For the first time, mathematicians have partnered with artificial intelligence to suggest and prove new mathematical theorems.

A team from the University of Geneva has implemented a new way to secure data transfers based on the physical principle of relativity.

No, there's not an increasing number of Australians freeloading off other taxpayers. A new ANU study explains why - with a little help from the cult film, The Princess Bride.

An international collaboration with EPFL has developed a method to improve the performance of COVID-19 contact-tracing apps by taking into account a user's recent contacts, risk levels and shared information about tests and symptoms.

An international research team of cryptographers completed a detailed security analysis of the popular Telegram messaging platform identifying several weaknesses in its protocol that demonstrate the product falls short of some essential data security guarantees.

Light is used for various purposes in nowadays applications. For example, data can be transmitted with light and nanoscopic structures can be created by light.

Innovative joint program in computational precision health at UC Berkeley and UCSF aims to improve quality and equity of health care The UC Berkeley-UCSF Joint Program in Computational Precision Health will enable new and more personalized techniques for the prevention, diagnosis, treatment and management of disease.

The Bernese theoretical astrophysicist Kevin Heng has achieved a rare feat: On paper, he has derived novel solutions to an old mathematical problem needed to calculate light reflections from planets and moons. Now, data can be interpreted in a simple way to understand planetary atmospheres, for example. The new formulae will likely be incorporated into future textbooks.

Three-dimensional (3D) configurations of atoms dictate all materials properties. Quantitative predictions of accurate equilibrium structures, 3D coordinates of all atoms, from a chemical graph, a representation of the structural formula, is a challenging and computationally expensive task which is at the beginning of practically every computational chemistry workflow.

The term Bose-Einstein condensate describes a state of matter in which atoms or elementary particles combine into a single quantum mechanical object during extreme cooling. Science does not yet fully understand exactly how these macroscopic states - beyond the confines of traditional physics - develop from a thermal atomic cloud in just a few milliseconds and when statistical equilibrium is reached, according to Georg Wolschin. Using a new theoretical model he developed, the Heidelberg University physicist has now succeeded in calculating the time-dependent formation of a Bose-Einstein condensate in sodium atoms.