Spin-NeuroMem is a low-power neuromorphic associative memory design that integrates spintronic devices and CMOS components, achieving superior performance in terms of power consumption, area, and recall speed compared to prior works.
Strain-mediated control of the energy barrier height in low barrier nanomagnets enables reconfiguring binary stochastic neurons (BSNs) to analog stochastic neurons (ASNs) and vice versa, enabling a wide range of applications in neuromorphic hardware.
Photonic-electronic spiking neurons offer high-speed, energy-efficient neuromorphic sensing and computing capabilities.
Hardware-in-loop learning with spin stochastic neurons showcases the potential for edge-intelligent devices.
Die Integration von Mem-Elementen in neuromorphe Hardware bietet eine vielversprechende Lösung für energieeffiziente und leistungsstarke neuronale Netzwerkanwendungen.
Spiking Neural Networks offer fast and efficient solutions for Visual Place Recognition tasks, enabling real-time deployment on resource-constrained robotic systems.
Effektive Event-Driven Lernalgorithmen für tiefe SNNs.
Optimizing ANN-SNN conversion for lossless results under ultra-low latency.
Enhancing computer vision through spike-based neuromorphic computing.
A novel Deep-STDP framework enhances unsupervised learning in Spiking Neural Networks, outperforming traditional clustering methods.