_N AJ24 - D
J1.86 HDMI_TXC_P CPU.HDMI_TXC_P AH24 - D
J1.88 HDMI_TX0_N CPU.HDMI_TX0_N AJ25 - D
J1.90 HDMI_TX0_P CPU.HDMI_TX0_P AH25 - D
J1.92 HDMI_TX1_N CPU.HDMI_TX1_N AJ26 - D
J1.94 HDMI_TX1_P CPU.HDMI_TX1_P AH26 - D
J1.96 HDMI_TX2_N CPU.HDMI_TX2_N AJ27 - D
J1.98 HDMI_TX2_P CPU.HDMI_TX2_P AH27 - D
J1.100 DGND DGND - - G
J1.102 EARC_P_UTIL CPU.EARC_P_UTIL AJ23 VDDA_1V8 D
J1.104 EARC_N_HPD CPU.EARC_N_HPD AH22 VDDA_1V8 D
J1.106 EARC_AUX CPU.EARC_AUX AH23 VDDA_1V8 I/O
J1.108 DGND DGND - - G
J1.110 ECSPI1_MISO CPU.ECSPI1_MISO AD20 NVCC_3V3 I/O Pin ALT-0 ECSPI1_MISO
Pin ALT-1 UART3_CTS_B
Pin ALT-2 I2C2_SCL
Pin ALT-3 AUDIOMIX_SAI7_RX_DATA[0]
Pin ALT-5 GPIO5_IO[8]
J1.112 ECSPI1_MOSI CPU.ECSPI1_MOSI AC20 NVCC_3V3 I/O Pin ALT-0 ECSPI1_MOSI
Pin ALT-1 UART3_TX
Pin ALT-2 I2C1_SDA
Pin ALT-3 AUDIOMIX_SAI7_RX_BCLK
Pin ALT-5 GPIO5_IO[7]
J1.114 ECSPI1_SCLK CPU.ECSPI1_SCLK AF20 NVCC_3V3 I/O Pin ALT-0 ECSPI1_SCLK
Pin ALT-1 UART3_RX
Pin ALT-2 I2C1_SCL
Pin ALT-3 AUDIOMIX_SAI7_RX_SYNC
Pin ALT-5 GPIO5_IO[6]
J1.116 ECSPI1_SS0 CPU.ECSPI1_SS0 AE20 NVCC_3V3 I/O Pin ALT-0 ECSPI1_SS0
Pin ALT-1 UART3_RTS_B
Pin ALT-2 I2C2_SDA
Pin ALT-3 AUDIOMIX_SAI7_TX_SYNC
Pin ALT-5 GPIO5_IO[9]
J1.118 DGND DGND - - G
J1.120 ECSPI2_MISO CPU.ECSPI2_MISO AH20 NVCC_3V3 I/O Pin ALT-0 ECSPI2_MISO
Pin ALT-1 UART4_CTS_B
Pin ALT-2 I2C4_SCL
Pin ALT-3 AUDIOMIX_SAI7_MCLK
Pin ALT-4 CCM_CLKO1
Pin ALT-5 GPIO5_IO[12]
J1.122 ECSPI2_MOSI CPU.ECSPI2_MOSI AJ21 NVCC_3V3 I/O Pin ALT-0 ECSPI2_MOSI
Pin ALT-1 UART4_TX
Pin ALT-2 I2C3_SDA
Pin ALT-3 AUDIOMIX_SAI7_TX_DATA[0]
Pin ALT-5 GPIO5_IO[11]
J1.124 ECSPI2_SCLK CPU.ECSPI2_SCLK AH21 NVCC_3V3 I/O Pin ALT-0 ECSPI2_SCLK
Pin ALT-1 UART4_RX
Pin ALT-2 I2C3_SCL
Pin ALT-3 AUDIOMIX_SAI7_TX_BCLK
Pin ALT-5 GPIO5_IO[10]
J1.126 ECSPI2_SS0 CPU.ECSPI2_SS0 AJ22 NVCC_3V3 I/O Pin ALT-0 ECSPI2_SS0
Pin ALT-1 UART4_RTS_B
Pin ALT-2 I2C4_SDA
Pin ALT-4 CCM_CLKO2
Pin ALT-5 GPIO5_IO[13]
J1.128 DGND DGND - - G
J1.130 SPDIF_EXT_CLK//

ISP_FL_TRIG_0

CPU.SPDIF_EXT_CLK AC18 NVCC_3V3 I/O Hardware mounting option depending on order code

SPDIF or ISP (*)

Pin ALT-0 AUDIOMIX_SPDIF_EXT_CLK
Pin ALT-1 PWM1_OUT
Pin ALT-3 GPT1_COMPARE3
Pin ALT-5 GPIO5_IO[5]
J1.132 SPDIF_RX//

ISP_SHUTTER_TRIG_0

CPU.SPDIF_RX AD18 NVCC_3V3 I/O Hardware mounting option depending on order code

SPDIF or ISP (*)

Pin ALT-0 AUDIOMIX_SPDIF_IN
Pin ALT-1 PWM2_OUT
Pin ALT-2 I2C5_SDA
Pin ALT-3 GPT1_COMPARE2
Pin ALT-4 CAN1_RX
Pin ALT-5 GPIO5_IO[4]
J1.134 SPDIF_TX//

ISP_FLASH_TRIG_0

CPU.SPDIF_TX AE18 NVCC_3V3 I/O Hardware mounting option depending on order code

SPDIF or ISP (*)

