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Iontronics of nanofluidic conical pores: learning phenomena using voltage pulses.
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CMOS Compatible Low Power Consumption Ferroelectric Synapse for Neuromorphic Computing
IEEE Electron Device Letters, 2023Tian-Yu Wang +2 more
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An Asynchronous Soft Macro for Ultra-Low Power Communication in Neuromorphic Computing
2022 IEEE 4th International Conference on Artificial Intelligence Circuits and Systems (AICAS), 2022Asynchronous networks-on-chip (NoCs) playa fundamental role to materialize energy efficiency and scalability of spiking neural network-based neuromorphic systems. An unmistakable trend in this field consists of using bundled-data encoding for NoC design, showing promise in overall cost metrics while incorporating moderate timing constraints.
Bertozzi D., Bhardwaj K., Nowick S. M.
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Spin-Transfer Torque Magnetic neuron for low power neuromorphic computing
2015 International Joint Conference on Neural Networks (IJCNN), 2015Neuromorphic computing attempts to emulate the remarkable efficiency of the human brain in vision, perception and cognition related tasks. Nanoscale devices that offer a direct mapping to the underlying neural computations have emerged as a promising candidate for such neuromorphic architectures.
Abhronil Sengupta, Kaushik Roy 0001
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Ultra-Low power neuromorphic computing with spin-torque devices
2013 Third Berkeley Symposium on Energy Efficient Electronic Systems (E3S), 2013Emerging spin transfer torque (ST) devices such as lateral spin valves and domain wall magnets may lead to ultra-low-voltage, current-mode, spin-torque switches that can offer attractive computing capabilities, beyond digital switches. This paper reviews our work on ST-based non-Boolean data-processing applications, like neural-networks, which involve ...
Mrigank Sharad +3 more
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Spintronic devices for ultra-low power neuromorphic computation (Special session paper)
2016 IEEE International Symposium on Circuits and Systems (ISCAS), 2016Emerging spin-transfer torque mechanisms in devices like vertical spin valves, lateral spin valves, domain wall motion based devices, spin-torque oscillators and spin-orbit torque based devices have opened up new possibilities of mimicking various neural and synaptic functionalities by the underlying device physics.
Abhronil Sengupta +2 more
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Nanoscale, 2022
The mitigating effects of synaptic nonlinearity and low power through AgNO 3 doping was achieved in the biomaterial based artificial synapse.
Ke Zhang +6 more
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The mitigating effects of synaptic nonlinearity and low power through AgNO 3 doping was achieved in the biomaterial based artificial synapse.
Ke Zhang +6 more
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Low-power Analog and Mixed-signal IC Design of Multiplexing Neural Encoder in Neuromorphic Computing
2021 22nd International Symposium on Quality Electronic Design (ISQED), 2021The research on computing clusters comprising neuromorphic systems has drawn the interest of many researchers in the field. Neural encoding is a crucial component that determines how the information is conveyed through a train of spikes, greatly impacting the mode of operations’ and systems’ performance to a large extent. Numerous encoding schemes have
Honghao Zheng +3 more
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Spin wave based synapse and neuron for ultra low power neuromorphic computation system
2016 IEEE International Symposium on Circuits and Systems (ISCAS), 2016In this work, we have proposed that the neural synapses and neurons can be realized by utilizing spin waves (SWs) as information carrier. The SWs is excited by spin torque nano-oscillator (STNO), and detected with several different physical mechanisms: 1) tunneling magnetic-resistance 2) spin pumping and 3) inverse spin hall effect.
Lang Zeng +7 more
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Design of Low-Power Systems Based on Neuromorphic Computing
Applied and Computational EngineeringWith the rapid advancement of the Internet of Things and edge intelligent computing, the demand for low-power, high-energy-efficient computing systems has become increasingly urgent. The traditional von Neumann architecture suffers from poor energy efficiency in data-intensive tasks due to the 'memory wall' problem.
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