Advanced Driver Assistance Systems (ADAS) represent a cornerstone of modern automotive technology, integrating sophisticated electronics to enhance vehicle safety, efficiency, and driver comfort. This tag page curates a collection of articles focused on the PCB and electronics aspects of ADAS systems, from sensor fusion and embedded processing to power management and signal integrity. For engineers, designers, and enthusiasts searching for ADAS systems, these resources offer essential knowledge on how electronic components enable features like adaptive cruise control, lane-keeping assistance, and collision avoidance. Understanding ADAS systems begins with their core electronic architecture, where printed circuit boards (PCBs) serve as the backbone for integrating radars, cameras, LiDAR, and ultrasonic sensors. Articles under this tag delve into practical applications, such as designing high-reliability PCBs that withstand automotive environments, including vibration, temperature extremes, and electromagnetic interference. Readers can find actionable insights on selecting components like microcontrollers and power ICs that meet ISO 26262 safety standards, ensuring functional safety in real-world deployments. Best practices highlighted include optimizing PCB layouts for low-latency data processing and implementing redundancy to prevent system failures, which are critical for developing robust ADAS solutions. For those involved in prototyping or scaling ADAS technologies, the content emphasizes integration challenges and solutions, such as interfacing with vehicle networks like CAN or Ethernet. Whether you are troubleshooting sensor calibration issues or exploring advancements in AI-driven perception modules, the articles provide step-by-step guidance and case studies from industry implementations. Browsing through these pieces can help refine your approach to electronics design in autonomous and semi-autonomous vehicles, fostering innovation in safer transportation.