Pin ALT-0 AUDIOMIX_SPDIF_OUT
Pin ALT-1 PWM3_OUT
Pin ALT-2 I2C5_SCL
Pin ALT-3 GPT1_COMPARE1
Pin ALT-4 CAN1_TX
Pin ALT-5 GPIO5_IO[3]
J1.136 DGND DGND - - G
J1.138 SAI2_MCLK CPU.SAI2_MCLK AJ15 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI2_MCLK
Pin ALT-1 AUDIOMIX_SAI5_MCLK
Pin ALT-2 ENET_QOS_1588_EVENT3_IN
Pin ALT-3 CAN2_RX
Pin ALT-4 ENET_QOS_1588_EVENT3_AUX_IN
Pin ALT-5 GPIO4_IO[27]
Pin ALT-6 AUDIOMIX_SAI3_MCLK
J1.140 SAI2_RXC CPU.SAI2_RXC AJ16 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI2_RX_BCLK
Pin ALT-1 AUDIOMIX_SAI5_TX_BCLK
Pin ALT-3 CAN1_TX
Pin ALT-4 UART1_RX
Pin ALT-5 GPIO4_IO[22]
Pin ALT-6 AUDIOMIX_BIT_STREAM[1]
J1.142 SAI2_RXD0 CPU.SAI2_RXD0 AJ14 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI2_RX_DATA[0]
Pin ALT-1 AUDIOMIX_SAI5_TX_DATA[0]
Pin ALT-2 ENET_QOS_1588_EVENT2_OUT
Pin ALT-3 AUDIOMIX_SAI2_TX_DATA[1]
Pin ALT-4 UART1_RTS_B
Pin ALT-5 GPIO4_IO[23]
Pin ALT-6 AUDIOMIX_PDM_BIT_STREAM[3]
J1.144 SAI2_RXFS CPU.SAI2_RXFS AH17 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI2_RX_SYNC
Pin ALT-1 AUDIOMIX_SAI5_TX_SYNC
Pin ALT-2 AUDIOMIX_SAI5_TX_DATA[1]
Pin ALT-3 AUDIOMIX_SAI2_RX_DATA[1]
Pin ALT-4 UART1_TX
Pin ALT-5 GPIO4_IO[21]
Pin ALT-6 AUDIOMIX_BIT_STREAM[2]
J1.146 SAI2_TXC CPU.SAI2_TXC AH15 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI2_TX_BCLK
Pin ALT-1 AUDIOMIX_SAI5_TX_DATA[2]
Pin ALT-3 CAN1_RX
Pin ALT-5 GPIO4_IO[25]
Pin ALT-6 AUDIOMIX_BIT_STREAM[1]
J1.148 SAI2_TXD0 CPU.SAI2_TXD0 AH16 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI2_TX_DATA[0]
Pin ALT-1 AUDIOMIX_SAI5_TX_DATA[3]
Pin ALT-2 ENET_QOS_1588_EVENT2_IN
Pin ALT-3 CAN2_TX
Pin ALT-4 ENET_QOS_1588_EVENT2_AUX_IN
Pin ALT-5 GPIO4_IO[26]
J1.150 SAI2_TXFS CPU.SAI2_TXFS AJ17 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI2_TX_SYNC
Pin ALT-1 AUDIOMIX_SAI5_TX_DATA[1]
Pin ALT-2 ENET_QOS_1588_EVENT3_OUT
Pin ALT-3 AUDIOMIX_SAI2_TX_DATA[1]
Pin ALT-4 UART1_CTS_B
Pin ALT-5 GPIO4_IO[24]
Pin ALT-6 AUDIOMIX_PDM_BIT_STREAM[2]
J1.152 SAI3_MCLK//

ISP_PRELIGHT_TRIG_0

CPU.SAI3_MCLK AJ20 NVCC_3V3 I/O Hardware mounting option depending on order code

SPDIF or ISP (*)

Pin ALT-0 AUDIOMIX_SAI3_MCLK
Pin ALT-1 PWM4_OUT
Pin ALT-2 AUDIOMIX_SAI5_MCLK
Pin ALT-4 AUDIOMIX_SPDIF_OUT
Pin ALT-5 GPIO5_IO[2]
Pin ALT-6 AUDIOMIX_SPDIF_IN
J1.154 SAI3_RXC//

ISP_SHUTTER_OPEN_0

CPU.SAI3_RXC AJ18 NVCC_3V3 I/O Hardware mounting option depending on order code

SPDIF or ISP (*)

Pin ALT-0 AUDIOMIX_SAI3_RX_BCLK
Pin ALT-1 AUDIOMIX_SAI2_RX_DATA[2]
Pin ALT-2 AUDIOMIX_SAI5_RX_BCLK
Pin ALT-3 GPT1_CLK
Pin ALT-4 UART2_CTS_B
Pin ALT-5 GPIO4_IO[29]
Pin ALT-6 AUDIOMIX_CLK
J1.156 SAI3_RXD//

ISP_FL_TRIG_1

CPU.SAI3_RXD AF18 NVCC_3V3 I/O Hardware mounting option depending on order code

SPDIF or ISP (*)

Pin ALT-0 AUDIOMIX_SAI3_RX_DATA[0]
Pin ALT-1 AUDIOMIX_SAI2_RX_DATA[3]
Pin ALT-2 AUDIOMIX_SAI5_RX_DATA[0]
Pin ALT-4 UART2_RTS_B
Pin ALT-5 GPIO4_IO[30]
Pin ALT-6 AUDIOMIX_BIT_STREAM[1]
J1.158 SAI3_RXFS//

ISP_SHUTTER_TRIG_1

CPU.SAI3_RXFS AJ19 NVCC_3V3 I/O Hardware mounting option depending on order code

SPDIF or ISP (*)

Pin ALT-0 AUDIOMIX_SAI3_RX_SYNC
Pin ALT-1 AUDIOMIX_SAI2_RX_DATA[1]
Pin ALT-2 AUDIOMIX_SAI5_RX_SYNC
Pin ALT-3 AUDIOMIX_SAI3_RX_DATA[1]
Pin ALT-4 AUDIOMIX_SPDIF1_IN
Pin ALT-5 GPIO4_IO[28]
Pin ALT-6 AUDIOMIX_PDM_BIT_STREAM[0]
J1.160 SAI3_TXC//

ISP_FLASH_TRIG_1

CPU.SAI3_TXC AH19 NVCC_3V3 I/O Hardware mounting option depending on order code

SPDIF or ISP (*)

Pin ALT-0 AUDIOMIX_SAI3_TX_BCLK
Pin ALT-1 AUDIOMIX_SAI2_TX_DATA[2]
Pin ALT-2 AUDIOMIX_SAI5_RX_DATA[2]
Pin ALT-3 GPT1_CAPTURE1
Pin ALT-4 UART2_TX
Pin ALT-5 GPIO5_IO[0]
Pin ALT-6 AUDIOMIX_PDM_BIT_STREAM[2]
J1.162 SAI3_TXD//

ISP_PRELIGHT_TRIG_1

CPU.SAI3_TXD AH18 NVCC_3V3 I/O Hardware mounting option depending on order code

SPDIF or ISP (*)

Pin ALT-0 AUDIOMIX_SAI3_TX_DATA[0]
Pin ALT-1 AUDIOMIX_SAI2_TX_DATA[3]
Pin ALT-2 AUDIOMIX_SAI5_RX_DATA[3]
Pin ALT-3 GPT1_CAPTURE2
Pin ALT-4 AUDIOMIX_SPDIF_EXT_CLK
Pin ALT-5 GPIO5_IO[1]
Pin ALT-6 SRC_BOOT_MODE[5]
J1.164 SAI3_TXFS//

ISP_SHUTTER_OPEN_1

CPU.SAI3_TXFS AC16 NVCC_3V3 I/O Hardware mounting option depending on order code

SPDIF or ISP (*)

Pin ALT-0 AUDIOMIX_SAI3_TX_SYNC
Pin ALT-1 AUDIOMIX_SAI2_TX_DATA[1]
Pin ALT-2 AUDIOMIX_SAI5_RX_DATA[1]
Pin ALT-3 AUDIOMIX_SAI3_TX_DATA[1]
Pin ALT-4 UART2_RX
Pin ALT-5 GPIO4_IO[31]
Pin ALT-6 AUDIOMIX_PDM_BIT_STREAM[3]
J1.166 SAI5_MCLK CPU.SAI5_MCLK AF14 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI5_MCLK
Pin ALT-1 AUDIOMIX_SAI1_TX_BCLK
Pin ALT-2 PWM1_OUT
Pin ALT-3 I2C5_SDA
Pin ALT-5 GPIO3_IO[25]
Pin ALT-6 CAN2_RX
J1.168 SAI5_RXC CPU.SAI5_RXC AD14 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI5_RX_BCLK
Pin ALT-1 AUDIOMIX_SAI1_TX_DATA[1]
Pin ALT-2 PWM3_OUT
Pin ALT-3 I2C6_SDA
Pin ALT-4 AUDIOMIX_CLK
Pin ALT-5 GPIO3_IO[20]
J1.170 SAI5_RXD0//

