According to media reports, the Australian silicon quantum computing company SQC announced the creation of the world's first atomic-level quantum integrated circuit. The result paper has been published in the latest "Nature" magazine. Quantum Integrated Circuit - Schematic This i

According to media reports, Australian silicon quantum computing company SQC announced the creation of the world's first atomic-level quantum integrated circuit . The result paper has been published in the latest "Nature" magazine.

Quantum integrated circuit - schematic diagram

This integrated circuit contains the circuits of all the basic components on a classical computer chip, but its volume is on the scale of atoms . It is said that the SQC team has used atomic-scale quantum integrated circuits to accurately simulate the quantum state of a small organic polyacetylene molecule, which will help discover and manufacture new materials.

The famous theoretical physicist A difficult question posed by Richard Feynman in 1959: If you want to understand how nature works, you must be able to control matter to study it at the same scale as it is composed of, This Meaning the need to control matter at the atomic scale.

Moore's Law

This result shows that Moore's Law will continue to work, but the chip materials used will be replaced by new materials at least part of the silicon material. This means that once a breakthrough is achieved in materials, the performance of computer chips will be revolutionaryly improved.

Internet picture, please do not take the seat

At the same time, the nanoscale microcomputer will be implanted into the human body in the medical field to assist in the diagnosis and treatment of diseases. Humans can even create microcomputers that are specialized in swallowing viruses. Such computers can be implanted into the human body and directly attack the lesions. If

atomic-level integrated circuits can be popularized, it will bring continuous cost reduction to the Internet of Things. In the future, people can place multiple microcomputers in a very small volume to process different data, solve different problems, and work together.

Despite this, it will take a long time for technology to move from the laboratory to the hands of users. This is because the laboratory can ignore the cost, while commercialization needs to consider the practical issues of cost and large-scale production. For example, the theories and experiments related to the AMOLED screens (active matrix organic light-emitting diodes) that we commonly use on mobile phones today originated in the 1960s, and it was not until 2010 that the world's first AMOLED screen for smart phones was AMOLED screens were just born.

Even though the time from lab to market has been significantly shortened for today's technologies, atomic-scale quantum integrated circuits won't be popularized and put on the market anytime soon.

But no matter what, the breakthrough in atomic-level quantum integrated circuit technology is a big surprise for mankind!