A new computational technique could accelerate the search for diamond materials capable of powering future quantum computers and highly sensitive sensors. Developed by a researcher at the U.S. Department of Energy's (DOE) Princeton Plasma Physics Laboratory (PPPL), the method makes it much easier to identify promising materials for quantum technology, potentially opening the door to advances across many areas of science.
The approach has already revealed new candidates for quantum computing and sensing applications. The findings were recently published in ACS Central Science and have attracted attention from other researchers in the field.
One of the biggest challenges in developing quantum technology is finding materials that can maintain delicate quantum states under practical conditions. Many candidates require extremely low temperatures to function reliably. Diamond materials stand out because certain quantum properties can remain useful even at room temperature.
This capability could help advance technologies that are important to national research priorities and the development of next-generation computing. Quantum sensors promise levels of sensitivity and precision beyond those of conventional instruments, while quantum computers could eventually solve certain extraordinarily complex problems much faster than today's most powerful supercomputers.
Source: ScienceDaily - AI — Read the full article on the original site ↗