A non-parallelisable proof-of-work chain uses sequential computation to curb ASIC advantage, cut energy use, and preserve blockchain consensus.
Segmenting global number ranges into assigned blocks reduces latency and concurrency issues across distributed software applications.
A compute-in-memory circuit merges memory cells with NMOS and PMOS transistors to perform binary logical operations directly on bit-lines.
A signal detector converts input signals into flag values to enable processing elements to skip arithmetic operations.
Segmented sparse look-up tables reduce circuit size while maintaining division speed.
A common factor mass multiplier circuit generates partial products once and shares them across multiple operations.
Integrated read-modify-write logic performs atomic operations directly within memory units to prevent race conditions and reduce resource consumption.
A combinatorial solver system estimates quality metric values using established functions to guide solution search without full optimization.
FPGA multiplier circuits pack logical operands into physical segments to boost throughput without increasing circuit complexity.