Quantum Computing Emulation using Neuromorphic Artificial Spiking Neurons
Abstract
Quantum computing emulation using neuromorphic artificial spiking neurons designed with CMOS electronics is introduced in this paper. By extending the Axon-Hillock neuron model, the proposed circuit can emulate a universal set of quantum gates-Phase Shift, Hadamard, and CNOT-at room temperature, with ultra-low power consumption. Simulations and layout using 180 nm CMOS technology demonstrate successful emulation of quantum logic operations and entanglement, including GHZ states, with small area and significant reduction in power compared to previous oscillator-based approaches. This work paves the way for scalable, energy-efficient quantuminspired computation on standard CMOS hardware, suitable for mobile and edge applications.
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