Latest Articles for Quantum Computing

Exploring the use of quantum kernels in predicting molecular energy surfaces.

Research reveals fascinating interactions between excitons and phonons in layered materials.

Study reveals effects of nonlinear Landau-Zener tunneling in spin-orbit-coupled condensates.

New HOBO solver addresses higher-order optimization in quantum computing.

Examining techniques for simulating quantum circuits affected by noise.

Research focuses on optimizing photonic graph states for quantum technologies.

Innovative backgate integration enhances germanium-based quantum devices.

Discover how process tensors help study quantum systems and their interactions.

Researchers are investigating ways to reduce light speed for better quantum technologies.

A new approach reduces qubit usage for solving complex optimization problems.

Researchers achieve precise control over quantum dots in nanowires, aiding quantum computing efforts.

Exploring the challenges of Hamiltonian complexity in quantum systems.

A look at how disentanglement affects quantum systems and phase transitions.

A new approach to optimize circuit runs in quantum kernel estimation.

An overview of quantum dynamics, entanglement, and their significance in physics.

Exploring the potential of Majorana qubits in quantum technology and their advantages.

Researchers enhance modular designs for superconducting qubit networks, improving performance and flexibility.

A look into number projection operators and their impact on quantum simulations.

Two losing strategies combine to create unexpected winning outcomes in quantum mechanics.

New architectures for VQAs improve solutions for complex equations using quantum techniques.

Research introduces a controlled phase-flip gate for high-dimensional quantum systems.

New methods enhance quantum error correction while reducing complexity in qubit connections.

Chern insulators show promise in innovative technologies like quantum computing.

Scientists combine quantum codes to enhance error correction in quantum computers.

Examining the link between topological phases and their unique boundary states.

Exploring constacyclic BCH codes for effective quantum error correction.

Quantum Leaky Integrate-and-Fire neurons offer new possibilities for efficient data processing.

Examining the real-world attacks on Learning with Errors-based cryptosystems.

New methods aim to improve quantum algorithm efficiency amidst existing challenges.

Exploring the impact of quantum computing on representation theory coefficients.

An overview of quantum algorithms, their symmetries, and applications.

A new approach enhances quantum simulations by merging tensor networks and quantum computation.

Investigating how cosmic strings affect quantum entanglement between qubits.

Researchers enhance hourglass structures for reliable single-photon generation.

Examining the significance of bit-flip errors in quantum computing systems.

Twisted bilayer bismuthene shows unique properties due to its layered structure.

Scientists enhance control over tiny particles using holographic tweezers and feedback algorithms.

Research reveals unique properties of twisted TMD layers for future technology.

A closer look at the QAOA and its distributed approach in quantum computing.

A new quantum approach solves TSP using a single qubit.