Quantum error-correction codes leverage encoding and redundancy to effectively detect and correct errors, thereby enhancing the reliability and accuracy of signal detection. Based on the scheme of ...

Interference-related errors are among the main obstacles building quantum hardware that can outperform classical computers. Tel Aviv-based Qedma is working to address the challenge.

QEDMA's software is being engineered to accelerate the timeline to practical quantum computing by reducing, mitigating, and correcting errors.

Integrating decoherence-free subspaces with dynamical decoupling enhances quantum state fidelity, offering a practical route to more noise-resilient quantum computing ...

The steadily rising numbers of qubits in a single system make the development of small-scale quantum architectures that are able to execute such protocols a pressing challenge. Similar to classical ...

Small, room-temperature quantum computers that use light on the horizon after breakthrough, scientists say Microsoft breakthrough could reduce errors in quantum computers by 1,000 times ...

Quantum computers have the potential to speed up computation, help design new medicines, break codes, and discover exotic new materials—but that's only when they are truly functional.

Microsoft scientists developed a 4D geometric coding method that reduces errors 1,000-fold in quantum computers.

Why repetition codes matter The focus on repetition codes isn't arbitrary. While other quantum error-correcting codes, like surface codes, have only achieved small distances and relatively high ...

The company said it is able to reduce error rates in its quantum computing capabilities by 1,000-fold thanks to four-dimensional geometric codes.