A Spectral Energy Unit for Non-Linear Logic and Regression

The fundamental unit of modern deep learning, the Perceptron, is constrained bylinear separability, rendering it unable to solve non-linear problems like XOR withouta hidden layer. Furthermore, its memory capacity is strictly limited by the VCdimension of a linear classifier. We introduce the Quantum-Inspired Neuron (QIN),a novel computational unit based on Euler’s formula that processes inputs as phaseangles in a spectral sum. By utilizing a "Vectorized Spectral Calculus"—separatingreal and imaginary pathways for efficient gradient descent—we demonstrate that a single QIN can solve the XOR problem with >99% accuracy, perform non-linearanalog regression (MSE < 0.07), and achieve a memory capacity of 15 distinctpatterns in a 2D space (5x the theoretical limit of a standard perceptron). Thissuggests that spectral activation functions can significantly increase thecomputational density of neural networks by moving complexity from the networkarchitecture to the neuron itself.for Collabs contact: [email protected]

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-02-16
DOI
https://doi.org/10.5281/zenodo.18663382
Primary Topic
Neural Networks and Reservoir Computing
Type
article
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article

A Spectral Energy Unit for Non-Linear Logic and Regression

Shahid Malik
Zenodo (CERN European Organization for Nuclear Research)
Neural Networks and Reservoir Computing
article

A Spectral Energy Unit for Non-Linear Logic and Regression

Shahid Malik
article en

Abstract

The fundamental unit of modern deep learning, the Perceptron, is constrained bylinear separability, rendering it unable to solve non-linear problems like XOR withouta hidden layer. Furthermore, its memory capacity is strictly limited by the VCdimension of a linear classifier. We introduce the Quantum-Inspired Neuron (QIN),a novel computational unit based on Euler’s formula that processes inputs as phaseangles in a spectral sum. By utilizing a "Vectorized Spectral Calculus"—separatingreal and imaginary pathways for efficient gradient descent—we demonstrate that a single QIN can solve the XOR problem with >99% accuracy, perform non-linearanalog regression (MSE < 0.07), and achieve a memory capacity of 15 distinctpatterns in a 2D space (5x the theoretical limit of a standard perceptron). Thissuggests that spectral activation functions can significantly increase thecomputational density of neural networks by moving complexity from the networkarchitecture to the neuron itself.for Collabs contact: [email protected]

Zenodo (CERN European Organization for Nuclear Research)
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Neural Networks and Reservoir Computing
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