The Majorana 1 is the chip before the chip, before the chip that changes personal computing entirely. However, with quantum processors like the Majorana 1 now offering a helping hand, ...

Microsoft today introduced Majorana 1, the world’s first quantum chip powered by a new Topological Core architecture that it expects will realize quantum computers capable of solving meaningful, ...

The Majorana 1 chip itself, designed to accommodate a million qubits and about the size of your palm, signals that quantum’s ...

A ‘topoconductor’ is a brand-new type of material that Microsoft created. It helps keep the quantum information safe from ...

Microsoft this week unveiled a chip that it claims uses a new state of matter and will be able to produce industrial-scale quantum computers in years – not decades, as previously expected.

The design of the Majorana 1 processor is supposed to fit up to a million qubits, which may be enough to realize many significant goals of quantum computing—such as cracking cryptographic codes ...

Microsoft's wacky Majorana 1 chip, powered by an 'entirely new state of matter', could have industrial quantum computing here 'in years, not decades' News. By Jacob Fox published 20 February 2025 ...

The "Majorana fermion" is a particle with the property of being both matter and anti-matter. The particle existed as a hypothesis for decades until researchers confirmed its existence in 2012.

Microsoft has spent the last 20 years pursuing a topological approach to quantum development. Last week, they had a breakthrough: The company counted eight topological qubits on their Majorana 1 chip.

In 2001, the theoretical physicist Alexei Kitaev at Microsoft Research, proposed that “Majorana bound states” could be produced in nanowires comprising topological superconductors. The Majorana ...

Majorana 1: The first Quantum Processing Unit (QPU) that is powered by a topological core. Microsoft CEO Satya Nadella took to his LinkedIn page, explaining: ...

The design of the Majorana 1 processor is supposed to fit up to a million qubits, which may be enough to realize many significant goals of quantum computing—such as cracking cryptographic codes ...