Table of Contents INTRODUCTION ........................................... 4 ........................................5 ENERAL NFORMATION M ..........................................6 LOCK IAGRA ..........................................7 EATURES ....................................7 OCUMENT AND TANDARD EFERENCES 1.4.1 External Industry Standard Documents ........................................7 1.4.2 Other external documents ............................................. 7 1.4.3 On-line documentation ..............................................7 ............................................
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....................................47 ERIPHERAL MULTIPLEXING DESCRIPTION 6.1.1 Alternative SPI Configuration ............................................47 6.1.2 alternative IC Configuration ............................................48 6.1.3 Alternative UART pins tables ............................................49 6.1.4 alternative CAN bus interface ............................................50 6.1.5 alternative PWM pins table ............................................51 CARRIER BOARD RECOMMENDED SPECIFICATIONS ................................52 ......................................
CHAPTER 1 Introduction This Chapter gives background information on this document. Section includes: General Overview ✔ Acronyms and Abbreviations Used ✔ Document and Standard References ✔...
Engicam explicitly reserves the rights to change or add to the contents of this manual or parts of it without special notification. All operating parameters must be validated for each customer application by customer’s technical experts.
We offer on-line support to allow the customer to stay updated on the development of software release and on the enhancement of the documentation. Following is shown the references for ENGICAM on-line support. www.engicam.com ENGICAM Product Experts are available to answer questions via email: support@engicam.com Engicam s.r.l. Via Ilio Barontini, 5/3 50018 Scandicci (Florence) Italy Tel.
1.7 Acronyms and Abbreviations used ABBREVIATION EXPLANATION Analogue to Digital Converter Controller Area Network, a bus that is manly used in automotive and industrial environment Central Processor Unit Digital to Analogue Converter Electromagnetic Interference, high frequency disturbances eMMC Embedded Multi Media Card, flash memory combined with MMC interface controller in a BGA package, used as internal flash memory Electrostatic Discharge, high voltage spike or spark that can damage electrostatic- sensitive devices...
CHAPTER 2 2. Mechanical data This Chapter gives information about PCB and module's dimensions. Section includes: Assembly Top View ✔ ✔ Assembly Bottom View Mechanical data ✔...
2.1 Mechanical data The i.MX 93 module has a standard SO DIMM footprint compliant with TYCO ELECTRONICS code 1473005-1 or compatible connector. The PCB dimensions is L 67.60 x W 32 x H 1 mm. The distances available on PCB under the module are from 1 to 1.4 mm. 2.2 Assembly Top View Figure 1 2.3 Assembly Bottom View...
CHAPTER 3 3. Ordering Information and Features This Chapter gives the ordering information and technical specifications of the modules. Section includes: i.CoreMX93 ordering codes ✔ CPU & Memory specification ✔ Operating temperature range ✔ i.CoreMX93 supported features ✔...
CPU & Memory specifications Operating temperature Module available at least until range °C (excepted CPU) i.Core MX93 FULL 2GB NPU 002682035NI55B EDIMM 2.0, i.MX 93 Dual Cortex-A55@1700MHz industrial temperature dual Cortex-A55 MIMX9352 ARM Ethos U-65 and Cortex-M33@250MHz, 2GB LPDDR4, 8GB micro NPU, -40 to +105C , 8GB eMMC -25°C,...
3.2 Part Number Structure The module is available with eMMC option. The standard order codes shown in the tables above shall be modified as follow: 0026 Revision RAM size 512MB Option available Single Gb Ethernet Non volatile memory specification Dual Gb Ethernet 256MB SLC NAND 512MB SLC NAND 4GB eMMC...
4.1 Module Pinout The module's interface is achieved by a SODIMM 200 position connector TYCO ELECTRONICS code 1473005-1 or compatible Name Pin Name on i.MX 93 Primary Function Description GPIO Voltage Capable +1V8 Output Power PIN +1V8 Output Power PIN Power PIN Power PIN Power PIN...
