Latest Articles for Quantum Computing

New insights into the behavior of quantum gases reveal potential technological applications.

Exploring recent advancements in topological phases and their implications.

Evolving TPMs to counteract future quantum computing threats with new algorithms.

Investigating the counterintuitive phenomenon of quantum backflow in particle behavior.

Researchers develop new methods to better describe quantum damped harmonic oscillators.

This material exhibits unique properties that may transform technology.

A look at CD-ARPES and its impact on material science.

A new method using microwaves improves quantum gate stability and reduces errors.

Exploring the potential of quantum mechanics in modern voting.

A fresh perspective on relaxation rates and interactions in superconductors.

Exploring QAOA's application to the Hamiltonian Cycle problem using quantum computing techniques.

A new model using anyons shows promise for quantum computing stability.

Exploring the dynamics of non-Hermitian quantum mechanics and its implications in research.

Exploring the impact of laser annealing on silicon-germanium materials for electronics.

New methods enhance precision of hyperfine calculations for quantum applications.

Research provides a method for better control of single electrons in quantum dots.

Exploring the impact of polarization blockade on nuclear spin manipulation and techniques.

Exploring quantum kernels' potential in enhancing machine learning techniques.

Exploring quantum cellular automata and their potential for error correction in computing.

This paper explores how to manipulate graph states using local operations.

Research explores polaritons and their unique properties in specially designed cavities.

A new model sheds light on the Moore-Read state and its potential uses in quantum computing.

Research reveals the behavior of electron bubbles in graphene's unique solid states.

Research showcases efficient phase modulation using warm rubidium vapour for quantum computing.

New method improves Boltzmann sampling accuracy in quantum annealers.

Examining QSP applications in quantum systems, especially the one-dimensional Ising model.

Combining classical and quantum methods to improve cancer detection accuracy.

This article explores how Physics-Informed Neural Networks can enhance quantum computing.

Niobium halides exhibit unique properties promising for advanced electronics.

This paper discusses a method to enhance VQAs using classical shadows for better efficiency.

A look at quantum systems and their unique properties influenced by interactions.

A formal approach to identify privacy violations in quantum computing algorithms.

A look at how entangled and separable states are defined in quantum physics.

Optimizing quantum programs is key to advancing practical quantum computing.

A look at qubits, decoherence time, and the impact of noise in quantum computing.

Study reveals unique behaviors of noncentrosymmetric superconductor junctions, highlighting nonreciprocity.

Quantum Machine Learning merges quantum computing with data analysis, promising advancements in communication.

Quantum memristors enhanced by machine learning can transform memory technology and computing systems.

Research focuses on the potential of qutrits in quantum systems.

Researchers create a quantum simulator with molecular qudits, enhancing quantum task performance.