A3P030-2QNG68I

Designed for next-generation automotive electronics, Microchip Technology's A3P030-2QNG68I sets new standards in Embedded - FPGAs (Field Programmable Gate Array) for reliability and performance. This radiation-hardened FPGA meets stringent automotive qualification requirements while delivering the computational power needed for autonomous driving subsystems. The architecture incorporates triple-redundant voting logic and SEU-resistant memory for functional safety applications.The 49 automotive-grade I/Os support 12V fault tolerance and include built-in current limiting. Each I/O bank can be independently configured for LIN/CAN FD/FlexRay interface protocols common in vehicle networks.The 30000 equivalent gate count provides sufficient resources for implementing complex sensor fusion algorithms. The hardened multipliers and accumulators accelerate matrix operations common in machine vision processing.Operating from 1.425V ~ 1.575V, the power architecture includes load-dump protection and reverse polarity safeguards. The adaptive body biasing technique reduces leakage current during extended vehicle standby periods.The Surface Mount package meets automotive vibration specifications while maintaining reliable connections under thermal cycling. The solder joint design has been optimized for lead-free assembly processes required in modern vehicle electronics.Qualified for -40°C ~ 100°C (TJ) operation, the device maintains timing margins across the full automotive temperature range. The thermal shutdown circuitry prevents damage during extended exposure to under-hood conditions.The 68-VFQFN Exposed Pad package incorporates copper heat spreaders for efficient thermal management in confined automotive modules. The mold compound has been formulated for resistance to automotive fluids and cleaning agents.Supplied in 68-QFN (8x8) configuration, the device includes automotive-grade moisture sensitivity labeling. The tape-and-reel packaging complies with automated assembly requirements for high-volume vehicle production.