Demo      Features Detect fatigue using a camera via an algorithm based on optical absorption rate of facial blood vessels Efficient processing with up to 1.2MHz Quad ARM Cortex-A9 architecture with a NEON multimedia processing acceleration engine Video processing unit in i.MX 6Quad to record front camera video in H.264 format Face tracking algorithm to track the driver's head for a real driving use case   NXP Recommends i.MX6Q|i.MX 6Quad Processors|Quad Core

Built to automotive grade specifications, this Qi compliant wireless charging reference design charges up devices in the car. The devices can integrate into the dash or center console of car.     https://community.nxp.com/players.brightcove.net/4089003392001/default_default/index.html?videoId=4282648274001" style="color: #05afc3; background-color: #ffffff; font-size: 14.4px;" target="_blank   Features Wireless Charging Reference design for Automotive applications Integration into dash board or center console 5 Watts of power following Qi standard Near field Communication (NFC) Loop included   Featured NXP Products 5 Watt Wireless Automotive 5 Watt Wireless Industrial Links WCT-5WTXAUTO: Multi-Coil Wireless Charging Tr Block Diagram  

Demo This demo showcases the MAC57D5xx microcontroller rendering on a LVDS 1280x480 display for a full digital graphic instrument cluster and a Head-up Display on a secondary panel showcasing the warping capabilities of the microcontroller.       Single-chip instrument cluster solution with powerful graphics subsystem, including inline Head-Up Display warping functionality Dual-core ARM® Cortex®-A5/M4 for real-time and application processing and additional Cortex-M0+IOP core Cryptographic Services Engine, tamper detection and password protection for Flash memory and JTAG   Links Ultra-Reliable Multi-Core ARM-based MCU

MC07XS6517 and MC17XS6500 single ICs provide comprehensive, cost-effective solutions for halogen, industrial lighting, LEDs, xenons, main switches and DC motor control. The eXtreme switch products are the latest achievement in DC motors and industrial lighting drivers. They belong to an expanding family to control and diagnose various types of loads, such as incandescent bulbs or light emitting diodes (LEDs), with enhanced precision. The products combine flexibility through daisy chainable SPI at 5.0 MHz, extended digital and analog feedbacks, which supports safety and robustness. This new generation of our high-side switch products family facilitates electronic control unit designs supported by the use of compatible MCU software and PCB footprints, for each device variant.     Features Operating voltage range of 7.0 V to 18 V, with sleep current <5.0 μA 5.0 MHz 16-bit SPI control of overcurrent profiles, channel control including 8-bit PWM duty-cycles, output -ON and -OFF open load detections, thermal shutdown and pre-warning, and fault reporting Output current monitoring with programmable synchronization signal and supply voltage feedback Programmable overcurrent trip levels Enhance output current sense with programmable synchronization signal and battery voltage feedback Watchdog and limp home mode External smart power switch control -16 V reverse polarity and ground disconnect protections Compatible PCB foot print and SPI software driver among the family Programmable Penta high-side switches Wide range diagnostic, current sensing and very low Rdson Up to 30% smaller PCB and 50% lower component count MC07XS6517 and MC17XS6500 eXtreme Switch applications include halogen, industrial lighting, LEDs, xenons, main switches and DC motor control   Featured NXP Products MC17XSF500: MC17XSF500, Penta 17 mOhm High Side Switch - Data Sheet MC07XSF517: MC07XSF517, Triple 7.0 mOhm and Dual 17 mOhm High Side Switch - Data sheet Block Diagram  

Demo NXP has developed a whole vehicle multi-layered approach to vehicle security.  This demo will demonstrate the NXP security products in action, and show the 4 steps to securing an automotive electrical architecture, and how these 4 steps provide a barrier to the recent public vehicle hacks.   Features: Try to hack a typical automotive network. Enable and disable NXPs security layers to see how they work to protect the vehicle. Demonstrates various NXP security IP, including: A700x family secured MCUs, MPC5748G connected gateway and HSM/CSE security engines. ___________________________________________________________________________________________________________________________   NXP Recommends MPC5748G|NXP A700x|NXP   ___________________________________________________________________________________________________________________________      

