Current thinking is that exploiting quantum properties is needed to develop quantum computing. Researchers from the University of Innsbruck claim to be able to precisely control certain properties. Full control of entangling particles, generating single photons, and particle positioning, play into this “deliberate entanglement”.
Teams at the University of Southern Denmark, Arhaus University, and the University of Maryland’s Joint Quantum Institute have demonstrated the ability to subtract a photon of light from a laser beam. A unique property of light is its non-interaction with other photons as they pass through one-another. This property benefits quantum communication with high-success rates of transmission over long distances with encoded data.
Scientists at Rice University have built on their experience with binding photons and excitons as evidenced in a 2016 report on their accomplishments. This has translated into more recent research in which the weak and strong link between these two has been found to be tunable. In this report, details are presented which allude to the ability to create quantum-based data storage.
An Aid to Quantum Communication Encryption Spoofing Detection? A team of researchers have determined how to tell apart beams of entangled photons. By slowing one
Using More Than Polarization to Encode Photons Qubits, quantum bits, are photons manipulated to encode data. Predominantly, the photons are encoded in a binary sense.
Steering Your Photons Arguably, the biggest challenge to quantum computing is the fragility of the photon. A team at the University of Maryland’s Joint Quantum
Deriving Cybersecurity from Quantum ‘Spookiness’… Fear not the scholarly appearance of this piece. A well presented discussion on spooky action at a distance and the
Quantum Communications with Photon Colors, Essentially. Measuring the properties of spectral lines from single photons is that much more precise, or so we think, thanks