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Name Pin Name on i.MX 93 Primary Function Description GPIO Voltage Capable LVDS0_TX3_P LVDS0_D3_P LVDS Interface's Signals MIPI_DSI_D2_P MIPI_DSI1_D2_P MIPI_DSI LVDS0_TX3_N LVDS_D3_N LVDS Interface's Signals LVDS0_CLK_P LVDS_CLK_P LVDS Interface's Signals MIPI_DSI_D3_N MIPI_DSI1_D3_N MIPI_DSI LVDS0_CLK_N LVDS_CLK_N LVDS Interface's Signals MIPI_DSI_D3_P MIPI_DSI1_D3_P MIPI_DSI LVDS0_TX1_P LVDS_D1_P...
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Name Pin Name on i.MX 93 Primary Function Description GPIO Voltage Capable UART2_TXD UART2_TXD UART TX DATA signal +3,3V UART2_RXD UART2_RXD UART RX DATA signal +3,3V Power PIN MIPI_CSI1_D0_P MIPI_CSI1_D0_P MIPI_CSI -(MIPI Camera Serial Interface) MIPI_CSI1_D0_N MIPI_CSI1_D0_N MIPI_CSI - (MIPI Camera Serial Interface) N MIPI_CSI1_CLK_P MIPI_CSI1_CLK_P MIPI_CSI - (MIPI Camera Serial Interface) N...
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Name Pin Name on i.MX 93 Primary Function Description GPIO Voltage Capable ETH_TXRXM_B Ethernet signal GPIO_IO05 GPIO_IO05 Generic PWM +3,3V ETH_TXRXP_B Ethernet signal +3V3_OUT Output Power PIN +3V3_OUT Output Power PIN ETH2_TXRXP_A ENET2_TXC Ethernet signal ETH_nLINK Ethernet signal ETH2_TXRXM_A ENET2_TX_CTL Ethernet signal ETH_nACT Link/Activity LED...
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Name Pin Name on i.MX 93 Primary Function Description GPIO Voltage Capable JTAG_TDO DAP_TDO_TRACESWO JTAG Interface +1,8V JTAG_TDI DAP_TDI JTAG Interface +1,8V JTAG_TMS DAP_TMS_SWDIO JTAG Interface +1,8V JTAG_TCK DAP_TCLK_SWCLK JTAG Interface +1,8V TAMPER1 TAMPER1 +3,3V TAMPER0 TAMPER0 +3,3V USB2_VBUS USB2_VBUS BOOT_MODE UART2_TXD Boot from USB/UART or Memory device...
5.1 How to power the i.CoreMX93 module Read carefully the related sections before starting the power stage design. This module needs to be supplied up to +5Vin power. Please refer to the table below for the power supply range specification. The power dissipated by the module in the operating mode is up to 600 mA, but the system must provide at least a power of 2A at 5V to allow the start of the module.
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The following table shows the nominal maximum rating of power output: Power output Max output current +1V8 +3V3_OUT Table 7 For further details on the power supply refer to "i.MX 93" data sheet and Reference Manual...
5.2 How to connect two 3-wire RS232 serial port This section shows how to use the i.MX 93 UARTs as 3-wire RS232 serial ports. The table shows involved UARTs and the associated pins: Number Name Primary Function GPIO Capable Voltage Description UART2_TXD UART TXD signal...
5.3 How to connect a RS485 serial port This chapter shows how an RS485 serial port can be connected to the module. The figure below shows how UART is connected to the RS485 transceiver. Figure 4 The pins involved in this RS485 communication in standard EDIMM specs are listed in the following table. Number Name Primary Function...
5.4 How to connect CAN BUS interfaces This chapter describes how CAN bus transceiver can be connected to the i.MX 93 module. Figure 5 The following table describes the pins' numbering in the main connector involved in the CAN interface Number Name Primary Function...
5.5 How to design the Ethernet interface The NXP i.MX 93 Mini Ethernet Media Access Controller (MAC) is designed to support 10/100/1000 Mbps Ethernet/IEEE ® standard 802.3™ networks. Figure 6 The table below lists all Ethernet signals of the module. Number Name Primary Function Description...
