Transportation Innovation Days 2022 is an online event spanning several days that will feature several live and on-demand sessions presented by industry thought leaders. They will present megatrends such as e-Mobility, Advanced Driver-Assistance Systems (ADAS) and other topics like capacitive touch solutions, wired and wireless networking, cyber security, functional safety and automotive software. We will also present innovative solutions for automotive and transportation designs to help you get your products to market faster.
Keep checking back for updates on our third set of session dates and subjects. We will be covering a variety of topics including ADAS, functional safety and security.
Is your next car a smartphone on wheels? Learn more about Advanced Driver Assistance System’s by joining Part II of our Innovation Day Seminar Series which kicks off on the 5th of April with a livestream broadcast by Matthias Kaestner, our Vice President of Automotive. Check back soon for links to access the livestream and add the event to your calendar.
The fully autonomous vehicle is a complex system that requires large amounts of real-time data, cloud connectivity and fast, safe and secure decision-making capabilities. Increasing sensor bandwidth and cloud connectivity is turning the next-generation vehicle into a data center on wheels. While the vehicle’s zonal ECUs connect to a centralized compute platform via Ethernet, automotive designers are adapting PCIe® technology from the data center world to implement high-bandwidth, inter-processing, real-time decision-making.
In this webinar, we will demonstrate how our automotive-qualified Switchtec™ PCIe® switches combine with Ethernet networking to solve the data tsunami challenge in next-generation central computing platforms.
The move from domain-oriented system architectures to new zonal architectures is fueling the change from legacy networking technologies to Ethernet. Ethernet is a packet-oriented and non-deterministic technology that is suitable for transmitting data packets of any size, one after the other. However, Ethernet is not an ideal solution for audio and video applications that require continuous transmission and synchronous streaming of data.
In this free webinar, Francis Ielsch and Laurent Manhès explain how adding Audio Video Bridging (AVB) or Time-Sensitive Networking (TSN) support can make Ethernet suitable for audio and video applications in vehicles.
Autonomous vehicles will require extremely precise and accurate Position, Navigation and Timing (PNT) as they proliferate the roads, both inside and outside of the vehicle. One of the greatest PNT source challenges, especially in urban canyons, is maintaining ubiquitous coverage. Bringing the GNSS constellation down to the street level can provide seamless and secure PNT.
To provide Advanced Driver Assistance System (ADAS) features, the vehicle itself has evolved to become a mobile data center with multiple computers and communication gateways interconnected by high-speed networks. This system requires dozens of clocks with automotive reliability, high frequencies and low jitter. We show how to optimize a clock tree design to reduce complexity and risk.
Modern vehicles offer a variety of driving assistance features and automated driving functions to improve safety for the driver and passengers. For decades, capacitive sensing has played a significant role in automotive user interfaces. It is now being used to verify that a driver’s hands remain on the steering wheel to control the vehicle.
Learn how you can use an automotive-grade microcontroller (MCU) running our Touch library to create a capacitive Hands-Off Detection (HoD) solution in your steering wheel design. This flexible, single-chip solution works with common HoD sensor topologies and supports HoD sensor segmentation. It also supports a cost-efficient combination with steering wheel heating that reduces sensor layer count.
Discover how we can help you select the best and lowest-cost solution to reduce your Bill of Materials (BOM) and sensor complexity while increasing the reliability, functionality and performance of your design. This HoD solution and the buttons, sliders and touchpads of your steering wheel’s user interface support ISO 26262 functional safety systems.
Ganesh Moorthy is Microchip's chief executive officer. He will be giving an overview of Microchip in the automotive space and discuss what is coming next in the Transportation Innovation sessions.
Joe Thomsen is Microchip's vice president of 16-bit microcontrollers and corporate sponsor for Microchip’s e-Mobility initiative. He will be kicking off our series of sessions with an overview of e-Mobility and what to expect with the session series.
The world is becoming greener, forcing the mobility industry to implement environmentally friendly technologies. Battery-powered Electric Vehicles (EVs) are trending and charging infrastructure must keep up. There are different AC and DC charging solutions in the market, from home AC chargers with just a few kW to rapid-charging stations with 300 kW. Manufacturers have the opportunity to thrive in this growing market by creating charging opportunities that meet system requirements while incorporating innovative features. Learn how we can help you reduce your time to market, risk and cost while increasing revenue and differentiating your next EV charger design.
e-Mobility covers a wide range of battery-powered motorized vehicles used for human transportation. Although four-wheeled Electric Vehicles (EVs) capture the most mindshare, two- and three-wheeled electric bikes and scooters are most common worldwide. While e-bikes and e-scooters typically contain a single traction motor, EVs easily contain another 20 or more different motor-controlled applications. In this session, we will take a closer look at several different e-mobility motor control applications and solutions.
Build your next human or motor control position sensor with just a metal target and a printed circuit board. This talk will give an overview of the technology behind this process and show you how to jump-start your next position sensor design. Our family of inductive position sensor Integrated Circuits (ICs) delivers safe, accurate performance with improved noise immunity and a simplified, low-cost sensor solution. Our inductive position sensor ICs offer significant advantages over Hall effect solutions by eliminating the magnetic target and, unlike Hall effect sensors, they operate seamlessly near motors, solenoids and high currents with no loss of precision. They are ideal for high-reliability and safety-critical human and motor position sensor applications.
The global BMS market is expected to grow exponentially within the next five years. The growth of this market will be driven by the growing trend of Electric Vehicles (EVs), Hybrid Electric Vehicles (HEVs) and Plug-In Hybrid Vehicles (PHVs) that require recharging. With the influx of EVs, we are committed to developing high performance and robust solutions for automotive BMS market.
With increasing high-voltage content in Electric Vehicles (EVs) comes a greater need for protection. Electronic fuse (E-fuse), enabled by Silicon-Carbide (SiC) technology, provides a faster, more reliable method for protecting power electronic applications. Learn how E-fuse solutions can detect and interrupt fault currents in microseconds faster than traditional approaches. Fast response times limit peak fault current and prevent a fault event from becoming a hard failure.
The automotive electric evolution is advancing quickly, making smart solutions for on-board charging more relevant than ever before. In this session, we will guide you through a variety of building blocks addressing the challenges to incorporating elements like power conversion and power factor correction, AUTOSAR®, functional safety, robust design and security. The presentation will finish up with a discussion of our other high-voltage Silicon Carbide (SiC) and analog components to complete every aspect of your design.
In the emerging field of e-Mobility, there is an increasing number of challenges to securing and protecting the systems. The ecosystem requires authentication of vehicles at charging stations and secure payment when applicable. EVs are heavily connected to the outside world, increasing the attack surface. The software running in EVs, typically with more lines of code than traditional combustion engine-based vehicles, increases the likelihood of software bugs. It is more important than ever to ensure that the software being executed in the vehicle is trusted, which you can achieve by implementing secure boot and securely upgrading the vehicles in the field when bugs are undoubtedly discovered and require patches. Battery Management Systems (BMSs) require authentication that sends signed battery health status back to a cloud and, depending on architecture, requires authentication of the individual replaceable battery modules. The presentation will also discuss ecosystem challenges and associated solutions.