Codebook selection based on data distribution cuts transmission overhead while preserving quantization performance between devices.
Parallel comparators plus machine learning convert analog signals despite nonlinear behavior, manufacturing variation, and rigid interface limits.
A parallel-array ADC uses machine-learning calibration to map nonlinear analog behavior into accurate digital output without idealized circuitry.
A neural network predicts transmission distortion in delta-sigma modulation to suppress spectrum leakage and preserve signal quality.
CTU block partitioning signals tensor partitioning in compressed neural networks, cutting storage and compute for constrained devices.
Two-level parity protection strengthens SSD data retention under extreme temperatures by adding stronger ECC to error-prone data regions.
Calibrating a machine-learning ADC against a physical parallel array converter improves conversion accuracy when ideal analog circuitry is impractical.
Two-level parity protection strengthens SSD error correction for data stored under elevated temperatures and retention-related error risk.
Lossy cluster encoding cuts IoT-to-cloud data transfer while surrogate sampling and adversarial filtering improve AI training robustness.
3D pyramid block partitioning compresses neural network tensors to cut storage and decoding load on resource-constrained devices.
Bicoherence and neural networks separate jitter from other serial signal distortions, improving waveform measurement and clock recovery.
An analog MOSFET-capacitor multiplier cuts transistor count for neural computing while preserving multiplication accuracy through charge-based operation.