ISO_14443_LA

CPU.SAI5_RXD0 AE16 NVCC_3V3 I/O Hardware mounting option depending on order code

SAI5 or SE050 ISO (**)

Pin ALT-0 AUDIOMIX_SAI5_RX_DATA[0]
Pin ALT-1 AUDIOMIX_SAI1_TX_DATA[2]
Pin ALT-2 PWM2_OUT
Pin ALT-3 I2C5_SCL
Pin ALT-4 AUDIOMIX_BIT_STREAM[0]
Pin ALT-5 GPIO3_IO[21]
J1.172 SAI5_RXD1//

ISO_14443_LB

CPU.SAI5_RXD1 AD16 NVCC_3V3 I/O Hardware mounting option depending on order code

SAI5 or SE050 ISO (**)

Pin ALT-0 AUDIOMIX_SAI5_RX_DATA[1]
Pin ALT-1 AUDIOMIX_SAI1_TX_DATA[3]
Pin ALT-2 AUDIOMIX_SAI1_TX_SYNC
Pin ALT-3 AUDIOMIX_SAI5_TX_SYNC
Pin ALT-4 AUDIOMIX_BIT_STREAM[1]
Pin ALT-5 GPIO3_IO[22]
Pin ALT-6 CAN1_TX
J1.174 SAI5_RXD2//

ISO_7816_CLK

CPU.SAI5_RXD2 AF16 NVCC_3V3 I/O Hardware mounting option depending on order code

SAI5 or SE050 ISO (**)

Pin ALT-0 AUDIOMIX_SAI5_RX_DATA[2]
Pin ALT-1 AUDIOMIX_SAI1_TX_DATA[4]
Pin ALT-2 AUDIOMIX_SAI1_TX_SYNC
Pin ALT-3 AUDIOMIX_SAI5_TX_BCLK
Pin ALT-4 AUDIOMIX_BIT_STREAM[2]
Pin ALT-5 GPIO3_IO[23]
Pin ALT-6 CAN1_RX
J1.176 SAI5_RXD3//

ISO_7816_RST_N

CPU.SAI5_RXD3 AE14 NVCC_3V3 I/O Hardware mounting option depending on order code

SAI5 or SE050 ISO (**)

Pin ALT-0 AUDIOMIX_SAI5_RX_DATA[3]
Pin ALT-1 AUDIOMIX_SAI1_TX_DATA[5]
Pin ALT-2 AUDIOMIX_SAI1_TX_SYNC
Pin ALT-3 AUDIOMIX_SAI5_TX_DATA[0]
Pin ALT-4 AUDIOMIX_PDM_BIT_STREAM[3]
Pin ALT-5 GPIO3_IO[24]
Pin ALT-6 CAN2_TX
J1.178 SAI5_RXFS//

SE050_ENA

CPU.SAI5_RXFS AC14 NVCC_3V3 I/O Hardware mounting option depending on order code

SAI5 or SE050 (**)

Pin ALT-0 AUDIOMIX_SAI5_RX_SYNC
Pin ALT-1 AUDIOMIX_SAI1_TX_DATA[0]
Pin ALT-2 PWM4_OUT
Pin ALT-3 I2C6_SCL
Pin ALT-5 GPIO3_IO[19]
J1.180 DGND DGND - - G
J1.182 SAI1_MCLK CPU.SAI1_MCLK AE12 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_MCLK
Pin ALT-1 AUDIOMIX_SAI1_TX_BCLK
Pin ALT-4 ENET1_TX_CLK
Pin ALT-5 GPIO4_IO[20]
J1.184 SAI1_RXC CPU.SAI1_RXC AH8 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_RX_BCLK
Pin ALT-1 AUDIOMIX_PDM_CLK
Pin ALT-4 ENET1_1588_EVENT0_OUT
Pin ALT-5 GPIO4_IO[1]
J1.186 SAI1_RXD0 CPU.SAI1_RXD0 AC10 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_RX_DATA[0]
Pin ALT-2 AUDIOMIX_SAI1_TX_DATA[1]
Pin ALT-3 AUDIOMIX_PDM_BIT_STREAM[0]
Pin ALT-4 ENET1_1588_EVENT1_IN
Pin ALT-5 GPIO4_IO[2]
J1.188 SAI1_RXD1 CPU.SAI1_RXD1 AF10 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_RX_DATA[1]
Pin ALT-3 AUDIOMIX_PDM_BIT_STREAM[1]
Pin ALT-4 ENET1_1588_EVENT1_OUT
Pin ALT-5 GPIO4_IO[3]
J1.190 SAI1_RXD2 CPU.SAI1_RXD2 AH9 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_RX_DATA[2]
Pin ALT-1 AUDIOMIX_SAI5_RX_DATA[2]
Pin ALT-3 AUDIOMIX_BIT_STREAM[2]
Pin ALT-4 ENET1_MDC
Pin ALT-5 GPIO4_IO[4]
J1.192 SAI1_RXD3 CPU.SAI1_RXD3 AJ8 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_RX_DATA[3]
Pin ALT-1 AUDIOMIX_SAI5_RX_DATA[3]
Pin ALT-3 AUDIOMIX_BIT_STREAM[3]
Pin ALT-4 ENET1_MDIO
Pin ALT-5 GPIO4_IO[5]
J1.194 SAI1_RXD4 CPU.SAI1_RXD4 AD10 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_RX_DATA[4]
Pin ALT-1 AUDIOMIX_SAI6_TX_BCLK
Pin ALT-2 AUDIOMIX_SAI6_RX_BCLK
Pin ALT-4 ENET1_RGMII_RD0
Pin ALT-5 GPIO4_IO[6]
J1.196 SAI1_RXD5 CPU.SAI1_RXD5 AE10 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_RX_DATA[5]
Pin ALT-1 AUDIOMIX_SAI6_TX_DATA[0]
Pin ALT-2 AUDIOMIX_SAI6_RX_DATA[0]
Pin ALT-3 AUDIOMIX_SAI1_RX_SYNC
Pin ALT-4 ENET1_RGMII_RD1
Pin ALT-5 GPIO4_IO[7]
J1.198 SAI1_RXD6 CPU.SAI1_RXD6 AH10 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_RX_DATA[6]
Pin ALT-1 AUDIOMIX_SAI6_TX_SYNC
Pin ALT-2 AUDIOMIX_SAI6_RX_SYNC
Pin ALT-4 ENET1_RGMII_RD2
Pin ALT-5 GPIO4_IO[8]
J1.200 SAI1_RXD7 CPU.SAI1_RXD7 AH12 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_RX_DATA[7]
Pin ALT-1 AUDIOMIX_SAI6_MCLK
Pin ALT-2 AUDIOMIX_SAI1_TX_SYNC
Pin ALT-3 AUDIOMIX_SAI1_TX_DATA[4]
Pin ALT-4 ENET1_RGMII_RD3
Pin ALT-5 GPIO4_IO[9]
J1.202 SAI1_RXFS CPU.SAI1_RXFS AJ9 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_RX_SYNC
Pin ALT-4 ENET1_1588_EVENT0_IN
Pin ALT-5 GPIO4_IO[0]
J1.204 SAI1_TXC CPU.SAI1_TXC AJ12 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_TX_BCLK
Pin ALT-1 AUDIOMIX_SAI5_TX_BCLK
Pin ALT-4 ENET1_RGMII_RXC
Pin ALT-5 GPIO4_IO[11]
J1.206 SAI1_TXD0 CPU.SAI1_TXD0 AJ11 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_TX_DATA[0]
Pin ALT-1 AUDIOMIX_SAI5_TX_DATA[0]
Pin ALT-4 ENET1_RGMII_TD0
Pin ALT-5 GPIO4_IO[12]
J1.208 SAI1_TXD1 CPU.SAI1_TXD1 AJ10 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_TX_DATA[1]
Pin ALT-1 AUDIOMIX_SAI5_TX_DATA[1]
Pin ALT-4 ENET1_RGMII_TD1
Pin ALT-5 GPIO4_IO[13]
J1.210 SAI1_TXD2 CPU.SAI1_TXD2 AH11 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_TX_DATA[2]
Pin ALT-1 AUDIOMIX_SAI5_TX_DATA[2]
Pin ALT-4 ENET1_RGMII_TD2
Pin ALT-5 GPIO4_IO[14]
J1.212 SAI1_TXD3 CPU.SAI1_TXD3 AD12 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_TX_DATA[3]
Pin ALT-1 AUDIOMIX_SAI5_TX_DATA[3]
Pin ALT-4 ENET1_RGMII_TD3
Pin ALT-5 GPIO4_IO[15]
J1.214 SAI1_TXD4 CPU.SAI1_TXD4 AH13 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_TX_DATA[4]
Pin ALT-1 AUDIOMIX_SAI6_RX_BCLK
Pin ALT-2 AUDIOMIX_SAI6_TX_BCLK
Pin ALT-4 ENET1_RGMII_TX_CTL
Pin ALT-5 GPIO4_IO[16]
J1.216 SAI1_TXD5 CPU.SAI1_TXD5 AH14 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_TX_DATA[5]
Pin ALT-1 AUDIOMIX_SAI6_RX_DATA[0]
Pin ALT-2 AUDIOMIX_SAI6_TX_DATA[0]
Pin ALT-4 ENET1_RGMII_TXC
Pin ALT-5 GPIO4_IO[17]
J1.218 SAI1_TXD6 CPU.SAI1_TXD6 AC12 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_TX_DATA[6]
Pin ALT-1 AUDIOMIX_SAI6_RX_SYNC
Pin ALT-2 AUDIOMIX_SAI6_TX_SYNC
Pin ALT-4 ENET1_RX_ER
Pin ALT-5 GPIO4_IO[18]
J1.220 SAI1_TXD7 CPU.SAI1_TXD7 AJ13 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_TX_DATA[7]
Pin ALT-1 AUDIOMIX_SAI6_MCLK
Pin ALT-3 AUDIOMIX_CLK
Pin ALT-4 ENET1_TX_ER
Pin ALT-5 GPIO4_IO[19]
J1.222 SAI1_TXFS CPU.SAI1_TXFS AF12 NVCC_3V3 I/O Pin ALT-0 AUDIOMIX_SAI1_TX_SYNC
Pin ALT-1 AUDIOMIX_SAI5_TX_SYNC
Pin ALT-4 ENET1_RGMII_RX_CTL
Pin ALT-5 GPIO4_IO[10]
J1.224 DGND DGND - - G
J1.226

