EP20K1500EGC984-3

Intel's EP20K1500EGC984-3 redefines performance benchmarks in Embedded - FPGAs (Field Programmable Gate Array), optimized for industrial automation and machine vision systems. This FPGA combines high-speed processing with deterministic latency characteristics, essential for motion control applications. The architecture incorporates advanced thermal management features while delivering uncompromising computational density for edge AI implementations.Organized into 5184 configurable logic blocks, the architecture supports hierarchical design methodologies. Each LAB features dedicated clock enable resources for power-efficient sequential logic implementation.The 51840 logic elements architecture enables implementation of parallel processing pipelines with precise timing closure. When configured for DSP applications, the symmetrical cell arrangement minimizes routing congestion for optimal signal path integrity.Providing 442368 bits of distributed memory, this FPGA supports complex dataflow architectures without external memory bottlenecks. The memory subsystem features built-in parity protection for enhanced reliability in safety-critical industrial controls.The 2392000 equivalent gate capacity enables implementation of complete industrial communication stacks with headroom for custom logic. The balanced ratio of LUTs to flip-flops facilitates efficient finite state machine implementation.The 1.71V ~ 1.89V operating voltage range has been carefully selected to balance dynamic power consumption with noise margin requirements. The integrated voltage regulators maintain stable core voltages during rapid load transients common in motor drive applications.The Surface Mount mounting configuration ensures mechanical stability in high-vibration environments typical of factory automation. The package design incorporates stress-relief features to prevent solder joint fatigue over extended operational lifetimes.Rated for continuous operation at 0°C ~ 85°C (TJ), this FPGA maintains consistent performance across industrial temperature gradients. The thermal-aware placement algorithms prevent localized hot spots in densely packed logic configurations.