Demo Owner Mike Stanley   Tire Pressure Monitoring Systems (TPMS) help drivers with precise direct tire pressure measurement by providing individual tire readings – including the spare. NXP's world’s smallest, lowest-power, with highest memory for customer use TPMS is highly integrated with a pressure sensor, temperature sensor, accelerometer, MCU and a transmitter. Watch Mike Stanley explain the pressure sensor readings, temperature sensor display and the accelerometer/motion readings. These readings are time based periodic measurements where the data is given as an output to the driver.   Features Simulation that portraits the TPMS as if it were inside the vehicles tires and sending reports to the vehicle's display unit about tire pressure Module has the following: Pressure sensor, accelerometer, temperature sensor, low-frequency radio, Microcontroller   Featured NXP Products FXTH87 product page FXTH87 Fact Sheet Links Tire Pressure Monitoring Sensors Pressure Sensors Block Diagram  

本文说明在S32G上如何修改eMMC时钟，来避开200Mhz的或及倍频的频率EMI干扰检查点。 目录 1    背景说明和需要的资料... 2 1.1  背景说明... 2 1.2  需要的资料... 2 2    eMMC的硬件连接... 3 3    eMMC时钟初始化方法... 4 3.1  eMMC时钟源说明及修改目标... 4 3.2  M7+Bootloader方法(可选项) 6 3.3  ATF初始化方法... 7 4    修改eMMC时钟... 9 4.1  ATF的修改... 9 4.2  Uboot相关的修改... 9 4.3  非整除时钟的修改考虑... 10 5    测试结果... 11 update to V2，增加分数分频： 6    分数分频... 13 6.1  调试方法... 13 6.2  代码修改... 14 6.3   测试结果   15

本文说明如何配置MCAL ICU模块为GPIO Input。 默认的MCAL ICU模块是使用FTM输入为示例的。 本文采用软件版本为MCAL RTD 4.0.2 目录 1    背景与资料说明... 2 1.1  背景说明... 2 1.2  所需资料说明... 2 2    创建ICU工程... 3 2.1  打开工程... 3 2.2  编译与运行... 3 2.3  默认工程说明... 4 3    增加GPIO输入支持... 6 3.1  修改说明... 6 3.2  修改Port模块... 6 3.3  修改ICU模块... 7 3.4  Platform模块... 8 3.5  主测试程序修改... 9 3.6  测试结果... 10

本文说明S32G3 M7核Standby MCAL demo 详细情况及定制，并在进入Standby之前 调用QSPI 接口将QSPI NOR flash配置进入 deep power down模式，以节省用电。 目录 1    参考资料说明... 2 2    G2和G3 Demo的区别... 2 3    G3 MCAL Demo的实现... 4 3.1  修改UART驱动... 4 3.2  实现时钟关闭代码... 4 3.3  配置电源模式切换驱动... 5 3.4  配置唤醒源... 5 3.5  加入PMIC驱动... 6 3.6  主函数逻辑实现... 7 3.7  运行测试... 7 3.8  未来开发计划... 8 4    将QSPI NOR设置进入Deep Power Down模式... 8 4.1  Fls层的修改... 10 4.2  中间层的修改... 10 4.3  QSPI_IP层的修改... 13 4.4  主测试函数调用... 16 4.5  Fls驱动的测试... 17 5    将Deep Power Down功能集成到STANDBY工程中并测试    18 5.1  EB配置... 18 5.2  主测试函数与编译修改... 20 5.3  运行测试... 21

现在越来越多的客户，对于S32G PFE在master/slave的使用有了需求。 但是，PFE只有4个HIF接口，HIF0~HIF3，而PFE有3个EMAC口，以及LLCE2PFE也需要要给HIF，从而HIF成为一个关键资源。 同时，有些客户需要从A核，M核的业务考量，A核和M核的网络不仅要和外部设备进行通信，同时A核和M核内部也有通信需求，并且需要把业务报文和管理报文分离，这就对PFE master/slave的使用场景有了更多变化，以及对各种配置有了更多需求。 因此，针对PFE/Slave的几种使用典型的使用场景，进行配置。