(SE on board)

I2C1_SCL//

I2C_SCL_SE050

SE.ISO 7816 IO2 16 SE_VOUT I/O see SE section for

more details

J1.226 I2C1_SCL//

I2C_SCL_SE050

CPU.I2C1_SCL AC8 NVCC_3V3 I/O Pin ALT-0 I2C1_SCL
Pin ALT-1 ENET_QOS_MDC
Pin ALT-3 ECSPI1_SCLK
Pin ALT-5 GPIO5_IO[14]
J1.228

(SE on board)

I2C1_SDA//

I2C_SDA_SE050

SE.ISO 7816 IO1 3 SE_VOUT I/O see SE section for

more details

J1.228 I2C1_SDA//

I2C_SDA_SE050

CPU.I2C1_SDA AH7 NVCC_3V3 I/O Pin ALT-0 I2C1_SDA
Pin ALT-1 ENET_QOS_MDIO
Pin ALT-3 ECSPI1_MOSI
Pin ALT-5 GPIO5_IO[15]
J1.230 I2C2_SCL CPU.I2C2_SCL AH6 NVCC_3V3 I/O Pin ALT-0 I2C2_SCL
Pin ALT-1 ENET_QOS_1588_EVENT1_IN
Pin ALT-2 USDHC3_CD_B
Pin ALT-3 ECSPI1_MISO
Pin ALT-4 ENET_QOS_1588_EVENT1_AUX_IN
Pin ALT-5 GPIO5_IO[16]
J1.232 I2C2_SDA CPU.I2C2_SDA AE8 NVCC_3V3 I/O Pin ALT-0 I2C2_SDA
Pin ALT-1 ENET_QOS_1588_EVENT1_OUT
Pin ALT-2 USDHC3_WP
Pin ALT-3 ECSPI1_SS0
Pin ALT-5 GPIO5_IO[17]
J1.234 I2C3_SCL CPU.I2C3_SCL AJ7 NVCC_3V3 I/O Pin ALT-0 I2C3_SCL
Pin ALT-1 PWM4_OUT
Pin ALT-2 GPT2_CLK
Pin ALT-3 ECSPI2_SCLK
Pin ALT-5 GPIO5_IO[18]
J1.236 I2C3_SDA CPU.I2C3_SDA AJ6 NVCC_3V3 I/O Pin ALT-0 I2C3_SDA
Pin ALT-1 PWM3_OUT
Pin ALT-2 GPT3_CLK
Pin ALT-3 ECSPI2_MOSI
Pin ALT-5 GPIO5_IO[19]
J1.238 I2C4_SCL CPU.I2C4_SCL AF8 NVCC_3V3 I/O Pin ALT-0 I2C4_SCL
Pin ALT-1 PWM2_OUT
Pin ALT-2 PCIE_CLKREQ_B
Pin ALT-3 ECSPI2_MISO
Pin ALT-5 GPIO5_IO[20]
J1.240 I2C4_SDA CPU.I2C4_SDA AD8 NVCC_3V3 I/O Pin ALT-0 I2C4_SDA
Pin ALT-1 PWM1_OUT
Pin ALT-3 ECSPI2_SS0
Pin ALT-5 GPIO5_IO[21]
J1.242 DGND DGND - - G
J1.244 UART1_RXD CPU.UART1_RXD AD6 NVCC_3V3 I/O Pin ALT-0 UART1_RX
Pin ALT-1 ECSPI3_SCLK
Pin ALT-5 GPIO5_IO[22]
J1.246 UART1_TXD CPU.UART1_TXD AJ13 NVCC_3V3 I/O Pin ALT-0 UART1_TX
Pin ALT-1 ECSPI3_MOSI
Pin ALT-5 GPIO5_IO[23]
J1.248 UART2_RXD CPU.UART2_RXD AF6 NVCC_3V3 I/O Pin ALT-0 UART2_RX
Pin ALT-1 ECSPI3_MISO
Pin ALT-3 GPT1_COMPARE3
Pin ALT-5 GPIO5_IO[24]
J1.250 UART2_TXD CPU.UART2_TXD AH4 NVCC_3V3 I/O Pin ALT-0 UART2_TX
Pin ALT-1 ECSPI3_SS0
Pin ALT-3 GPT1_COMPARE2
Pin ALT-5 GPIO5_IO[25]
J1.252 UART3_RXD CPU.UART3_RXD AE6 NVCC_3V3 I/O Pin ALT-0 UART3_RX
Pin ALT-1 UART1_CTS_B
Pin ALT-2 USDHC3_RESET_B
Pin ALT-3 GPT1_CAPTURE2
Pin ALT-4 CAN2_TX
Pin ALT-5 GPIO5_IO[26]
J1.254 UART3_TXD CPU.UART3_TXD AJ4 NVCC_3V3 I/O Pin ALT-0 UART3_TX
Pin ALT-1 UART1_RTS_B
Pin ALT-2 USDHC3_VSELECT
Pin ALT-3 GPT1_CLK
Pin ALT-4 CAN2_RX
Pin ALT-5 GPIO5_IO[27]
J1.256 UART4_RXD CPU.UART4_RXD AJ15 NVCC_3V3 I/O Pin ALT-0 UART4_RX
Pin ALT-1 UART2_CTS_B
Pin ALT-2 PCIE_CLKREQ_B
Pin ALT-3 GPT1_COMPARE1
Pin ALT-4 I2C6_SCL
Pin ALT-5 GPIO5_IO[28]
J1.258 UART4_TXD CPU.UART4_TXD AH5 NVCC_3V3 I/O Pin ALT-0 UART4_TX
Pin ALT-1 UART2_RTS_B
Pin ALT-3 GPT1_CAPTURE1
Pin ALT-4 I2C6_SDA
Pin ALT-5 GPIO5_IO[29]
J1.260 DGND DGND - - G

