TECH & INNOVATIONTime crystals could unlock a radical new future for quantum computers by solving one of the toughest problems in machine operations. Check this article to learn more.
Georgia Tech researchers achieve a milestone, crafting the world's inaugural functional graphene semiconductor, introducing a novel approach to electronics. Check out more details in this article.
Imperfect timekeeping imposes a fundamental constraint on quantum computers, affecting large-scale algorithms and hindering their societal potential. Continue reading to learn more.
Technology will change warfare and produce super-soldiers. Continue reading to learn how augmented reality (AR), virtual reality (VR) and quantum computers play a role in the upcoming major changes.
Scientists have made important advances in quantum computing by developing a formula that forecasts the effects of ambient noise. Read the article to find out more.
New research presents a new way to convert quantum information used by quantum computers to the format needed in quantum communication. Read the article to learn the details.
Physicists proposed that advanced extraterrestrial civilizations are using black holes in their quantum computers since they are abundant in quantum information. Read the article to learn more.
Researchers from Columbia University has found a way to shrink qubits for quantum computers that will still retain its performance and allow for storing energy to power it,
Absolute zero − the most appropriate temperature for both quantum experiments and quantum computing − makes it easier to describe a system by relying on a set of fundamental propositions. One of them, the quantum adiabatic theorem, ensures simpler dynamics of quantum systems if external parameters change smoothly enough.
Quantum Mechanics could be the most challenging field of science to understand for people outside the scientific field. Here is an account of the experiences of an expert explaining his life in his two separate roles under quantum physics and meteorology.
Researchers from the University of Sydney developed a way for quantum error computing sources to be identified using machine-learning techniques that can detect even the faintest environmental 'noise.'
Researchers have successfully demonstrated a secure transmission using measurement-device-independent quantum key distribution (MDI-QKD) protocol, sending information over 170 kilometers.
Technological advancements have allowed physicists to manipulate and study quantum particles, their states, and their interactions. However, they still need to figure out how to keep quantum systems from decaying long enough to practically run computations and transfer information—and a simple solution might just solve the problem