A3P400-2FG144

Microchip Technology's A3P400-2FG144 redefines wireless communication capabilities in Embedded - FPGAs (Field Programmable Gate Array), engineered for 5G base stations and millimeter-wave applications. This FPGA combines ultra-low latency processing with high-speed serial transceivers, enabling next-generation network infrastructure. The architecture features advanced equalization techniques to compensate for channel impairments in RF signal chains.Providing 55296 bits of low-latency memory, this FPGA buffers high-speed sample data without pipeline stalls. The memory subsystem features configurable interleaving for optimal access patterns in signal processing applications.The 97 high-speed I/Os support multiple industry-standard protocols including JESD204B/C. Each I/O bank incorporates adaptive equalization to compensate for PCB transmission line losses.The 400000 equivalent gate capacity enables implementation of complete digital predistortion algorithms. The hardened DSP blocks accelerate complex number processing for beamforming applications.The 1.425V ~ 1.575V operating range has been optimized for power amplifier linearization applications. The integrated voltage regulators maintain precise supply levels for sensitive RF circuitry.The Surface Mount mounting solution ensures reliable operation in outdoor telecommunication equipment. The package design incorporates stress-relief features for thermal cycling endurance.Qualified for 0°C ~ 85°C (TJ) operation, the device maintains consistent performance across cellular base station environments. The thermal management system prevents performance degradation during peak traffic loads.The 144-LBGA package implements advanced RF shielding techniques for sensitive receiver applications. The low-loss dielectric material minimizes signal attenuation at millimeter-wave frequencies.Delivered in 144-FPBGA (13x13) format, the device meets stringent wireless infrastructure reliability requirements. The packaging includes ESD protection for handling during installation.