(*) SPIDF and ISP signals cannot be present at the same time. ISP signals are in alternative to NAND and eMMC usage (see i.MX8Plus NAND controller on Reference Manual for more details). Please contact sales for more information

(**) SAI5 and SE050 ISO interface cannot be present at the same time. Please contact sales for more information

Power and reset[edit | edit source]

Power Supply Unit (PSU) and recommended power-up sequence[edit | edit source]

Implementing correct power-up sequence for iMX8MPlus processors is not a trivial task because several power rails are involved.

ORCA SOM simplifies this task by embedding all the needed circuitry. The following picture shows a simplified block diagram of PSU/voltage monitoring circuitry:

ORCA-power-sequence.png

The PSU is composed of two main blocks:

  • power management integrated circuit
  • additional generic power management circuitry that completes PMIC functionalities

The PSU:

  • generates the proper power-up sequence required by the SOC processor and surrounding memories and peripherals
  • synchronizes the powering up of carrier board in order to prevent back power

Power-up sequence[edit | edit source]

The typical power-up sequence is the following:

  1. 3.3VIN main power supply rail is powered
  2. SNVS domain signals are pulled-up (unless carrier board circuitry keeps this signal low for any reason)
  3. CPU_PORn (active-low) is driven low by PMIC
  4. RTC_RESET_B are internally released after 200ms
  5. PMIC initiates power-up sequence needed by iMX8M processor
  6. BOARD_PGOOD goes up when NVCC_3V3 (CPU I/O power rail) is ready
  7. CPU_PORn is deasserted after the last regulator to bring the processor out of reset

Note on BOARD_PGOOD usage[edit | edit source]

BOARD_PGOOD is generally used on carrier board to drive loads such as DC/DC enable inputs or switch on/off control signals.

Depending on the kind of such loads, BOARD_PGOOD might not be able to drive them properly because it has a 20mA output current absolute maximum rating.

In these cases a simple 2-input AND port with a level shifter for the PMIC_RST_B input can be used to address this issue. The following picture depicts a principle schematic showing this solution.

SOM_VDD denotes the power rail used to power ORCA SoM (i.e. 3V3VIN).

ORCA-power-good.png

Additionally, we suggest using ICs with Schmitt trigger input ports.


Reset scheme and control signals[edit | edit source]

The following picture shows the simplified block diagram of reset scheme and voltage monitoring.

ORCA-reset-scheme.png

NVCC_VSNVS_1V8[edit | edit source]

Some signals that are related to reset circuitry are pulled-up to NVCC_VSNVS_1V8 (1.8V internal rail).

Hence it is recommended that system designer takes into account these factors in order to properly manage these signals at carrier board level.

PMIC_RST_B[edit | edit source]

EXT_RESET is internally pulled-up with a 100kΩ to NVCC_VSNVS_1V8. Connect EXT_RESET signal to GND (for example with a button or an open-collector circuit) causes the PMIC to assert its POR_B output.

When this signal is pulled low all the power supplies except for the SNVS domain will be OFF.

The RESETn will keep asserted for 250 ms after PMIC_RST_B is released, thus providing enough time for the power supplies to be completely powered down. During this time, the CPU_PORb driven by the PMIC will also keep asserted (low).

After RESETn is released, the power supplies will start to ramp up in defined sequence. When all the power supplies have reached their operating voltages, POR_B will be de-asserted, and the CPU may begin booting from reset.

PMIC_ON_REQ//VMON_RST[edit | edit source]

Two different routing options are available for this pin.

By default, this pin is connected to PMIC's PMIC_ON_REQ signal. The PMIC_ON_REQ signal is driven by iMX8MPlus SoC to place the system in power-down mode.

Optionally, PMIC_ON_REQ//VMON_RST can be routed to the master reset input of a voltage supervisor instead. For more details about this option, please write to the Sales Department.

CPU_PORn[edit | edit source]

PMIC can assert this active-low signal. Other internal IC, such as ethernet PHY or boot memory devices, could be connected to this signal. This guarantees that they are in a known state when reset signal is released.

CPU_ONOFF[edit | edit source]

CPU_ONOFF is internally pulled-up with a 100kΩ to NVCC_VSNVS_1V8. This input signal is connected directly to the ONOFF input of the CPU.

BOARD_PGOOD[edit | edit source]

BOARD_PGOOD is the output of the voltage monitor on the internal NVCC_3V3 rail (I/O pins supply) and must be used as power enable for all the electronics on MITO 8M carrier board.

When the I/O pins power rail on MITO 8M is not ready (BOARD_PGOOD low) all the integrated circuits connected to the CPU must be powered off in order to avoid back-powering or other issue related to a wrong power-up sequence.

BOOT_MODE_[0-2][edit | edit source]

BOOT_MODE_x pins can be internally pulled-up with 10kΩ to NVCC_3V3 or pulled-down with 10kΩ to DGND to provide the default boot mode. The previous block diagram shows the SD3 eMMC boot option.

To overwrite the boot configuration these pins can be pulled low or high with 1kΩ resistor, the pull-up rail has to be a 3.3V enabled by BOARD_PGOOD signal.

WDOG_B[edit | edit source]

WDOG_B is a PMIC input signal that is configured by default to generate a system reset. It is internally connected to processor's watchdog output.