Number Name Primary Function Description GPIO Voltage Capable signal (TX-) for MDI-X configuration ETH2_TXRXM_B Negative receive signal (RX+) for MDI configuration and the negative +3,3V transmit signal (TX+) for MDI-X configuration ETH2_TXRXP_C BI_DC+ for MDI configuration and BI_DD+ for MDI-X configuration +3,3V ETH2_TXRXM_C BI_DC- for MDI configuration and BI_DD- for MDI-X configuration...
5.5.2 Component Placement considerations Components placement can affect signal quality, emissions and can decrease EMI problems. If the magnetics are a discrete component than the distance from the connector RJ45 should be kept to under 25mm of separation. To decrease EMI problems the distance between magnetics and Phy should be at least 25mm or greater to isolate the PHY from magnetics.
5.5.3 Cable Transient Event and PHY Protection Cable transient events are + and - DC surges that are induced across the transformer onto the PHY side of the TX+/- and RX+/- signals as shown in figure below. The PHY side of the transformer should not contain any DC component other than the typical 3.3V pull-up on the center tap of the transformer for analog signal biasing.
5.6 USB interface Warning! The schematics in chapters below are generic, please refer to the signals in the table. 5.6.1 How to connect the USB OTG interface The NXP i.MX 93 USB module provides high performance USB On-The-Go (up to 480Mbps), compatible with the USB ®...
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Use of the USB OTG port as a Host with its own dedicated supply. The ID signal is forced to GND Figure 10 Use of the USB OTG port as Device. Figure 11...
5.6.2 How to connect the USB host interface The module provides one port for USB host interface. The figure shows how to connect this port to the Module. Figure 12 It's possible to multiply the USB ports available by equipping the carrier board with a USB HUB. If only one port is needed it's possible to connect the USB_D (M/P) signals shown in the figure, directly to the module on pin 194-196 of the main connector.
5.7 How to connect the SD CARD interface The NXP i.MX 93 Ultra Secured Digital Host Controller (uSDHC) provides the interface between the host system ® and MMC/SD/SDIO/CE-ATA cards, including cards with reduced size or mini cards. The module includes these features and the figure shows how the Micro SD Card connector is connected to i.MX 93 Module in the evaluation board.
5.8 LVDS Interfaces The i.Core MX93 SOM is equipped with LVDS interfaces, available up to 24 bit data connection. The LVDS ports may be used as follows: • One single-channel output Following the LVDS interfaces maps and schemes Number Name Primary Function Description GPIO Capable Voltage...
5.8.1 LVDS Routing and Placement Considerations The LVDS lines are high-speed signals and as such during the designing must be complied with standards of protection against noise and crosstalk. In this chapter we give some advices about positioning, cabling and routing; for further details follow the guidelines and the manuals about LVDS bus.
5.9 MIPI DSI Interface MIPI DSI interface is a specification of the Mobile Industries Processor Interface (MIPI) Alliance (see http://mipi.org for details). The i.Core MX93 is equipped with one instance of 4-lane MIPI DSI interface. Number Name Primary Function Description GPIO Capable Voltage MIPI_DSI_D3_P...
5.10 MIPI CSI Interface MIPI CSI interface is a specification of the Mobile Industries Processor Interface (MIPI) Alliance (see http://mipi.org for details). The i.CoreMX93 is equipped with an instance of 2-lane MIPI CSI interface. Number Name Primary Function Description GPIO Capable Voltage MIPI_CSI1_D0_P MIPI_CSI - (MIPI Camera Serial Interface)
5.11 JTAG Interface Joint Test Action Group (JTAG) is the common name used for the IEEE 1149.1 standard entitled Standard Test Access Port and Boundary-Scan Architecture for test access ports used for testing printed circuit boards using boundary scan. JTAG is often used as an IC debug or probing port. There are no official standards for JTAG adapter physical connectors.
