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After months of thorough analysis, two international scientific teams, including scientists from The University of Texas at Austin, have released an updated catalog of gravitational wave detections, more than tripling the number of confirmed events. Each detection of a gravitational wave represents the discovery of a pair of extremely massive objects—black holes or neutron stars—far out in the universe smashing into each other, shaking the very fabric of space and time so much that sensitive detectors on Earth could feel them, sometimes more than a billion years later. 

The College of Natural Sciences has recently recruited and supported top leaders among a new generation of scientists through the Stengl-Wyer Endowment – the largest endowment in the college's history. These postdoctoral scholars and graduate students are working on research projects that will promote a deeper understanding of climate change, protect natural habitats and maintain biodiversity in Texas and beyond.

Responding to a need to quickly develop billions of doses of lifesaving COVID-19 vaccines, a scientific team at The University of Texas at Austin has successfully redesigned a key protein from the coronavirus, and the modification could enable much faster and more stable production of vaccines worldwide.

The organization of genetic information in most bacteria – long thought to occur in a single ordered, segmented ring – turns out to more closely mimic a spaghetti noodle: shifting, balling up and twisting in ways scientists previously had not grasped. The finding by researchers at The University of Texas at Austin, appears today in Cell, with implications for cancer and bacterial infectious disease research, as well as our most basic understanding about the structure of all living cells.

A team of chemists from the U.S. and China have constructed a cube of colored, hydrogel blocks, which looks and acts much like a Rubik's Cube®. The researchers say their work is more than just fun to play with: it might inspire new ways to store and detect information, and possibly even help patients monitor their medical conditions.

For the first time, immunologists from The University of Texas at Austin have captured on video what happens when T-cells – the contract killers of the immune system, responsible for wiping out bacteria and viruses – undergo a type of assassin-training program before they get unleashed in the body. A new imaging technique that allowed for the videos, described today in the journal Nature Communications, holds promise for the fight against autoimmune disorders such as Type 1 diabetes.

Over the past few decades, the cost of storing data on hard disk drives (HDDs) has fallen dramatically, enabling revolutions in personal, scientific and cloud computing and allowing for storage of ever-greater amounts of data. But even as data collection continues to skyrocket, the cost-per-bit trend has been flattening out, leading to calls for new innovations in technology.

Scientists have long dreamed of creating synthetic structures out of the same raw material that nature uses in living systems — proteins — believing such an advance would allow for the development of transformative nanomachines, for example, molecular cages that precisely deliver chemotherapy drugs to tumors or photosynthetic systems for harvesting energy from light. Now a team of biologists from The University of Texas at Austin and the University of Michigan have invented a way to build synthetic structures from proteins, and just as in nature, the method is simple and could be used for a variety of purposes.

The first direct evidence of crystallized white dwarf stars has been discovered by an international team of researchers that includes an astronomer at The University of Texas at Austin. Predicted half a century ago, the direct evidence of these stars will be published tomorrow in the journal Nature.