Mouser Electronics, Inc., the authorised global distributor of the newest electronic components and industrial automation products, has expanded its Autonomous Vehicle (AV) online resource centre. The platform focuses on the architectures and design constraints shaping production-ready autonomous systems. It explores how sensing technologies, in-vehicle networking, and vehicle-to-everything (V2X) communication feed real-time decision systems, while also examining how safety, cybersecurity, and ethical considerations increasingly influence what it means for autonomy to be deployable in real-world environments.
Designing Autonomous Vehicles for Real-World Deployment
For autonomous vehicles to operate reliably outside controlled environments, engineers must balance deterministic performance, functional safety, and cybersecurity while ensuring systems can make safe and ethical decisions in complex road scenarios. Robotaxi deployments have already highlighted many of the technical barriers that remain when autonomy moves from test environments into live traffic.
To address these challenges, AV developers are integrating high-bandwidth sensing, advanced in-vehicle networking, and continuous over-the-air (OTA) software updates into system architectures designed to support certification, servicing, and long-term upgrades. These pressures are accelerating the industry’s shift towards software-defined vehicles and zonal architectures, where sensing and actuation are separated from centralised compute platforms. This approach helps reduce wiring complexity, improves fault isolation, and enables modular system evolution beyond the original deployment.
Mouser’s Resource Hub for Autonomous Vehicle Development
Created with input from Mouser’s technical specialists and its network of manufacturing partners, the Autonomous Vehicle Resource Hub provides engineers with a curated library of articles, blogs, eBooks, and product information designed to support real-world design decisions.
The platform covers topics including perception and sensor fusion, deterministic networking, functional safety, cybersecurity, ethical decision frameworks, and regulatory considerations. Rather than focusing purely on laboratory-level performance, the content aims to highlight practical integration challenges engineers face when deploying autonomous systems at scale.
Example Components for Autonomous Vehicle Systems
Mouser also stocks a broad range of semiconductors and electronic components suited to autonomous vehicle development. Examples include the following solutions.
Texas Instruments DP83TC817S-Q1 Automotive Ethernet Transceiver
The DP83TC817S-Q1 supports single-pair Ethernet communication over unshielded twisted-pair cable and offers flexible xMII interface options. The device complies with Open Alliance EMC specifications and integrates IEEE 802.1AE security. It also includes OA TC-10 low-power sleep with wake forwarding to reduce system power consumption. Packaged in a 6 mm × 6 mm VQFN compatible with TI 100BASE-T1 and 1000BASE-T1 PHY footprints, the transceiver supports scalable designs for ADAS, body electronics, and telematics systems.
NXP Semiconductors S32E2 Real-Time Automotive Processors
Built on a 16 nm process, the S32E2 processor family targets software-defined vehicle architectures and supports ASIL D functional safety and ISO/SAE 21434 cybersecurity compliance. The processors support software platforms including AUTOSAR, Zephyr, and FreeRTOS. Each device integrates eight Arm Cortex-R52 cores running up to 1 GHz, a TSN-enabled gigabit Ethernet switch, 19 MB of SRAM, and up to 64 MB of Flash memory. These capabilities support scalable control applications such as electric vehicle systems, battery management systems, BLDC motor control, and automotive zone controllers.
Microchip Technology MCP998x Automotive Temperature Sensors
The MCP998x family provides up to five monitoring channels with accuracy of ±1 °C and operates from a 1.7 V to 3.6 V supply range. Hardware-configured shutdown thresholds cannot be overridden through software, making the sensors suitable for safety-critical thermal management applications.
TE Connectivity NanoMQS 0.50 mm Miniaturised Connector System
The NanoMQS connector system is based on the Micro Quadlok System architecture and reduces PCB footprint by up to 50% while supporting currents up to 6 A. It features a 1.8 mm pitch and locking lance terminals with primary and secondary contact locking, as well as audible CPA engagement and LV214/USCAR compliance for secure connections in high-vibration environments. The system supports both round-wire and FFC/FPC terminations and is designed for space-constrained automotive applications such as battery management units, ECUs, airbags, and black box systems.
Access the Autonomous Vehicle Resource Centre
Engineers interested in learning more about the design considerations behind autonomous vehicle systems can explore Mouser’s full collection of technical resources online.
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