5.12 Boot Mode Pin Boot mode pin determines how the module boot. The following table listed the possible options of the boot mode: BOOT_MODE Action Boot from memory devices Boot from Serial Table 22 The boot from Serial is usually used for the boot loader deploy, for further information referring to the i.MX RM. Note : Pin 86 and pin 116 must be floating or high impedance on booting.
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5.12.1 Boot Signals Management Following is shown the signals to be regarded during boot sequence. These signals must be floating or high impedance. Pin Number Signal Name Pin Name on i.MX93 UART2_TXD UART2_TXD UART1_TXD UART1_TXD...
5.13 How to connect the Audio Interface i.Core MX93 is equipped with a SAI (Synchronous Audio Interface) that can be connected with a standard audio codec device. The figure below shows connection with a Low Power Stereo Codec using the module signals interface. Figure 18 The following table lists the I2S BUS pins numbering Number...
5.14 How to connect the reset pin The reset pin is a reset input for the SOM and it is managed by the on board PMIC. By default an active state on reset signal causes a COLD reset with a complete new power sequence (power off fol- lowed by a new power on).
5.15 ADC Option The i.MX 93 module does not include ADC, but can be optional. Number Name Primary Function Description GPIO Capable Voltage OPT_ADC_IN0 ADC_IN0 +1.8V OPT_ADC_IN1 ADC_IN1 +1.8V OPT_ADC_IN2 ADC_IN2 +1.8V OPT_ADC_IN3 ADC_IN3 +1.8V Table 27 ADC 1.8V OPTION on REQUEST...
6.1 Peripheral multiplexing description In the following we describe opportunity to use alternative interfaces using the properties of multiplexing pin. Refer to the NXP ® 's reference manual and documentation for further details. 6.1.1 Alternative SPI Configuration Using pin multiplexing 's features we may have the following SPI and IIS connections. The tables below show the output signals on the Connector's module.
SPI6 signals interfaces +3,3V Pin number Pin Name on i.MX 93 Signal reference Voltage reference GPIO_IO02 MOSI +3,3V GPIO_IO01 MISO +3,3V GPIO_IO03 +3,3V GPIO_IO00 +3,3V GPIO_IO24 +3,3V Table 32 SPI7 signals interfaces +3,3V Pin number Pin Name on i.MX 93 Signal reference Voltage reference GPIO_IO06...
IIC5 interfaces Pin number Pin Name on i.MX 93 Signal reference Voltage reference 12/ 109 GPIO_IO23/ GPIO_IO01 +3,3V 11/ 108 GPIO_IO22 / GPIO_IO00 +3,3V Table 36 IIC6 interfaces Pin number Pin Name on i.MX 93 Signal reference Voltage reference 105/ 132 GPIO_IO03/ GPIO_IO05 +3,3V 106/ 184...
UART6 interfaces Pin number Pin Name on i.MX 93 Signal reference Voltage reference GPIO_IO04 UART6_TXD +3,3V GPIO_IO05 UART6_RXD +3,3V GPIO_IO06 UART6_CTS_B +3,3V GPIO_IO07 UART6_RTS_B +3,3V Table 43 UART7 interfaces Pin number Pin Name on i.MX 93 Signal reference Voltage reference GPIO_IO08 UART7_TXD +3,3V...
6.1.5 alternative PWM pins table It's possible to set the pins shown in the tables as PWM signals. Pin number Pin Name on i.MX 93 MicroGEA Signal reference Voltage reference 113/ 117 UART1_RXD / UART1_RXD TPM1_CH0 +3,3V 112/116 UART1_TXD / UART1_TXD TPM1_CH1 +3,3V UART2_RXD...
CHAPTER 7 7. Carrier board recommended specifications Following are the specifications required for the carrier board to avoid problems in the assembly process. The module is interfaced with the carrier board through a SO-DIMM with 200 positions connector type TYCO ELECTRONICS code 1473005-1 or compatible.
CHAPTER 8 Product Compliance In order to respect own internal policy regarding the environmental regulations and safety laws, Engicam in this chapter confirms the compliance, when applicable, of its own products to the normative ROHS and REACH and to the recognized hazards.
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