A training module generates task-specific neural networks through architectural search on shared layers to maintain performance across sequential tasks.
Pruning and quantizing an initial neural network creates a teacher model that guides student training, addressing performance drops in small models.
A dynamic batching controller adjusts neural network layer sizes based on operation ratios.
A neuromorphic synapse uses a gating pulse to adjust memristor resistance change ratios for precise synaptic weight training.
A system manages intermediate representations by extracting data and operation information to generate a structured representation for processing.
Dynamic trigger signals switch the DNN process between operation and stop states, reducing power consumption during idle periods.
Loads non-zero elements into vector registers to reduce computing power consumption during neural network operations.
Segmenting neural networks across edge devices eliminates centralized processing bottlenecks while preserving data privacy and reducing communication overhead.
Multiplexing layers combine multiple inputs into a single compact representation, reducing energy consumption while maintaining model performance.
Node assemblies with high within-assembly connectivity improve information processing performance while managing network organization complexity.
Stacked input, hidden, and output conductors with programmable resistive elements resolve the trade-off between real-time processing speed and circuit area.
A hierarchical method preprocesses datasets and clusters them to build predictive models in a layered approach.
A dynamic convolution neural network compresses input data into a low-dimensional intermediate space to fuse channels efficiently.
A DUnet engine processes seismic data using contractive and expansive paths to produce denoised images.
A weighted f-measure metric computes class-specific precision and recall weights to evaluate multiclass classifiers.
A multiplexing circuit extracts feature data from buffer cells to accelerate neural network operations.
Joint parameter promotion achieves structured sparsity, reducing non-zero parameters while preserving network structure and memory access efficiency.
Joint Proximity Association Template replaces CNN proximal layers with associative memory matrices to accelerate neural network processing.
Sensitivity-based pruning reduces storage requirements and computational load in speech recognition models while maintaining high measurement precision.
A block-based inference method divides input images into blocks to process convolution operations independently.
Dynamic context switching in a storage compute device reduces data transfer time by processing large matrices directly within non-volatile memory arrays.