在进行时钟同步时，目前S32G2/G3有一种很典型的使用场景： Grand master clock  <-> S32G PFE <-> 其余连接在PFE 某些 eMAC口上的设备 外部的grand master clock，连接在PFE的一个eMAC上，要同步S32G以及连接在PFE其余eMAC上的设备时钟。 但是S32G2/G3的PFE仅仅是支持timestamp，对于将S32G PFE设置成交换机使用时，PFE不能实现Transparent clock的功能。 因此，本文讨论将PFE + S32G SoC当作Transparent clock，以及将PFE + S32G当作boundary clock，来同步S32G以及其余部件的时钟。

本文说明了S32G如何储存mac地址，包括dts保存，systemd指定和fuse保存的办法： 目录 1 需要的软件................................................................. 2 2 背景说明 .................................................................... 2 3 PFE eMAC MAC地址说明 ......................................... 2 3.1 DTS配置 ................................................................. 2 3.2 源代码说明 ............................................................. 3 3.3 测试 ........................................................................ 4 4 GMAC0 MAC地址说明 .............................................. 4 4.1 DTS配置 ................................................................. 4 4.2 源代码说明 ............................................................. 4 4.3 SystemD脚本 ......................................................... 5 4.4 固定GMAC MAC地址的修改办法 ........................... 6 5 用Uboot命令烧写FUSE MAC地址项 .......................... 7 6 修改为从fuse中获得GMAC0 MAC地址 ...................... 9 6.1 Uboot代码修改 ....................................................... 9 6.2 Uboot写MAC寄存器说明 ...................................... 10 6.3 测试 ...................................................................... 10  

本文为如下G2版本的升级篇，使用G3+更新的软件 目录 1    需要的软件与工具... 2 1.1  软件工具与文档... 2 1.2  开发说明... 3 2    测试软件安装编译说明... 3 2.1  安装LLCE Logger驱动... 3 2.2  编译LLCE驱动测试程序(以CAN Logger 为例) 4 2.3  Logger Demo功能说明... 5 2.4  M7 BootLoader ATF镜像冲突检查... 7 2.5  LLCE Logger Demo去掉CLOCK INIT. 9 2.6  LLCE Logger Demo去掉MCU 相关INIT. 10 2.7  LLCE Logger Demo程序去掉PORT INIT. 10 2.8  中断冲突说明... 10 2.9  去掉其它无用初始化... 11 3    Bootloader工程说明... 11 3.1  关掉XRDC支持... 12 3.2  关掉eMMC/SD支持(可选) 13 3.3  关掉secure boot(可选) 14 3.4  增加LLCE 驱动所需要的PORT 的初始化... 15 3.5  解决Bootloader,MCAL 与Linux 的clock 冲突... 16 3.6  配置A53 Boot sources: 34 3.7  配置M7 Boot sources: 36 3.8  关闭调试软断点... 37 3.9  编译Bootloader工程... 38 3.10 制造Bootloader的带IVT的镜像... 39 3.11 烧写镜像... 41 4    Linux LLCE logger功能修改... 42 4.1 ATF的修改... 42 4.2 Linux中关于LLCE配置... 44 4.3 LLCE相关初始化冲突说明... 45 5    测试... 46 5.1  硬件连接... 46 5.2  LLCE logger 测试过程... 46 S32G Boot customization doc how to run bootloader to run mcal&linux https://community.nxp.com/t5/NXP-Designs-Knowledge-Base/S32G-Bootloader-Customzition/ta-p/1519838

