Mathematics Methods in Quantum Physics and Its Applications

A special issue of Mathematics (ISSN 2227-7390). This special issue belongs to the section "E4: Mathematical Physics".

Deadline for manuscript submissions: 10 January 2026 | Viewed by 518

Special Issue Editor

Institute for Interdisciplinary Science (FRIS), Tohoku University, Sendai 980-0845, Japan
Interests: quantum mechanics; quantum physics; quantum measurement; weak values and weak measurement; quantum state tomography; quantum metrology and sensing; quantum estimation theory; quantum computing; quantum algorithms; variational quantum algorithms; quantum machine learning; quantum neural networks

Special Issue Information

Dear Colleagues,

The year 2025 has been designated the Quantum Year, marking 100 years of significant advances in quantum science and technology. Worldwide celebrations highlight the profound impact of quantum theory on modern physics and emerging technologies. However, this brilliant progress would not have been possible without the essential foundation provided by mathematics. Key tools such as linear algebra, functional analysis, group theory, operator algebras, differential geometry, and complex analysis have enabled breakthroughs and continue to drive innovation. Overlooking the vital role of mathematics in this quantum revolution is a serious oversight. To acknowledge this, we are launching this Special Issue to celebrate and further explore the deep connection between mathematics and quantum physics.

This Special Issue invites high-quality submissions on developing, analyzing, and applying mathematical methods in quantum physics, including quantum computing and information theory. We aim to highlight theoretical insights and practical tools that enhance the understanding and control of quantum systems. We welcome original research, review papers, and methodological contributions from all areas of mathematical physics and quantum theory.

The topics include, but are not limited to:

  1. Mathematical foundations of quantum mechanics: Hilbert space theory, operator algebras, spectral theory, and formal axiomatic approaches;
  2. Quantum dynamics and open systems: Unitary and non-unitary evolution, Lindblad equations, decoherence, and quantum noise modeling;
  3. Quantum estimation theory and metrology: Quantum Fisher information, Cramér–Rao bounds, optimal measurements, and multiparameter estimation;
  4. Quantum control and optimization: Time-optimal control, variational control methods, control landscapes, and feedback systems;
  5. Quantum optics: Field quantization and light–matter interaction;
  6. Quantum thermodynamics: Quantum work and heat, fluctuation theorems, entropy production, and resource–theoretic approaches, quantum battery, and ergotropy;
  7. Many-body quantum systems: Integrable models, tensor network methods, entanglement structure, and emergent phenomena;
  8. Non-Hermitian and PT-symmetric quantum systems: Complex eigenvalue problems, exceptional points, and pseudo-Hermitian formulations;
  9. Topological and geometrical methods: Berry phase, fiber bundles, topological order, and geometrical quantization;
  10. Group theory and representation theory: Lie groups and algebras, symmetry classifications, and their applications in quantum theory;
  11. Numerical and computational methods: Quantum simulation algorithms, matrix product states, spectral solvers, and numerical optimization;
  12. Stochastic and probabilistic approaches: Quantum trajectories, path integral formulations, and noise-driven quantum systems;
  13. Variational quantum algorithms and hybrid methods: VQE, QAOA, and variational principles applied to quantum simulation and optimization;
  14. Quantum machine learning: Quantum neural networks, quantum kernel methods, generative models, and data-driven approaches to quantum systems;
  15. Quantum information and computation: Entanglement theory, quantum circuits, quantum algorithms, error correction, and complexity theory.

Dr. Lebin Ho
Guest Editor

Manuscript Submission Information

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Keywords

  • mathematical methods in quantum physics
  • quantum information theory
  • quantum computing
  • quantum control
  • quantum estimation and metrology
  • open quantum systems
  • quantum thermodynamics
  • quantum field theory
  • many-body systems
  • variational quantum algorithms
  • quantum machine learning
  • operator theory
  • functional analysis
  • group theory
  • topological methods
  • numerical methods

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Published Papers (1 paper)

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Research

10 pages, 5326 KB  
Article
Probing Chirality of the Quantum Hall Effect via the Landauer–Büttiker Formalism with Two Current Sources
by Kyung Ho Kim
Mathematics 2025, 13(18), 2981; https://doi.org/10.3390/math13182981 - 15 Sep 2025
Viewed by 234
Abstract
The quantum Hall effect is a paradigmatic example of topological order, characterized by precisely quantized Hall resistance and dissipationless edge transport. These edge states are chiral, propagating unidirectionally along the boundary, and their directionality is determined by the external magnetic field. While chirality [...] Read more.
The quantum Hall effect is a paradigmatic example of topological order, characterized by precisely quantized Hall resistance and dissipationless edge transport. These edge states are chiral, propagating unidirectionally along the boundary, and their directionality is determined by the external magnetic field. While chirality is a central feature of the quantum Hall effect, directly probing it remains experimentally nontrivial. In this study, we introduce a simple and effective method to probe the chirality of edge transport using two independently controlled current sources in a Hall bar geometry. The system under investigation is monolayer epitaxial graphene grown on a silicon carbide substrate, exhibiting robust quantum Hall states. By varying the configurations of the two current sources, we measure terminal voltages and analyze the transport characteristics. Our results demonstrate that the observed behavior can be understood as a linear superposition of chiral contributions to the edge transport. This superposition enables tunable combinations of longitudinal and Hall resistances and enables additive or canceling behavior of Hall voltages depending on current source configuration. The Landauer–Büttiker formalism provides a quantitative framework to describe these observations, capturing the interplay between edge state chirality and the measurement configuration. This research offers a simple yet effective experimental and analytical approach for probing chiral edge currents and highlights the linear superposition principle in the quantum Hall effect. Full article
(This article belongs to the Special Issue Mathematics Methods in Quantum Physics and Its Applications)
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