Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Algorithmic Quantum Complexity Theory

Jincheng Zhang

Published Sep 5, 2026• 0 citations
Publisher

Abstract

This paper investigates the computational complexity of quantum algorithms, proposing a new framework based on quantum superposition and entanglement. We introduce a "quantum state evolution" algorithm to dynamically adjust the quantum state, enabling the calculation of complexity metrics directly tied to the algorithm's objectives. The core claim is that this approach offers a fundamentally new method for quantifying the computational limits of quantum algorithms, surpassing current classical approximations. We provide a detailed mathematical description of the algorithm and discuss its implications for understanding and potentially extending the limits of quantum computation.

DOI
10.5281/zenodo.22317733

Related papers

基于量子态的自适应算法设计

Jincheng Zhang

This paper introduces a novel algorithm framework based on quantum states, leveraging quantum state dynamics for optimization and improvement of complex algorithms. Traditional algorithmic approaches often rely on classical parameters, offering limited flexibility in adapting to dynamic environments. This work proposes a new paradigm where quantum states serve as a dynamic baseline, enabling the algorithm to adjust its operation based on subtle changes in the underlying quantum system. We detail the architecture of this framework, outlining the key components and the underlying principles governing its adaptive behavior. The core claim is that this approach provides a fundamentally different and potentially more efficient method for tackling complex computational problems, surpassing the limitations of traditional algorithms through the inherent properties of quantum mechanics. We present a preliminary analysis demonstrating the algorithm's capabilities through illustrative examples, highlighting the potential for significant performance gains in specific scenarios.

•Aug 31, 2026•0 citations

基于量子信息熵的算法复杂度分析

Jincheng Zhang

This paper investigates the application of quantum information entropy as a novel approach to analyzing algorithm complexity. Traditional methods often rely on classical computational models and may not fully capture the resource demands inherent in quantum algorithms. We propose a framework where algorithms are translated into quantum information processing steps, and quantum information entropy is utilized to quantify the complexity of these processes. The core claim is that this approach offers a more accurate assessment of computational resource requirements, ultimately guiding the design and optimization of algorithms. We present a theoretical framework and explore potential applications, highlighting the unique insights gained through the lens of quantum information entropy. The analysis focuses on identifying key metrics related to entanglement, coherence, and quantum state manipulation, which directly influence the entropy values. We demonstrate how variations in these metrics can significantly impact the overall complexity of an algorithm. Furthermore, we discuss the limitations of this approach and suggest future research directions.

•Sep 5, 2026•0 citations

Adaptive Quantum Algorithm Optimization

Jincheng Zhang

This paper introduces an innovative approach to quantum algorithm optimization, leveraging the inherent adaptability of quantum algorithms. Traditional optimization methods often rely on fixed parameters, limiting the algorithm's effectiveness. We propose a novel framework centered around dynamically adjusting quantum circuit parameters to enhance algorithm performance. This framework utilizes quantum superposition and entanglement to explore a broader parameter space, leading to significant efficiency gains. The core mechanism involves a self-adaptive optimization process, continuously refining the quantum circuit parameters based on the algorithm's current state. The paper details the theoretical underpinnings of this method, demonstrates its efficacy through simulations, and provides a clear pathway for practical implementation. We analyze the impact of parameter adjustments on various metrics, showcasing the algorithm's superior performance compared to existing methods. The paper concludes with a discussion of the potential implications of this approach for a wide range of quantum computing applications.

•Aug 31, 2026•0 citations

Dynamic Quantum Superposition: A Novel Algorithmic Approach for Adaptive Quantum Computation

Jincheng Zhang

This paper introduces a novel algorithmic framework for dynamic quantum superposition, termed "Dynamic Quantum Superposition," designed to enhance the versatility and efficiency of quantum computation. The core principle of this approach lies in dynamically adjusting the underlying topology of quantum superposition states, allowing for a significantly more flexible and adaptive quantum system. We present a detailed description of the algorithm's mechanism, including the mathematical formulation of the transformation applied to the state vector, and demonstrate its effectiveness through theoretical analysis and preliminary experimental validation. This research explores the potential of this dynamic approach to overcome limitations of traditional quantum computation and pave the way for new computational paradigms. The algorithm's focus is on accelerating quantum computation by optimizing the state space.

•Sep 2, 2026•0 citations

Adaptive Quantum Entanglement Algorithm for Enhanced Computation

Jincheng Zhang

Quantum computing holds immense potential for breakthroughs across various fields, but the inherent complexities of quantum systems often limit the scalability and computational speed. This paper presents an innovative quantum algorithm, the Adaptive Quantum Entanglement Algorithm (AQEA), designed to address these limitations by dynamically adjusting the entangled state of qubits. The AQEA leverages a novel mechanism for continuous state optimization, aiming to significantly improve both the efficiency and accuracy of quantum computations, particularly in scenarios demanding complex calculations. This research explores the theoretical foundations of the algorithm, details its implementation and performance evaluation, and highlights the key advantages over existing approaches. The core claim is that the AQEA, through its dynamic state adjustment, can surpass current quantum algorithms in several crucial metrics, offering a pathway towards practical quantum solutions.

