Scientists take first snapshots of ultrafast switching in a quantum electronic device Scientists take first snapshots of ultrafast switching in a quantum electronic deviceThey discover
A football is not a quantum particle. There are crucial differences between the things we know from everyday life and tiny quantum objects. Quantum phenomena are usually very fragile. To study them, one normally uses only a small number of particles, well shielded from the environment, at the lowest possible temperatures.
A football is not a quantum particle. There are crucial differences between the things we know from everyday life and tiny quantum objects. Quantum phenomena are usually very fragile. To study them, one normally uses only a small number of particles, well shielded from the environment, at the lowest possible temperatures.
Seeing with Radio Waves Researchers at the University of Tsukuba use radio-frequency waves to image “spin-locked” defects in diamond with record-breaking resolution, which may lead
Seeing with Radio Waves Researchers at the University of Tsukuba use radio-frequency waves to image “spin-locked” defects in diamond with record-breaking resolution, which may lead
Purdue to lead Indiana coalition to develop quantum technologies Purdue University is leading efforts to establish a National Science Foundation-backed quantum research center that would
For the first time, University of Basel researchers have equipped an ultrathin semiconductor with superconducting contacts. These extremely thin materials with novel electronic and optical properties could pave the way for previously unimagined applications. Combined with superconductors, they are expected to give rise to new quantum phenomena and find use in quantum technology.
Why quantum and data protection should go hand in hand Read More… + The era of quantum computing is fast approaching, and with it the
A team led by Skoltech professor Artem R. Oganov studied the structure and properties of ternary hydrides of lanthanum and yttrium and showed that alloying
Quantum computers promise great advances in many fields – from cryptography to the simulation of protein folding. Yet, which physical system works best to build the underlying quantum bits is still an open question. Unlike regular bits in your computer, these so-called qubits cannot only take the values 0 and 1, but also mixtures of the two. While this potentially makes them very useful, they also become very unstable.
