Scientists have solved a 66 million year old mystery about why the earth cooled after the age of the dinosaurs.

A new device, designed by researchers at the University of Colorado Boulder and University of Colorado Anschutz, jiggles red blood cells until they break apart—revealing valuable information about their quality. 

Researchers have reported new experimental results addressing the origin of rare proton-rich isotopes heavier than iron, called p-nuclei. Led by Artemis Tsantiri, then-graduate student at the Facility for Rare Isotope Beams (FRIB) and current postdoctoral fellow at the University of Regina in Canada, the study presents the first rare isotope beam measurement of proton capture on arsenic-73 to produce selenium-74, providing new constraints on how the lightest p-nucleus is formed and destroyed in the cosmos. The team published its results in Physical Review Letters (“Constraining the Synthesis of the Lightest 𝑝 Nucleus ⁷⁴Se”).

Rye pollen slows tumor growth in animal models of cancer. Chemists determined the 3D structure of the bioactive molecules in rye pollen. With new blueprint, researchers could develop strategies for cancer treatment.

After more than 25 years of experience in condensed matter physics, as a student, researcher and in high-ranking executive roles at neutron scattering sources around the globe, Jon Taylor brings a wealth of experience and accomplishments to his new position as Associate Laboratory Director for the Neutron Sciences Directorate (NScD) at the Department of Energy’s Oak Ridge National Laboratory.  

Research in the lab of UC Santa Barbara materials professor Stephen Wilson is focused on understanding the fundamental physics behind unusual states of matter and developing materials that can host the kinds of properties needed for quantum functionalities.

During the last ice age, the Atlantic Ocean’s powerful current system remained active and continued to transport warm, salty water from the tropics to the North Atlantic despite extensive ice cover across much of the Northern Hemisphere, finds new research led by UCL scientists.

In a world first, a research team led by the University of Oxford’s Department of Engineering Science has shown it is possible to engineer a quantum mechanical process inside proteins, opening the door to a new class of quantum-enabled biological technologies. The study has been published today (21 January) in Nature.