Researchers from the Los Alamos National Laboratory have developed new open-source software that could evaluate quantum annealers down to the individual qubit level aside from also characterizing noise.
Researchers from the Massachusetts Institute of Technology have turned its "magic" angle material made of graphene into versatile quantum computing devices.
In a strange turn of quantum materials research, researchers could fabricate a material that exhibits both superconductivity and quantum Hall effect - two phenomena that are generally seen as opposites as far as electrical resistance is concerned.
As a key technology in achieving the next generation of communications and computing technologies, quantum entanglement has been a topic of interest in the scientific community - with the latest efforts detailing how to achieve it through the application of heat.
With its beauty founded on subtle mathematical concepts, Origami offers patterns in creating efficient and flexible structures. Here are four examples of how the ancient art of folding papers have led to innovative applications in various fields of science:
Researchers have successfully demonstrated a secure transmission using measurement-device-independent quantum key distribution (MDI-QKD) protocol, sending information over 170 kilometers.
Physicists from Yale University have developed an "error-correcting cat". This device combines the concept of superposition from the famous Schrödinger's cat experiment, and the ability to fix some of the persisting problems with quantum computation.
A team of scientists has discovered a physical property, termed "quantum negativity," that allows for more precise measurements and can power new technologies.
A ground level expalantion of quantum computing In reference to a recent article titled 'Quantum Computer Time Reversal: Can It Happen?', I would like to try to explain how quantum computing works.
Time reversal may be possible. An international team of researchers has constructed a time-reversal program on a quantum computer, in an experiment that has huge implications for our understanding of quantum computing.
A step forward is achieved in quantum cryptography after physicists from the University of Science and Technology of China and Nanjing University of Posts and Telecommunications reported their success to control and store quantum data in quantum memory.
The researchers discovered that all entangled states of quantum objects have a distinctive fingerprint that could prevent error in the application of quantum computing and cryptography.
A team of scientists from Japan has found that diamond is able to generate a dynamic unpolarized single-photon with intrinsic randomness, which will be useful for the quantum computing.
Find out about the new state of matter between the solid and liquid states here. A new state of matter was reported to be found by physicists from the Institute for Quantum Information and Matter at Caltech.
IBM starts a new quantum computing program called IBM Q that promises more than 50 qubits. Another IBM quantum computing program called Q delivers more than 50 qubits.