Recent research published on arXiv presents significant findings in the field of quantum physics, specifically regarding entanglement at infinite temperature. The paper, titled "Disorder-tunable entanglement at infinite temperature," authored by Hang Dong and 15 collaborators, explores the use of a custom-built superconducting qubit ladder to create non-thermalizing states

In a recent paper titled "The exact lower bound of CNOT-complexity for fault-tolerant quantum Fourier transform," authors Qiqing Xia, Huiqin Xie, and Li Yang explore the complexities involved in implementing the quantum Fourier transform (QFT), a fundamental component in various quantum algorithms. The study focuses on determining the

Recent advancements in quantum computing have led to the development of a new architecture known as LSTM-QGAN, which stands for Long Short-Term Memory Quantum Generative Adversarial Network. This innovative model aims to address the limitations faced by current quantum generative adversarial networks (QGANs) when handling practical-sized data. Traditional QGANs often

Recent research has revealed significant advancements in the control of topological states in materials, specifically focusing on the intercalated van der Waals antiferromagnet Co1/3TaS2. This material exhibits a unique triple-Q (3Q) ground state characterized by topological features. The study, authored by Junghyun Kim, Kaixuan Zhang, Pyeongjae Park, Woonghee Cho,

Recent research by Paul M. Alsing and Carlo Cafaro presents significant findings regarding the acceleration of quantum evolution in projective Hilbert space. The paper, titled "Upper limit on the acceleration of a quantum evolution in projective Hilbert space," explores the implications of Heisenberg's position-momentum uncertainty relation,

Recent advancements in optical spectroscopy have been made with the introduction of a technique called single-photon super-resolved spectroscopy, as detailed in a paper titled "Single-photon super-resolved spectroscopy from spatial-mode demultiplexing" by authors Luigi Santamaria Amato, Fabrizio Sgobba, Deborah Pallotti, and Cosmo Lupo. This research, submitted on September 2,

Recent research by A. Kalani, Alireza Amani, and M. A. Ramzanpour explores the behavior of massive Dirac particles in a gapped graphene structure under the influence of a Rosen-Morse potential and a uniform magnetic field. The study, titled "Massive Dirac particles based on gapped graphene with Rosen-Morse potential in

Antony Valentini's recent paper titled "De Broglie-Bohm Quantum Mechanics" provides an overview of the de Broglie-Bohm pilot-wave formulation of quantum mechanics. The paper emphasizes its applications across various fields, including field theory, high-energy physics, gravitation, and cosmology. The de Broglie-Bohm theory, also known as pilot-wave theory,

Recent research by Felix Fritzsch, Tomaž Prosen, and Silvia Pappalardi explores the application of microcanonical free cumulants in lattice systems, specifically within the context of many-body dynamics. The paper, titled "Microcanonical Free Cumulants in lattice systems," was submitted on September 2, 2024, and is available on arXiv under