•Sep 5, 2026•0 citations

Algorithmic Quantum Complexity Theory - Hybrid Quantum-Classical Optimization

Jincheng Zhang

Abstract: This paper explores the intersection of algorithmic quantum complexity theory and hybrid quantum-classical optimization. We propose a novel algorithm designed to efficiently find optimal configurations for complex quantum systems by strategically combining quantum computation for initial exploration and refinement with classical optimization to fine-tune the resulting quantum state. The core claim is to create a method that surpasses the limitations of classical optimization by intelligently integrating quantum and classical techniques. This work addresses the fundamental challenges in understanding and analyzing the complexity of quantum systems, potentially unlocking new algorithmic pathways and insights.

•Sep 2, 2026•0 citations
This paper investigates the computational complexity of quantum algorithms, proposing a new framework based on quantum superposition and entanglement. We introduce a "quantum state evolution" algorithm to dynamically adjust the quantum state, enabling the calculation of complexity metrics directly tied to the algorithm's objectives. The core claim is that this approach offers a fundamentally new method for quantifying the computational limits of quantum algorithms, surpassing current classical approximations. We provide a detailed mathematical description of the algorithm and discuss its implications for understanding and potentially extending the limits of quantum computation.
This paper introduces a novel algorithm framework based on quantum states, leveraging quantum state dynamics for optimization and improvement of complex algorithms. Traditional algorithmic approaches often rely on classical parameters, offering limited flexibility in adapting to dynamic environments. This work proposes a new paradigm where quantum states serve as a dynamic baseline, enabling the algorithm to adjust its operation based on subtle changes in the underlying quantum system. We detail the architecture of this framework, outlining the key components and the underlying principles governing its adaptive behavior. The core claim is that this approach provides a fundamentally different and potentially more efficient method for tackling complex computational problems, surpassing the limitations of traditional algorithms through the inherent properties of quantum mechanics. We present a preliminary analysis demonstrating the algorithm's capabilities through illustrative examples, highlighting the potential for significant performance gains in specific scenarios.
This paper investigates the application of quantum information entropy as a novel approach to analyzing algorithm complexity. Traditional methods often rely on classical computational models and may not fully capture the resource demands inherent in quantum algorithms. We propose a framework where algorithms are translated into quantum information processing steps, and quantum information entropy is utilized to quantify the complexity of these processes. The core claim is that this approach offers a more accurate assessment of computational resource requirements, ultimately guiding the design and optimization of algorithms. We present a theoretical framework and explore potential applications, highlighting the unique insights gained through the lens of quantum information entropy. The analysis focuses on identifying key metrics related to entanglement, coherence, and quantum state manipulation, which directly influence the entropy values. We demonstrate how variations in these metrics can significantly impact the overall complexity of an algorithm. Furthermore, we discuss the limitations of this approach and suggest future research directions.
This paper introduces an innovative approach to quantum algorithm optimization, leveraging the inherent adaptability of quantum algorithms. Traditional optimization methods often rely on fixed parameters, limiting the algorithm's effectiveness. We propose a novel framework centered around dynamically adjusting quantum circuit parameters to enhance algorithm performance. This framework utilizes quantum superposition and entanglement to explore a broader parameter space, leading to significant efficiency gains. The core mechanism involves a self-adaptive optimization process, continuously refining the quantum circuit parameters based on the algorithm's current state. The paper details the theoretical underpinnings of this method, demonstrates its efficacy through simulations, and provides a clear pathway for practical implementation. We analyze the impact of parameter adjustments on various metrics, showcasing the algorithm's superior performance compared to existing methods. The paper concludes with a discussion of the potential implications of this approach for a wide range of quantum computing applications.
This paper introduces a novel algorithmic framework for dynamic quantum superposition, termed "Dynamic Quantum Superposition," designed to enhance the versatility and efficiency of quantum computation. The core principle of this approach lies in dynamically adjusting the underlying topology of quantum superposition states, allowing for a significantly more flexible and adaptive quantum system. We present a detailed description of the algorithm's mechanism, including the mathematical formulation of the transformation applied to the state vector, and demonstrate its effectiveness through theoretical analysis and preliminary experimental validation. This research explores the potential of this dynamic approach to overcome limitations of traditional quantum computation and pave the way for new computational paradigms. The algorithm's focus is on accelerating quantum computation by optimizing the state space.
Quantum computing holds immense potential for breakthroughs across various fields, but the inherent complexities of quantum systems often limit the scalability and computational speed. This paper presents an innovative quantum algorithm, the Adaptive Quantum Entanglement Algorithm (AQEA), designed to address these limitations by dynamically adjusting the entangled state of qubits. The AQEA leverages a novel mechanism for continuous state optimization, aiming to significantly improve both the efficiency and accuracy of quantum computations, particularly in scenarios demanding complex calculations. This research explores the theoretical foundations of the algorithm, details its implementation and performance evaluation, and highlights the key advantages over existing approaches. The core claim is that the AQEA, through its dynamic state adjustment, can surpass current quantum algorithms in several crucial metrics, offering a pathway towards practical quantum solutions.
Abstract: This paper explores the intersection of algorithmic quantum complexity theory and hybrid quantum-classical optimization. We propose a novel algorithm designed to efficiently find optimal configurations for complex quantum systems by strategically combining quantum computation for initial exploration and refinement with classical optimization to fine-tune the resulting quantum state. The core claim is to create a method that surpasses the limitations of classical optimization by intelligently integrating quantum and classical techniques. This work addresses the fundamental challenges in understanding and analyzing the complexity of quantum systems, potentially unlocking new algorithmic pathways and insights.