Handling CPU-initiated software reset[edit | edit source]

By default, ORCA SOM implements a conservative approach regarding CPU-initiated software reset. In essence, whenever a software reset is issued, a full power-up cycle is triggered. This technique is implemented in DESK-MX8M-L. At the software level, U-Boot and Linux kernel software reset routines make use of a SOC's WDT to assert the WDOG1_WDOG_B reset signal. This signal in turn is routed to GPIO1_IO02 pad (MUX mode = 1, internal connection only). At the hardware level, this signal is connected to the PMIC WDOG_B input to achieve the desired outcome.


System boot[edit | edit source]

The boot process begins at Power On Reset (POR) where the hardware reset logic forces the ARM core to begin execution starting from the on-chip boot ROM. The boot ROM:

  • determines whether the boot is secure or non-secure
  • performs some initialization of the system and clean-ups
  • reads the mode pins to determine the primary boot device
  • once it is satisfied, it executes the boot code

Boot options[edit | edit source]

Many options are available related for ORCA SOM System boot. They are selected by the BOOT_MODE[0..2] signals as reported in the following table:

BOOT_MODE_2 BOOT_MODE_1 BOOT_MODE_0 BOOT peripheral
0 0 0 Boot From Internal Fuses
0 0 1 USB Serial Download
0 1 0 USDHC3 (eMMC boot only, SD3 8-bit)
0 1 1 USDHC2 (SD boot only, SD2)
1 0 0 NAND 8-bit single device 256 page
1 0 1 NAND 8-bit single device 512 page
1 1 0 QSPI 3B Read

When the signals are left floating the primary boot device is set by default to eMMC on SD3.

The BOOT_MODE[0..2] signals are latched when processor reset is released.

The boot process is managed by on-chip boot ROM code: please refer to the processor's Reference Manual for more information.


On board JTAG connector[edit | edit source]

JTAG signals are routed to the J1 primary connector of the ORCA PCB. See the pinout section for more details.

Peripherals[edit | edit source]

Peripheral Audio[edit | edit source]

The Audio interface available on ORCA SoM is based on iMX8MPlus SoC which provides the following audio subsystems:

  • Synchronous Audio Interface (SAI)
    • 6x I2S/SAI
  • Sony/Philips Digital Interface (SPDIF)
  • PDM microphone interface
  • eARC

Description[edit | edit source]

The I2S module provides a synchronous audio interface (SAI) that supports full-duplex serial interfaces with frame synchronization such as I2S, AC97, TDM, and codec/DSP interfaces. It supports the following standards and features:

  • Transmitter and receiver with independent bit clock and frame sync supporting 8 data lines
  • Receiver with independent bit clock and frame sync supporting 8 data lines
  • Each data line can support a maximum Frame size of 32 words
  • Asynchronous 128 x 32-bit FIFO for each transmit and receive data line
  • Supports packing of 8-bit and 16-bit data into each 32-bit FIFO word
  • Supports combining multiple data line FIFOs into single data line FIFO
  • Independent 32-bit timestamp counters and bit counters for monitoring transmit and receive progress

The Sony/Philips Digital Interface (SPDIF) audio block is a stereo transceiver that allows the processor to receive and transmit digital audio.

The PDM Microphone Interface (MICFIL) includes the following features:

  • Decimation filters:
    • Fixed filtering characteristics for audio application.
    • 24-bit signed filter output.
    • Maximum dynamic range: 120dB.
    • Internal clock divider for a programmable PDM clock generation.
    • Full or partial set of channels operation with individual enable control.
    • Programmable decimation rate.
    • Programmable DC remover.
    • Range adjustement capability.
    • FIFOs with interrupt and DMA capability.
    • Each FIFO with 32 entries length.
  • Hardware Voice Activity Detector (HWVAD).
    • Interrupt capability.
    • Zero-Crossing Detection (ZCD) option.

The enhanced audio return channel (eARC) provides an advanced audio stream through the HDMI interface.

The asyncronous sample rate converter (ASRC) is a digital module that converts audio from a source sample rate to a destination sample rate.

The primary features for the ASRC are as follows:

  • 4 Contexts - groups of channels with an independent time base
  • Fully independent and concurrent context control
  • Simultaneous processing of up to 32 audio channels
  • Programmable filter charachteristics for each context
  • 32, 24, 20, and 16-bit fixed point audio sample support
  • 32-bit floating point audio sample support
  • 8kHz to 384 kHz sample rate
  • 1/16 to 8x sample rate conversion ratio
  • Software control of fine conversion ratio

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral CAN[edit | edit source]

The CAN interface available on ORCA SoM is based on iMX8MPlus SoC which provides the following interfaces:

  • 2x FlexCAN

Description[edit | edit source]

The FlexCAN module is a communication controller implementing the CAN protocol according to the ISO 11898-1 standard and CAN 2.0 B protocol specifications.

The FlexCAN module includes these distinctive features:

  • Full implementation of the CAN with Flexible Data Rate (CAN FD) protocol specification and CAN protocol specification, Version 2.0 B
  • Compliant with the ISO 11898-1 standard
  • Full-featured Rx FIFO with storage capacity for up to six frames and automatic internal pointer handling with DMA support
  • Time stamp based on 16-bit free running timer
  • Global network time, synchronized by a specific message
  • Maskable interrupts
  • Supports detection and correction of errors in memory read accesses

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral HDMI[edit | edit source]

HDMI (High-Definition Multimedia Interface) is a compact audio/video interface for transmitting uncompressed digital video data and uncompressed/compressed digital audio data.

HDMI connects digital audio/video sources-such as set-top boxes, Blu-ray Disc players, personal computers (PCs), video game consoles, and AV receivers to compatible digital audio devices, computer monitors, and digital televisions.

Description[edit | edit source]

The HDMI interface available on ORCA is based on iMX8MPlus SoC.

The HDMI port supports the following standards and features:

  • High-Definition Multimedia Interface Specification, Version up to 2.0a
  • Compliant with HDCP2.2 (and back compatible with HDCP1.3/HDCP1.4)
  • Variety of video resolutions and formats
    • Supports up to 4k2k at 60Hz resolution
    • Supports 8, 10, 12, and 16bpp
    • Supports RGB, YCbCr422 formats
  • Variety of audio formats – PCM and compressed, over I2S interface
    • I2S PCM samples are converted to comply with IEC60958 sub-frames
    • Supporting I2S-TDM

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral LVDS[edit | edit source]

The LVDS interface available on ORCA is based on iMX8MPlus SoC.

This support covers all aspects of these activities:

  • Connectivity to relevant devices - Displays with LVDS receivers
  • Arranging the data as required by the external display receiver and by LVDS display standards
  • Synchronization and control capabilities

Description[edit | edit source]

The LVDS ports can be used as follows:

  • Single channel (4 lanes) output at up to 80MHz pixel clock and LVDS clock. This supports resolutions up to 1366x768p60.
  • Dual asynchronous channels (8 data, 2 clocks). This is intended for a single panel with two interfaces, transferring across two channels (even pixel/odd pixel). This is supported at up to 160MHz pixel clock, which is up to 80MHz LVDS clock (due to 2 pixels per LVDS clock). This supports resolutions above 1366x768p60, up to 1080p60.

