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

Quantum State-Based Complexity Assessment

Jincheng Zhang

Published Sep 3, 2026• 0 citations
Publisher

Abstract

This paper introduces a novel computational complexity assessment method based on quantum state measurements and evolution. Traditional complexity assessment methods primarily rely on resource measurements, while this approach leverages the unique properties of quantum states to provide a more accurate and direct evaluation of algorithm complexity. We propose a quantum complexity database, utilizing quantum state analysis to identify and quantify computational bottlenecks. The core mechanism involves manipulating quantum states to represent and analyze algorithm execution, ultimately leading to a more refined understanding of complexity. The paper details the methodology, presents preliminary results, and discusses the potential implications for algorithm analysis and complexity research.

DOI
10.5281/zenodo.22274056

Related papers

Quantum Coherence-Based Computational Complexity Analysis

Jincheng Zhang

This paper presents a novel approach to analyzing the computational complexity of quantum algorithms by leveraging the concept of quantum coherence. Traditional methods for assessing quantum complexity often rely on circuit depth, qubit count, or gate complexity, which can be insufficient in capturing the nuances of quantum computation. We introduce a framework that explicitly incorporates the calculation of quantum coherence, recognizing it as a fundamental resource in quantum computation. The core idea is that the precision and duration of quantum coherence directly correlate with the computational effort required. We define a mathematical model that quantifies coherence decay and its impact on algorithm execution time. This model allows us to derive tighter bounds on the complexity of quantum algorithms, particularly those that rely heavily on sustained coherence. Furthermore, we explore the implications of coherence limitations on the feasibility of certain quantum algorithms and suggest potential strategies for mitigating these effects. This work contributes a new perspective on quantum complexity analysis, providing a more accurate and potentially more scalable method for evaluating quantum algorithms.

•Sep 3, 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

Dynamic Complexity Computation: A Quantum Entanglement-Based Theoretical Framework

Jincheng Zhang

This paper presents a novel theoretical framework for dynamic complexity computation, leveraging the unique properties of quantum entanglement to enhance the assessment of complex system computational complexity. We propose a method that establishes a direct link between complexity metrics and entanglement, enabling the precise evaluation of computational stability and guiding algorithm optimization based on this understanding. The core mechanism involves associating complexity with entanglement's inherent characteristics, utilizing entanglement for stability assessment and algorithmic optimization. This approach offers a fundamentally different perspective on complexity, moving beyond traditional statistical methods and embracing the subtle yet powerful interplay of quantum mechanics. This research aims to provide a robust and potentially transformative tool for computational complexity analysis, particularly in the design and optimization of complex algorithms.

•Sep 5, 2026•0 citations

基于量子纠缠的复杂性函数

Jincheng Zhang

This paper introduces a novel complexity function based on quantum entanglement, aiming to provide a more accurate assessment of system complexity. Traditional complexity functions often rely on approximations, failing to capture the nuanced intricacies within complex systems. We propose a model leveraging quantum entanglement to simulate system evolution and deliver a precise assessment of complexity. The core mechanism involves mapping the system's evolution to a quantum entangled state, allowing for a more detailed and accurate analysis. This approach offers a significant advancement over existing methods by introducing a fundamental shift in how complexity is quantified and evaluated.

•Sep 6, 2026•0 citations

Title: Predictive Algorithmic Complexity Analysis for Complex Systems

Jincheng Zhang

This paper introduces a novel methodology for estimating the computational complexity of complex algorithms, particularly machine learning models, across a broad spectrum of input sizes and data distributions. Traditional complexity analysis methods often rely on approximations, limiting their applicability to specific scenarios. We propose a framework leveraging variational quantum computation (VQC) to simulate the evolution of algorithms on different computational scales, providing a significantly more accurate and scalable assessment of complexity. The core mechanism involves constructing a dynamic simulation model that captures the interplay between algorithm structure, data characteristics, and the inherent complexity of the underlying computation. This approach offers the potential to dramatically improve the efficiency and reliability of complexity analysis, particularly for computationally intensive algorithms. The paper details the architecture of the VQC simulation, explores its strengths and limitations, and presents preliminary results demonstrating its effectiveness in estimating complexity for several benchmark problems. The goal is to provide a robust and adaptable method for tackling the challenges posed by the increasing size and complexity of modern computational systems.

•Sep 6, 2026•0 citations

Quantum-Inspired Geometry for Computational Complexity

Jincheng Zhang

Quantum-inspired geometry proposes a novel framework for quantifying computational complexity by leveraging the properties of quantum phenomena. This paper explores the concept of a "Quantum Complexity Metric" – a quantifiable measure derived from the inherent characteristics of quantum states and entanglement – to provide an alternative to traditional complexity measures. We delve into the potential benefits of this approach, emphasizing its ability to identify patterns and bottlenecks in algorithm performance. The research focuses on establishing a rigorous mathematical foundation for this metric, outlining its operational principles and demonstrating its potential to enhance our understanding of computational limitations. Specifically, we will address the challenges of quantifying entanglement and its connection to computational cost, and we will present preliminary results utilizing a simplified, yet illustrative, model. Ultimately, this work aims to advance the field by suggesting a fundamentally new approach to analyzing complexity, potentially leading to more efficient algorithms and deeper insights into the boundaries of computation.

