Introduction to new features introduced by AUTOSAR 4.3.0 and an overview of the NXP AUTOSAR portfolio for the NXP microcontrollers and processors. Introduction to the AUTOSAR ADAPTIVE platform.
Learn how to get started with the Zephyr Project on i.MX RT. You will gain hands-on experience with the Zephyr build environment and program your first Zephyr application onto a board.
A guide to developing with the Yocto Project for i.MX application processors. Learn how to leverage the Yocto Project to get started working on NXP reference boards.
Evolution of Automotive car architecture with more hybridization require evolution of power management to fit with application and environment changes. During this session you will have an overview of market dynamics.
Learn about vision processing and technical capabilities of S32V’s dual-APEX acceleration engines, multi-core A53 processors, on-chip image signal processor (ISP) and Vivante GC3000 GPU which differentiates S32V from other ARM® based processors that can’t meet the same performance/power envelope. Attendees will get hands-on experience using the SBC-S32V234 SOM hardware and free Vision SDK to demonstrate software for Lane Departure Warning (LDW), Feature Detection using Lukas-Kanade and Pedestrian Detection applications.
Building on the classroom training presentation "Deploying eIQ Machine Learning on NXP MCU and Apps Processors", this hands-on session will allow attendees to take a trained neural network model and deploy it on a i.MX RT1060 crossover processor. Attendees will use MCUXpresso as the development environment and implement an end-to-end use case. See notes here.
This session with demo presents how to build and integrate adaptive AUTOSAR applications on NXP BlueBox: Vision SDK application as an adaptive AUTOSAR service running on S32V234, Network2Cloud adaptive AUTOSAR application running on LS1043, service oriented communication over PCIe. The demonstrator is built around NXP Linux BSP (S32V234/LS1043), AUTOSAR adaptive platform demonstrator and vision SDK.
This session will examine the semiconductor devices that are needed for creating a cost-competitive, modern, fast-chirp, automotive radar sensor. Each essential IC building block will be reviewed for features and function with key attributes/specifications identified. The typical interconnections between ICs will be examined and explained. Radar operating theory will be briefly reviewed to highlight how each hardware block supports the radar sensor operation.
This session will cover NXP's complete sensor portfolio for both Automotive and IoT markets. This session will also provide an overview of the various target applications for sensors in both automotive and IoT domains. Applications ranging from Airbags, Tire Pressure Monitors to low power activity monitoring and asset tracking will be covered in the session.
A guide to using the Manufacturing tool. Learn how to install and use the Manufacturing tool on NXP reference boards and modify the tool for use in your own application.
Introduction of new part, tailored for long daisy chains in HV systems and ESS. BOM cost optimizations with new revC, including capacitive coupling. Introduction of new BMC and CMC reference designs, showing new levels of cost, size and performance optimization.
In this presentation, we are going to highlight the use of Model-Based Design processes for Vehicle Dynamics and Body Controller that involves electric drives which are typically used by OEM and Tiers 1 for product development. The primary benefit of Model-Based Design is the ability to cover traceability between design artifacts produced as a part of the design process. A traceability path from requirement management tool to software model, code, and finally tests in the hardware-in-the-loop environment is demonstrated. A typical PMSM Field Oriented Control application will be used to demonstrate all the steps shown above using NXP S32K Motor Kit.
This session will provide an introduction to automotive cybersecurity. We will outline: NXP's automotive security product portfolio; industry standards and best practices; and NXP's global security organization, cybersecurity design and business practices.
As IC geometries continue to shrink and switching speeds increase, designing electromagnetic systems and printed circuit boards to meet the required signal integrity and EMC specifications has become even more challenging. A new design methodology is required. Specifically, the utilization of an electromagnetic physics-based design methodology to control the field energy in your design will be discussed. This training module will walk through the development process and provide you with guidelines for building successful, cost effective printed circuit boards.
Hands-on getting started with MagniV. Participants will work with bare metal application code and Processor Expert, working with an S12ZVC development kit and CodeWarrior IDE. Short presentations followed by hands-on labs. Learn coding secrets for fast application startup!
The session will provide an overview of the AUTOSAR software for NXP Ethernet products. It will describe the software products, starting from the AUTOSAR standard requirements, but also the extensions implemented to leverage the hardware capabilities of our products. It will also point out the advantages of using the AUTOSAR Switch and Transceiver drivers, from integration with NXP or 3rd party microcontrollers to application use-case diversity and leveraging the software ecosystem and quality requirements set by the automotive industry standards.
The raison d'etre of edge computing is processing IoT sensor data, and machine learning techniques are increasingly being used for this analysis. Although general-purpose CPU cores can handle ML, specialized accelerators deliver 10x the performance in the same power envelope. Learn how Layerscape compute and acceleration is addressing the needs today - and see what the future holds.