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Quantum Morphic Geometry for Geometric Computation

Jincheng Zhang

Published Aug 31, 2026• 0 citations
Publisher

Abstract

Quantum morphic geometry offers a novel approach to geometric computation, leveraging the principles of quantum mechanics and geometry to perform complex transformations. This paper introduces a framework based on quantum morphic fields, demonstrating its potential for efficient computation through quantum algorithms. We explore the core mechanism of utilizing quantum morphic fields to simulate geometric transformations and integrate quantum algorithms for enhanced computational efficiency. The research focuses on providing a robust and scalable method for geometric manipulation, potentially revolutionizing existing computational techniques.

DOI
10.5281/zenodo.22205297

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Quantum morphic geometry offers a novel approach to geometric computation, leveraging the principles of quantum mechanics and geometry to perform complex transformations. This paper introduces a framework based on quantum morphic fields, demonstrating its potential for efficient computation through quantum algorithms. We explore the core mechanism of utilizing quantum morphic fields to simulate geometric transformations and integrate quantum algorithms for enhanced computational efficiency. The research focuses on providing a robust and scalable method for geometric manipulation, potentially revolutionizing existing computational techniques.
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