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral MIPI[edit | edit source]

The MIPI interfaces available on iMX8MPlus SoC are following described:

  • The Camera Serial Interface (CSI) is a specification of the Mobile Industry Processor Interface (MIPI) Alliance. It defines an interface between a camera and a host processor.
  • The Display Serial Interface (DSI) is a specification by the Mobile Industry Processor Interface (MIPI) Alliance aimed at reducing the cost of display controllers in a mobile device. It is commonly targeted at LCD and similar display technologies.

The two CSI and the DSI interfaces on ORCA SOM are available on SODIMM connector.

Description[edit | edit source]

The MIPI CSI ports support the following standards and features:

  • MIPI D-PHY specification V1.2
  • Compliant to MIPI CSI2 Specification V1.3 except for C-PHY feature
  • Support primary and secondary Image format
    • YUV420, YUV420 (Legacy), YUV420 (CSPS), YUV422 of 8-bits and 10-bits
    • RGB565, RGB666, RGB888
    • RAW6, RAW7, RAW8, RAW10, RAW12, RAW14
    • All of User defined Byte-based Data packet
  • Support up to 4 lanes of D-PHY
  • Interfaces:
    • Compatible to PPI(Protocol-to-PHY Interface) in MIPI D-PHY Specification
    • AMBA3.0 APB Slave for Register configuration.
    • Image output data buswidth : 32 bits
  • Image memory:
    • Size of SRAM is 4KB
  • Pixel clock can be gated when no ppi data is coming.

The MIPI DSI port supports the following standards and features:

  • Complies to MIPI DSI Standard Specification V1.01r11
    • Maximum resolution ranges up to WQHD (1920x1080p60, 24bpp)
      • It should be decided on bandwidth between input clock (video clock) and output clock (D-PHY HS clock).
    • Supports 1, 2, 3, or 4 data lanes
    • Supports pixel format: 16bpp, 18bpp packed, 18bpp loosely packed (3 byte format), and 24bpp
  • Interfaces:
    • Complies with Protocol-to-PHY Interface (PPI) in 1.0Gbps / 1.5Gbps MIPI D-PHY
    • Supports RGB Interface for Video Image Input from general display controller
  • Supports S-i80(Synchronous i80) Interface for Command Mode Image input from display controller
  • Supports PMS control interface for PLL to configure byte clock frequency
  • Supports Prescaler to generate escape clock from byte clock

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral ISP[edit | edit source]

The Image Signal Processor (ISP) available on ORCA is based on iMX8MPlus SoC wich provides the following interfaces:

  • I/O signals to control mechanical shutter, flash and other advanced camera features

Description[edit | edit source]

The Image Signal Processing (ISP) core is a complete video and still picture input block. It contains image processing and color space conversion (RAW Bayer to YUV) functions.

The ISP is connected to a MIPI-CSI interface and receives 1 pixel/clock from the CSI Rx Controller.

The following features are supported by the main ISP submodule:

  • ITU-R BT.601 compatible 12-bit video interface
  • Variable sensor interface for RGB-Bayer Sensors
  • Lens shade correction
  • Filter (Noise reduction, Sharpness, Blurring)
  • Programmable gamma correction for sensor adaptation and display correction
  • Exposure measurement for AE (AEC/AGC) Auto focus measurement (AF)
  • Mechanical shutter control
  • Flash light control
  • Video Stabilization

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral SDIOs[edit | edit source]

The Ultra Secured Digital Host Controller (uSDHC) provides the interface between the host system and the SD/SDIO/MMC cards or devices.

ORCA SOM provides up to two SDIO interface available for an external memory device connection. The third interface is used for the on board eMMC flash.

Description[edit | edit source]

The SDIOs interface available on ORCA is based on iMX8MPlus SoC.

The SDIOs port supports the following standards and features:

  • Conforms to the SD Host Controller Standard Specification version 2.0/3.0
  • Compatible with the MMC System Specification version 4.2/4.3/4.4/4.41/5.0/5.1
  • Compatible with the SD Memory Card Specification version 3.0 and supports the Extended Capacity SD Memory Card
  • Compatible with the SDIO Card Specification version 2.0/3.0
  • Supports 1-bit/4-bit SD and SDIO modes, and 1-bit/4-bit/8-bit MMC modes
  • Card bus clock frequency up to 208 MHz

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral SPI[edit | edit source]

The Enhanced Configurable Serial Peripheral Interface (ECSPI) is a full-duplex, synchronous, four-wire serial communication block.

Description[edit | edit source]

Three SPI interface are available on ORCA based on iMX8MPlus SoC.

The SPI port supports the following standards and features:

  • Full-duplex synchronous serial interface
  • Master/Slave configurable
  • One Chip Select (SS) signal
  • Transfer continuation function allows unlimited length data transfers
  • 32-bit wide by 64-entry FIFO for both transmit and receive data
  • Polarity and phase of the Chip Select (SS) and SPI Clock (SCLK) are configurable
  • Direct Memory Access (DMA) support

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral I2C[edit | edit source]

I2C is a two-wire, bidirectional serial bus that provides a simple, efficient method of data exchange, minimizing the interconnection between devices.

This bus is suitable for applications requiring occasional communications over a short distance between many devices.

Description[edit | edit source]

The three I2C interface available on ORCA is based on iMX8MPlus SoC and it is designed to be compatible with the PhilipsTM I2C bus protocol.

The iMX8MPlus SOC has six I2C bus interfaces, but there is some limitation about:

  • The I2C1 bus is internally used for PMIC and it is not available if the secure element unit is on board

See Pin mapping tables for connection details.

Features[edit | edit source]

The I2C port supports the following standards and features:

  • Compatibility with I2C bus standard
  • Multimaster operation
  • Software programmability for one of 64 different serial clock frequencies
  • Software-selectable acknowledge bit
  • Interrupt-driven, byte-by-byte data transfer
  • Arbitration-lost interrupt with automatic mode switching from master to slave
  • Calling address identification interrupt
  • Start and stop signal generation/detection
  • Repeated Start signal generation
  • Acknowledge bit generation/detection
  • Bus-busy detection

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral UART[edit | edit source]

Description[edit | edit source]

The Universal Asynchronous Receiver/Transmitter (UART) interface available on ORCA is based on iMX8MPlus SoC.

UART provides serial communication capability with external devices and support NRZ encoding format, RS485 compatible 9 bit data format and IrDA-compatible infrared slow data rate (SIR) format.

The UART port supports the following standards and features:

  • High-speed TIA/EIA-232-F compatible, up to Mbit/s
  • Serial IR interface low-speed, IrDA-compatible (up to 115.2 Kbit/s)
  • 9-bit or Multidrop mode (RS-485) support (automatic slave address detection)
  • 7 or 8 data bits for RS-232 characters, or 9 bit RS-485 format
  • 1 or 2 stop bits
  • Programmable parity (even, odd, and no parity)
  • Hardware flow control support for request to send (RTS_B) and clear to send (CTS_B) signals
  • Two independent, 32-entry FIFOs for transmit and receive

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral USB[edit | edit source]

Universal Serial Bus (USB) is an industry standard that establishes specifications for cables and connectors and protocols for connection, communication and power supply (interfacing) between computers, peripherals and other computers.

