Quantum computers, on the other hand, use quantum bits, or qubits. Traditional computers are about zeros and ones, the binary bits that store information.
What are qubits…and what enables this scaling? In this blog post, we’ll cover these essentials and explain how advanced cryogenic semiconductor IP provide fuel that can turbo-charge quantum computers. For quantum computing, it’s all about efficient qubit/system scaling. Quantum computers are built to create vast multidimensional spaces for very large problems-something that classical supercomputers are not designed to do. The guts inside supercomputers and quantum computers are simply different. And last June, Honeywell announced that it had the world’s fastest quantum computer, which earned a score of 64 on the quantum volume measure (a gauge of the machine’s qubits and how well it uses them). In 2019, Google’s quantum computer, named Sycamore, completed a mathematically designed calculation in just 200 seconds-158 million times faster than the world’s most powerful supercomputer. Supercomputers must analyze combinations of problems sequentially rather than in parallel format.
How can a pharmaceutical company assess potential drug interactions that a drug under development might encounter? How can a trucking company plan its most efficient routes? How can an investment firm best balance risk and growth in its portfolio? From science and medicine to logistics, finance, and AI, the application areas that can benefit from this level of computational prowess stand to be transformed.Įven blazingly fast supercomputers, which in their own right are positively impacting a variety of industries, aren’t quite a match. With the horsepower to simultaneously perform as many as a million computations, quantum computers help solve some of the world’s heftiest and most complex problems.
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