Research

The Telescope Array Collaboration Detects an extreme-energy Cosmic Particle Named 'Amaterasu'

Abstract

In a ground-breaking discovery, the Telescope Array Collaboration has detected an extremely energetic particle, named "Amaterasu" after the Japanese celestial sun goddess. This cosmic rays event surpasses the energy achieved by artificial particle accelerators by more than a million times. The origins of such high-energy particle remain mysterious, as tracing back the arrival direction does not reveal an obvious source, for example a galaxy.

Breakthrough in liver organoid development to enable more efficient drug testing – with the contribution of scientists from the Institute of Physics

Abstract

The PRO-EURO-DILI Network, an international consortium of scientists investigating drug-induced liver injury, including scientists from the Laboratory of Biophysics, Division of Optics, Institute of Physics of the Czech Academy of Sciences, has presented a revolutionary advance in the development of liver organoids. The results of the research have been published in the prestigious Experimental and Molecular Medicine journal belonging to the Nature family.

Taking a peek into the biological nano-universe. Barbora Špačková will build Dioscuri single molecule optics centre

Abstract

The Max Planck Society has announced funding of the second Czech-German Dioscuri Centre at the Institute of Physics of the Czech Academy of Sciences (FZU). Its future director, Barbora Špačková, will focus on the development of new technologies providing new insights into the biological nano-universe. The centre has received five-year support of up to CZK 35 million and will start to operate in the summer 2024.

Czech scientists continue to push the boundaries of imaging techniques and reveal the mysterious world of molecules

Abstract

Scientists from the Institute of Organic Chemistry and Biochemistry, the Institute of Physics of the Czech Academy of Sciences, and Palacký University Olomouc, have once again successfully uncovered the mysteries of the world of molecules and atoms. They have experimentally confirmed the correctness of a decades-old theory that assumed a non-uniform distribution of electron density in aromatic molecules. This phenomenon significantly affects the physicochemical properties of molecules and their interactions. This research expands the possibilities for designing new nanomaterials and is the theme of a paper that has just been published in Nature Communications.