Marc Airhart is the Communications Coordinator for the College of Natural Sciences. A long time member of the National Association of Science Writers, he has written for national publications including Scientific American, Mercury, The Earth Scientist, Environmental Engineer & Scientist, and StarDate Magazine. He also spent 11 years as a writer and producer for the Earth & Sky radio series. Contact me
Construction workers have a much higher risk of becoming hospitalized with the novel coronavirus than non-construction workers, according to a new study from researchers with The University of Texas at Austin COVID-19 Modeling Consortium.
The University of Texas at Austin with support from the U.S. Department of Energy will expand capabilities of the Texas Petawatt Laser, one of the highest-powered lasers in the world, with a broad range of applications for basic research, advanced manufacturing and medicine.
Evolutionary biologists never have enough time. Some of the most mysterious behaviors in the animal kingdom—like parenting—evolved over thousands of years, if not longer. Human lifespans are just too short to sit and observe such complex behaviors evolve. But computer scientists are beginning to offer clues by using artificial intelligence to simulate the life and death of thousands of generations of animals in a matter of hours or days. It's called computational evolution.
Simulation of light emitted by a pair of supermassive black holes spiraling inward, viewed from above the plane of the disk. Credit: NASA's Goddard Space Flight Center
When scientists first detected gravitational waves, from the violent collision of two black holes 1.3 billion years in the past, the ripples in space-time made a distinctive chirp, followed by a signal like a ringing bell. (The signals actually had to be converted into frequencies we can hear.) Since that first detection in 2015, every black hole collision has sounded pretty much the same. But according to a new study based on computer simulations, black holes actually sing a more elaborate swan song.
A trapped ion quantum computing system developed by Honeywell Quantum Solutions. Photo credit: Honeywell Quantum Solutions.
Quantum computers might someday make it possible to run simulations that are far too complex for conventional computers, enabling them for example to precisely model chemical reactions or the movement of electrons in materials, yielding better products from drugs to fertilizers to solar cells. Yet at the current pace of development, quantum computers powerful enough for these simulations may still be many years away.
A new study, currently awaiting peer review and involving more than 5,000 COVID-19 patients in Houston, finds that the virus that causes the disease is accumulating genetic mutations, one of which may have made it more contagious. According to the paper posted this week to the preprint server medRxiv, that mutation, called D614G, was also implicated in an earlier study in the UK in possibly making the virus easier to spread. The Washington Post was among several outlets reporting the findings this week.
Imagine a new type of security system that, rather than storing data or an encryption key on a USB drive, encodes information into a small piece of plastic that can be unlocked only via a chemical reaction using a specific type of substance. And the devices that can read this information think like human brains and have the ability to communicate seamlessly with today's electronics.
An antibody test for the virus that causes COVID-19, developed by researchers at The University of Texas at Austin in collaboration with Houston Methodist and other institutions, is more accurate and can handle a much larger number of donor samples at lower overall cost than standard antibody tests currently in use. In the near term, the test can be used to accurately identify the best donors for convalescent plasma therapy and measure how well candidate vaccines and other therapies elicit an immune response.
An elite prize among scientists worldwide is being given to Steven Weinberg, a professor of physics at The University of Texas at Austin, for his "continuous leadership in fundamental physics, with broad impact across particle physics, gravity and cosmology, and for communicating science to a wider audience."
The NSF AI Institute for Foundations of Machine Learning and the Machine Learning Laboratory will be administratively housed in the Gates-Dell Complex at The University of Texas at Austin. Photo credit: Vivian Abagiu/University of Texas at Austin.
The National Science Foundation has selected The University of Texas at Austin to lead the NSF AI Institute for Foundations of Machine Learning, bolstering the university's existing strengths in this emerging field. Machine learning is the technology that drives AI systems, enabling them to acquire knowledge and make predictions in complex environments. This technology has the potential to transform everything from transportation to entertainment to health care.
Read our publication, The Texas Scientist, a digest covering the people and groundbreaking discoveries that make the College of Natural Sciences one of the most amazing and significant places on Earth.