Non-volatile arrays combine synapses and computation. Compact stacks reduce circuit complexity.
This arithmetic program combines constrained integer-array points with FMDA and genetic algorithms to improve sampling efficiency.
This arithmetic method combines genetic algorithms and one-hot constraints to widen sampling and avoid local solutions.
This case uses SRAM caching and stationary memory to keep more model parameters on-chip and reduce energy-intensive data movement.
A first solver lowers the objective value, while a second searches nearby solutions for constraint satisfaction.
Direct cross-set channels and limited intermediary hops accelerate tensor operations while reducing data sharing and bandwidth demands.
This case combines outlier dampening, variable selection, and noise suppression to improve sensitivity and specificity in binary prediction.
Generalized Fourier interpolation refines radar frequency peaks across varied DFT configurations.
A hybrid algorithm assigns continuous variables to classical optimization and binary variables to quantum optimization, limiting qubit use.
A ray-coordinate method updates intersection attributes incrementally, reducing traced rays, latency, power use, and silicon area.
External transpose engines speed large-matrix processing with parallel and serial loading.
ALMM-Optim continuously updates its knowledge base to solve NP-hard selection problems as production processes change.
This circuit uses parallel NTT units and fewer comparison operations to support polynomial processing with reduced hardware resources.
This case uses Riemannian manifold updates to preserve fixed-rank model data and reduce storage, transmission, and computing overhead.
Embedding real inputs in complex arrays enables dealiased FFT convolutions with less buffer storage and lower computational overhead.