Description[edit | edit source]

The two USB interface available on ORCA are based on iMX8MPlus SoC.

Each USB 3.0-compliant serial interface port supports the following standards and features:

  • Complies with USB specification rev 3.0
  • USB dual-role operation and can be configured as host or device
  • Super-speed (5 Gbit/s), high-speed (480 Mbit/s), full-speed (12 Mbit/s), and low-speed (1.5 Mbit/s) operations

VBUS detection[edit | edit source]

On the ORCA external connector the USBx_VBUS pins are present to detect that the USB is enabled end therefore power the internal USB PHY.

These pins has a thresold of 4.6V and can accept up to 25V so a direct connection to the USB port VBUS is allowed, even when Power Deliver handshake sets the USB3.0 VBUS to the highest value of 20V.

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral PCI Express[edit | edit source]

PCI Express (Peripheral Component Interconnect Express) is a high-speed serial computer expansion bus standard, designed to replace the older PCI, PCI-X and AGP bus standards.

Description[edit | edit source]

The PCI Express interface available on ORCA is based on iMX8MPlus SoC.

The PCI Express interface supports the following standards and features:

  • two PCIe PHY ports (1-lane each)
  • up to 8.0 Gbps data rate
  • complies to PCI Express Gen3 specification
  • 8B/10B Encoding / Decoding
  • Supports Spread Spectrum Clocking in Transmitter and Receiver

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Peripheral GPIOs[edit | edit source]

The GPIO general-purpose input/output peripheral provides dedicated general-purpose pins that can be configured as either inputs or outputs.

Many pins available on the external connector can be configured as GPIOs.

Description[edit | edit source]

The GPIOs available on ORCA are based on iMX8MPlus SoC.

When configured as an output, it is possible to write to an internal register to control the state driven on the output pin. When configured as an input, it is possible to detect the state of the input by reading the state of an internal register. In addition, the GPIO peripheral can produce CORE interrupts.

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section



Real Time Clock[edit | edit source]

This chapter describes the technical specifications and features for the RTC component on the ORCA module.

There is no Real Time Clock available on ORCA, instead a low power Real Time Counter is provided on iMX8MPlus SoC.

Description[edit | edit source]

The ORCA module uses a 32.768kHz dedicated crystal in order to obtain an accurate time base for the Real Time Counter.

The Real Time Counter is not available in power down mode but it operates in low power mode and allow to program a timer alarm interrupt.

Use an external RTC with battery backup functionality if data retention is required.


Peripheral Watchdog[edit | edit source]

The Watchdog Timer (WDOG) protects against system failures by providing a method by which to escape from unexpected events or programming errors.

Description[edit | edit source]

By default, the Watchdog Timer of iMX8MPlus SOC is internally used on ORCA for the CPU-initiated software reset function.

For more details see the reset scheme and control signals section.


Peripheral Secure Element[edit | edit source]

The Secure Element (SE) interface available on ORCA is based on SE050 IC which provides the following interfaces:

  • I2C Master
  • ISO7816 SmartCard protocols T=0 and T=1
  • ISO14443-A Smartcard interface

Description[edit | edit source]

The SE050 is a ready-to-use IoT secure element solution. It provides a root of trust at the IC level and it gives an IoT system state-of-the art, edge-to-cloud security capability right out of the box.

The SE provides support for the following use cases:

  • Secure connection to public/private clouds, edge computing platforms, infrastructure
  • Device-to-device authentication
  • Secure data protection
  • Secure commissioning support
  • Secure CL/MIFARE/Wi-Fi interactions
  • Device ID for blockchain
  • Secure key storage
  • Secure provisioning of credentials
  • Ecosystem protection

Pin mapping[edit | edit source]

The Pin mapping is described in the Pinout table section


The Neural Processign Unit (NPU) available on ORCA is based on iMX8MPlus SoC.

Description[edit | edit source]

The Neural Processing Unit (NPU) core accelerates vision image processing functions and provides enhanced performance for real-time use cases with hardware support for the OpenVX API.

Key features of the NPU block include:

  • OpenVX 1.2 compliance, including extensions
  • Convolutional Neural Network acceleration
  • IEEE 32-bit floating-point pipeline in PPU shaders.
  • Ultra-threaded parallel processing unit
  • Low bandwidth at both high and low data rates
  • Low CPU loading
  • MMU functionality supported
  • Performance Counters for DMA Profiling
  • Data transfers between Neural Network Engines and the Parallel Processing Unit, with SRAM as local storage
  • Neural Network Engine and Parallel Processing Unit synchronization with hardware semaphore

Electrical, Thermal and Mechanical Features[edit | edit source]

Operational characteristics[edit | edit source]

Maximum ratings[edit | edit source]

Parameter Min Typ Max Unit
Main power supply voltage 0 3.3 3.6 V

Recommended ratings[edit | edit source]

Parameter Min Typ Max Unit
Main power supply voltage 3.135 3.3 3.465 V

Power consumption[edit | edit source]

Providing theoretical maximum power consumption value would be useless for the majority of system designers building their application upon ORCA module. Practically speaking, these figures would be of no help when it comes to size power supply unit or to perform thermal design of real systems.

Instead, several configurations have been tested in order to provide figures that are measured on real-world use cases.

Please note that ORCA platform is so flexible that it is virtually impossible to test for all possible configurations and applications on the market. The use cases here presented should cover most of real-world scenarios. However actual customer's application might require more power than values reported here or customer's use case may be differ significantly with respect to the ones here considered.

Therefore, application-specific requirements have always to be taken into consideration in order to size power supply unit and to implement thermal management properly.

Use cases results[edit | edit source]

Measurements have been performed on the ORCA SOM under test is equipped with:

  • i.MX8MPlus (p.n. MIMX8ML8CVNKZAB)
  • 8 GB DDR4LP SDRAM
  • 8 GB eMMC

1 Gbps Ethernet link has been always active during the test.

The table below reports the power consumption measurements for the considered use cases.

TBD.png Section not completed yet


Checkpoint Power (mW)
U-boot prompt TBD
Linux prompt TBD
Stress App test (*) TBD

(*) Stressful Application Test: TBD


Thermal management[edit | edit source]

The ORCA SOM is designed to support the maximum available temperature range declared by the manufacturer.

The customer shall define and conduct a reasonable number of tests and verification in order to qualify the DUT capabilities to manage the heat dissipation.

Any heatsink, fan etc shall be defined case by case.

DAVE Embedded Systems' team is available for any additional information, please contact sales@dave.eu.

A general overview snapshot[edit | edit source]

For your information, please see below a snapshot in stress conditions (with about 10W power consumption) with a standard heatsink on top of SOC:

Tcam mito top IR.jpg

Software thermal protection[edit | edit source]

TBD.png Section not completed yet


Mechanical specifications[edit | edit source]

This chapter describes the mechanical characteristics of the ORCA module.

Board Layout[edit | edit source]

The following figure shows the physical dimensions of the ORCA module:

ORCA TOP view

Connectors[edit | edit source]

The following figure shows the ORCA connector layout:

ORCA-connector-view.png

CAD drawings[edit | edit source]

3D drawings[edit | edit source]

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