•Aug 31, 2026•0 citations
This paper introduces a novel computational complexity assessment method based on quantum state measurements and evolution. Traditional complexity assessment methods primarily rely on resource measurements, while this approach leverages the unique properties of quantum states to provide a more accurate and direct evaluation of algorithm complexity. We propose a quantum complexity database, utilizing quantum state analysis to identify and quantify computational bottlenecks. The core mechanism involves manipulating quantum states to represent and analyze algorithm execution, ultimately leading to a more refined understanding of complexity. The paper details the methodology, presents preliminary results, and discusses the potential implications for algorithm analysis and complexity research.
This paper presents a novel approach to analyzing the computational complexity of quantum algorithms by leveraging the concept of quantum coherence. Traditional methods for assessing quantum complexity often rely on circuit depth, qubit count, or gate complexity, which can be insufficient in capturing the nuances of quantum computation. We introduce a framework that explicitly incorporates the calculation of quantum coherence, recognizing it as a fundamental resource in quantum computation. The core idea is that the precision and duration of quantum coherence directly correlate with the computational effort required. We define a mathematical model that quantifies coherence decay and its impact on algorithm execution time. This model allows us to derive tighter bounds on the complexity of quantum algorithms, particularly those that rely heavily on sustained coherence. Furthermore, we explore the implications of coherence limitations on the feasibility of certain quantum algorithms and suggest potential strategies for mitigating these effects. This work contributes a new perspective on quantum complexity analysis, providing a more accurate and potentially more scalable method for evaluating quantum algorithms.
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 presents a novel theoretical framework for dynamic complexity computation, leveraging the unique properties of quantum entanglement to enhance the assessment of complex system computational complexity. We propose a method that establishes a direct link between complexity metrics and entanglement, enabling the precise evaluation of computational stability and guiding algorithm optimization based on this understanding. The core mechanism involves associating complexity with entanglement's inherent characteristics, utilizing entanglement for stability assessment and algorithmic optimization. This approach offers a fundamentally different perspective on complexity, moving beyond traditional statistical methods and embracing the subtle yet powerful interplay of quantum mechanics. This research aims to provide a robust and potentially transformative tool for computational complexity analysis, particularly in the design and optimization of complex algorithms.
This paper introduces a novel complexity function based on quantum entanglement, aiming to provide a more accurate assessment of system complexity. Traditional complexity functions often rely on approximations, failing to capture the nuanced intricacies within complex systems. We propose a model leveraging quantum entanglement to simulate system evolution and deliver a precise assessment of complexity. The core mechanism involves mapping the system's evolution to a quantum entangled state, allowing for a more detailed and accurate analysis. This approach offers a significant advancement over existing methods by introducing a fundamental shift in how complexity is quantified and evaluated.
This paper introduces a novel methodology for estimating the computational complexity of complex algorithms, particularly machine learning models, across a broad spectrum of input sizes and data distributions. Traditional complexity analysis methods often rely on approximations, limiting their applicability to specific scenarios. We propose a framework leveraging variational quantum computation (VQC) to simulate the evolution of algorithms on different computational scales, providing a significantly more accurate and scalable assessment of complexity. The core mechanism involves constructing a dynamic simulation model that captures the interplay between algorithm structure, data characteristics, and the inherent complexity of the underlying computation. This approach offers the potential to dramatically improve the efficiency and reliability of complexity analysis, particularly for computationally intensive algorithms. The paper details the architecture of the VQC simulation, explores its strengths and limitations, and presents preliminary results demonstrating its effectiveness in estimating complexity for several benchmark problems. The goal is to provide a robust and adaptable method for tackling the challenges posed by the increasing size and complexity of modern computational systems.
Quantum-inspired geometry proposes a novel framework for quantifying computational complexity by leveraging the properties of quantum phenomena. This paper explores the concept of a "Quantum Complexity Metric" – a quantifiable measure derived from the inherent characteristics of quantum states and entanglement – to provide an alternative to traditional complexity measures. We delve into the potential benefits of this approach, emphasizing its ability to identify patterns and bottlenecks in algorithm performance. The research focuses on establishing a rigorous mathematical foundation for this metric, outlining its operational principles and demonstrating its potential to enhance our understanding of computational limitations. Specifically, we will address the challenges of quantifying entanglement and its connection to computational cost, and we will present preliminary results utilizing a simplified, yet illustrative, model. Ultimately, this work aims to advance the field by suggesting a fundamentally new approach to analyzing complexity, potentially leading to more efficient algorithms and deeper insights into the boundaries of computation.