Placing trainable nonlinear functions on connections in analogue networks enables efficient representation of smooth continuous targets with hardware transfer at projected 30 microwatt power.
Memory devices and applications for in-memory computing
5 Pith papers cite this work, alongside 2,116 external citations. Polarity classification is still indexing.
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Spatial multiplexing in optical neural networks is repurposed as a trainable representational coordinate, demonstrated in multi-layer architectures for image classification, regression, and hybrid vision-language captioning with over one million optical phase parameters.
A nine-transistor current-mode bistable memory cell in 180 nm CMOS is presented with independent tuning of threshold, hysteresis, and gain, shown via schematic simulations for spike-based logic gates and recurrent neural units.
An MTJ-based logic-in-memory design performs fully parallel stochastic bit-stream generation and arithmetic without external random number generators by exploiting device stochasticity.
BMRUs enable analog recurrent neural network hardware via discrete outputs that suppress noise 20-fold, with one-to-one parameter-to-circuit mapping and linear power scaling for recurrence.
citing papers explorer
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Low-power analogue neural networks with trainable nonlinear connections for continuous control
Placing trainable nonlinear functions on connections in analogue networks enables efficient representation of smooth continuous targets with hardware transfer at projected 30 microwatt power.
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Multi-channel Optical Vision Model
Spatial multiplexing in optical neural networks is repurposed as a trainable representational coordinate, demonstrated in multi-layer architectures for image classification, regression, and hybrid vision-language captioning with over one million optical phase parameters.
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A Fully Tunable Ultra-Low Power Current-Mode Memory Cell in Standard CMOS Technology
A nine-transistor current-mode bistable memory cell in 180 nm CMOS is presented with independent tuning of threshold, hysteresis, and gain, shown via schematic simulations for spike-based logic gates and recurrent neural units.
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Maximizing Memory-Level Parallelism via Integrated Stochastic Logic-in-Memory Architectures
An MTJ-based logic-in-memory design performs fully parallel stochastic bit-stream generation and arithmetic without external random number generators by exploiting device stochasticity.
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Hardware-Software Co-Design of Scalable, Energy-Efficient Analog Recurrent Computations
BMRUs enable analog recurrent neural network hardware via discrete outputs that suppress noise 20-fold, with one-to-one parameter-to-circuit mapping and linear power scaling for recurrence.