What happens if you embed an ultrafast quantum computer inside a diamond (you know, aside from qualifying for sale in one of Tiffany’s catalogues and inviting “forever” computing quips)? Answer: You ...
Quantum Brilliance’s is developing diamond quantum accelerators that will have over 50 qubits and outperform CPUs/GPUs of comparable size, weight and power in important applications. Quantum ...
Diamond color centers are a well researched field, but using them at scale as qubits was out of reach until recently. Their ...
Quantum computing company XeedQ has installed its so-called Baby Diamond quantum computer at Goethe University in Germany. The system is housed on the university’s Bockenheim campus and will support ...
The diamond quantum chip used in this research. Credit: QuTech Researchers at QuTech, in collaboration with Fujitsu and Element Six, have demonstrated a complete set ...
The diamond-based quantum processor units used by Quantum Brilliance operate at room temperature in a relatively small package. Quantum Brilliance engineers (from left) Lachlan Whichello and Reuben ...
Oak Ridge National Laboratory, in partnership with Quantum Brilliance, has installed a Quantum Brilliance computer system at the Oak Ridge Leadership Computing Facility. Lab staff will use ORNL’s ...
Interesting Engineering on MSN
Scientists create highly-sensitive diamond quantum sensors to monitor EV batteries
As EV manufacturers aim for cars with longer range, faster charging, and improved safety, the demand for effective EV battery ...
Quantum computing has been touted as a revolutionary advance that uses our growing scientific understanding of the subatomic world to create a machine with powers far ...
Ling, A. and Pandya, N. (2025) Quantum Computing and Quantum Sensing: A Pedagogical Introduction to Emerging Quantum ...
Diamond-based quantum sensors expose magnetic fluctuations beyond current instruments, offering insight into graphene and superconductors used in MRI and future tech. (Nanowerk News) In spaces smaller ...
In spaces smaller than a wavelength of light, electric currents jump from point to point and magnetic fields corkscrew through atomic lattices in ways that defy intuition. Scientists have only ever ...
Some results have been hidden because they may be inaccessible to you
Show inaccessible results
Feedback