Chaotic pools of DNA could be the future of encryption, proving authenticity of artwork or securing passwords against quantum computers.
Chaotic pools of DNA could be the future of encryption, proving authenticity of artwork or securing passwords against quantum computers.
Exploiting defects in 2D hexagonal boron nitride to create reliable single photons, researchers have upped their quantum encryption game.
Researchers design a new type of QR code that is nearly transparent under daylight and compatible with flexible devices.
Chiral photonic cellulose films are prepared, and their ability to reflect circularly polarized light (CPL) is explored. The films are promising for novel photonics applications, including polarization-based encryption.
Secure data sharing methods using quantum key distribution via satellites promise advancements in long-distance quantum communication.
Scientists are using crystal imperfections to generate secure encryption, paving the way for quantum-resilient data protection.
Scientists uncover how the complex interactions between nucleosomes influence DNA’s organization in chromosomes.
A state-of-the-art printer with nanometer-scale precision enables the production of quantum emitters, advancing secure quantum communication.
Upcoming space experiment sets sights on encrypted quantum communication, which could also provide valuable insights into quantum gravity.
Harnessing quantum dots to produce low-energy single photons for applications in secure communications and quantum computing.