Search results for "nu quantum"

Over the last few years, wireless communication technology has been rapidly deploying due to 5G, allowing for greater connectivity between IoT devices. This advanced connectivity, however, leads to interference from multiple radio signals.

Quandela and Welinq has announced a transformative partnership for the quantum industry. This collaboration combines Quandela's expertise in photonic quantum computing with Welinq's pioneering full-stack quantum interconnects technology to provide custom quantum links for photonic quantum computers, setting new industry standards and paving the way for clusters of interconnected and error-corrected photonic quantum computers.

Oxford Ionics has showcased a groundbreaking quantum chip, capable of being mass-produced in standard semiconductor fabs.

IDTechEx’s report, “Quantum Technology Market 2024-2034: Trends, Players, Forecasts”, forecasts the market to surpass $2B by 2034, with a CAGR of over 25%, largely driven by opportunities in the automotive sector. In this article, IDTechEx highlights some of the major innovations campaigning for future mobility market success.

Image sensors and their core component, the photodiode, are indispensable in numerous applications, whether in process, measurement, automotive, or safety technology.

Paige West speaks with Yang Gao, Professor of Robotics, Head of Centre for Robotics Research, King's College London about robots in extreme environments.

Pasqal has announced a significant technological milestone: the successful loading of over 1000 atoms in a single shot within their quantum computing setup.

In a leap towards revolutionising quantum computing and enhancing the energy efficiency of data centres, Semiwise, sureCore, and Cadence have collaborated to overcome critical challenges in developing cryogenic CMOS circuits.

The Finnish state has committed to financing the procurement of Finland’s next quantum computer.

The potential of quantum computers is currently hindered by a significant trade-off. Quantum systems capable of performing complex operations tend to be less tolerant to errors and noise, while those more resistant to noise are harder and slower to compute with.