A new study published in Nature demonstrates a significant breakthrough in quantum computing, achieving a record level of quantum coherence in a silicon-based system. Researchers successfully maintained a quantum state for over 100 microseconds, a tenfold improvement over previous benchmarks for similar materials. This extended coherence time is critical for performing complex calculations and reducing …
A new study published in Nature demonstrates a significant breakthrough in quantum computing, achieving a record level of quantum coherence in a silicon-based system. Researchers successfully maintained a quantum state for over 100 microseconds, a tenfold improvement over previous benchmarks for similar materials. This extended coherence time is critical for performing complex calculations and reducing errors in quantum processors. The team utilized a novel fabrication technique to minimize impurities and defects in the silicon, which are major sources of quantum decoherence. Experts suggest this progress with silicon, a dominant material in classical computing, could accelerate the development of scalable and commercially viable quantum computers by leveraging existing semiconductor manufacturing infrastructure. The full details of the research are available in the latest issue of Nature.
Join the Club
Like this story? You’ll love our Bi-Weekly Newsletter