doc&project&patch&script explain to support GD qspi nor in lauterbach, flash tool,ivt,fls mcal, fls bootloader and linux 目录 1    背景和参考资料... 2 1.1  背景说明... 2 1.2  参考资料... 3 1.3  硬件连接... 5 2    Lauterbach脚本驱动开发(可选) 5 2.1  准备参考脚本... 5 2.2  QuadSPI_ReadID.. 6 2.3  配置QSPI NOR为DOPI模式... 7 2.4  使用DOPI模式 READ_8DTRD.. 10 2.5  测试结果... 13 3    Flash tool算法镜像开发... 14 3.1  Flash SDK实现的算法... 15 3.2  开发新的flash源代码... 17 3.3  测试结果... 20 4    开发IVT参数头... 22 4.1  S32G QSPI控制器配置区别... 24 4.2  QSPI的配置区别... 28 4.3  测试结果... 29 5    开发MCAL Fls驱动... 30 5.1  MCAL Fls驱动工程说明... 30 5.2  FlsMem配置页... 34 5.3  MemCfg配置页... 35 5.4  测试结果... 49 6    开发Bootloader工程中Fls驱动... 51 6.1  Bootloader工程说明... 51 6.2  Bootloader与MCAL Fls驱动的不同点... 53 6.3  镜像打包... 54 6.4  测试结果... 56 7    开发Linux驱动(可选) 57 7.1  Linux GD驱动支持情况... 57 7.2  时钟相关的修改... 58 7.3  在DTS中增加GD flash的支持... 60 7.4  修改源代码增加flash信息结构体... 61 7.5  修改源代码中flash的fixup支持DTR模式... 62 7.6  Turning dummy值解决读错位的问题... 64 7.7  测试结果... 65

本文说明S32G HSE On-demand SMR验证的应用方法，本文演示的示例应用为： Secure Bootloader对Linux Bootloader fip.bin的验证 目录 1    背景说明与参考资料... 2 1.1  背景说明... 2 1.2  参考资料... 3 2    S32G On-demand SMR Verification说明... 4 2.1  SMR Verify的说明... 4 2.2  On-demand SMR Verify. 4 3    环境搭建... 5 3.1  EB配置说明... 5 3.2  ATF编译说明... 8 3.3  镜像烧写... 9 4    Bootloader代码开发... 9 4.1  OnDemand SMR install 9 4.2  OnDemand SMR verify. 13 5    测试... 16 5.1  Lauterbach跟踪... 17 5.2  Fip.bin破坏实验... 19 5.3  硬件确认... 19   This application doc explains the application method of S32G HSE On_demand SMR verification. The example application demonstrated in this doc is: Secure Bootloader verification of Linux Bootloader fip.bin This application doc explains the application method of S32G HSE On_demand SMR verification. The example application demonstrated in this doc is: Secure Bootloader verification of Linux Bootloader fip.bin Contents 1    Background Description and Reference Materials. 2 1.1  Background Description. 2 1.2  Reference Materials. 3 2    S32G On-demand SMR Verification. 4 2.1  SMR Verify. 4 2.2  On-demand SMR Verify. 4 3    Build the Development Environment 5 3.1  EB Configuration. 5 3.2  ATF Compiling. 8 3.3  Burn Image. 9 4    Bootloader Codes Development 9 4.1  OnDemand SMR install 9 4.2  OnDemand SMR verify. 13 5    Testing. 16 5.1  Lauterbach Tracking. 16 5.2  Fip.bin Broken Test 19 5.3  Probe the Hardware. 19

