Dynamic Topological Quantum Circuit Design Language

Jincheng Zhang

Published Aug 29, 2026• 0 citations

Abstract

This paper introduces a novel programming language, the Dynamic Topological Quantum Circuit Design Language (DTQCDL), designed to directly represent and generate quantum circuits based on their topological structure. The core mechanism relies on a formal definition of quantum circuit topology combined with automated reasoning to produce executable quantum circuits. The language aims to simplify the complex design process of quantum circuits, thereby reducing the barriers to entry for quantum computing. This document outlines the key features, syntax, and underlying principles of DTQCDL, highlighting its potential for streamlining quantum circuit development and facilitating broader adoption of quantum technologies. The system focuses on providing a high-level abstraction that allows users to express quantum circuit concepts without needing to deeply understand the low-level details of gate implementation. The automated reasoning component ensures the correctness and efficiency of the generated circuits.

DOI: 10.5281/zenodo.22158063

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