This doc explain bootloader secure boot feature and how to re-develop it to support: .FW update .OTP attribute access .IVT protect: 目录 1 参考资料 .................................................................... 2 2 S32G Secure Boot说明 ............................................. 2 2.1 IVT头格式与Secure Boot相关 ................................ 3 2.2 Secure Boot流程 .................................................... 3 2.3 Secure Boot配置 .................................................... 4 2.4 Secure Boot涉及到的HSE内容 ............................... 6 3 环境搭建 .................................................................... 7 3.1 搭建编译环境 .......................................................... 7 3.2 IVT镜像制造 ........................................................... 7 3.3 镜像烧写 ................................................................. 8 3.4 Bootloader Secure Boot测试 .................................. 8 4 Bootloader Secure Boot代码与功能说明 ................... 9 4.1 EB配置说明： ........................................................ 9 4.2 EB生成代码说明： ............................................... 15 5 定制1：HSE FW update .......................................... 22 5.1 代码开发 ............................................................... 22 5.2 测试 ...................................................................... 25 6 定制2：HSE OTP Attribute设置 ............................... 26 6.1 代码开发 ............................................................... 26 6.2 模拟测试 ............................................................... 33 7 定制3：IVT签名 ....................................................... 35 7.1 代码开发 ............................................................... 35 7.2 模拟测试 ............................................................... 40 Contents 1 Reference Materials .................................................. 2 2 S32G Secure Boot ..................................................... 3 2.1 IVT header format for the Secure Boot part .......... 3 2.2 Secure Boot Flow ................................................... 3 2.3 Secure Boot Configuration ..................................... 4 2.4 HSE background of Secure Boot ........................... 6 3 Build the Project ........................................................ 7 3.1 Build the Compiling Environment ........................... 7 3.2 Create IVT Image ................................................... 7 3.3 Burning Image ........................................................ 8 3.4 Bootloader Secure Boot Testing ............................ 9 4 Bootloader Secure Boot Codes and Function Description 9 4.1 EB Configuration .................................................... 9 4.2 EB output codes ................................................... 15 5 Customization 1：HSE FW update ......................... 22 5.1 Codes development ............................................. 23 5.2 Testing ................................................................. 26 6 Customization 2：HSE OTP Attribute Setting ......... 26 6.1 Code Development .............................................. 27 6.2 Simulation test ...................................................... 34 7 Customization 3：IVT Signature ............................. 36 7.1 Codes Development ............................................. 36 7.2 Simulation Testing ................................................ 40  

本文说明S32G LLCE CAN Linux驱动的 快速测试方法。 目录 1 参考资料 .................................................................... 2 1.1 参考资料 ................................................................. 2 1.2 版本匹配说明 .......................................................... 2 2 环境搭建 .................................................................... 3 2.1 使用Yocto编译 ........................................................ 3 2.2 使用Standalone编译 ............................................... 4 3 测试 ........................................................................... 5 3.1 硬件连接 ................................................................. 5 3.2 测试方法 ................................................................. 6 4 LLCE CAN Linux驱动说明 ......................................... 7 4.1 DTS ........................................................................ 7 4.2 源代码 .................................................................... 9  

this doc explain the HSE crypto driver and how to develop new feature 目录 1 参考资料 .................................................................... 2 1.1 参考资料 ................................................................. 2 1.2 版本匹配说明 .......................................................... 3 2 HSE FW服务 ............................................................. 3 2.1 服务描述符 ............................................................. 3 2.2 服务编号 ................................................................. 4 2.3 服务请求和响应 ...................................................... 6 2.4 服务执行 ................................................................. 9 2.5 Crypto驱动AES示例使用到的服务 ........................ 18 3 环境搭建 .................................................................. 19 3.1 安装与编译 ........................................................... 19 3.2 运行Demo ............................................................ 21 4 Crypto驱动代码与功能说明 ...................................... 23 5 定制1：增加GetAttribute功能 .................................. 28 6 CmacCtr Demo简介 ................................................. 31 7 SymmetricPrimitive Demo简介 ................................ 32 8 总结 ......................................................................... 34 9 其它注意事项 ........................................................... 34

Dear All: Customer has encountered eMMC boot failure issue in their i.MX8X platform, finally we confirmed this issue related to external pull-up resistors on DAT0~7 and CMD pins to comply with eMMC SPEC. Please refer to attached "Case Study-i.MX8X boards eMMC boot failure issue.pdf". Thanks.

本文说明在STR Resume后，如何解决M 核与A核的GPIO状态冲突的问题，并简单剖 析了Linux GPIO驱动。 目录 1 背景说明与参考资料 .................................................. 2 1.1 背景说明 ................................................................. 2 1.2 参考资料 ................................................................. 2 2 S32G linux GPIO驱动说明 ......................................... 3 2.1 SIUL2 GPO功能说明 .............................................. 3 2.2 Linux GPIO驱动DTS .............................................. 4 2.3 Linux GPIO驱动初始化 ........................................... 6 3 Rework办法 ............................................................... 7 3.1 SIUL2 GPO驱动PM函数 ........................................ 7 3.2 Rework方法 ............................................................ 9 4 测试办法 .................................................................. 10