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Found in everything from space shuttles to dental fillings, composite materials have thoroughly infiltrated modern society. But their potential is still greatly untapped, offering researchers ample opportunity for discovery.
Within the particle showers created at the Large Hadron Collider, answers to some of the universe’s mysteries are waiting.
Model systems like pigeons can help illuminate our own evolutionary and genomic history.
UT Arlington's tiny windmills are bringing renewable energy to a whole new scale.
The stability of our highways, pipelines, and even manholes is reaching a breaking point.
Scientists believe they have discovered a subatomic particle that is crucial to understanding the universe.
UT Arlington researchers unlock clues to the human body’s most mysterious and complex organ.
UT Arlington researchers probe the hidden world of microbes in search of renewable energy sources.
Wounded soldiers are benefiting from Robert Gatchel’s program that combines physical rehabilitation with treatment for post-traumatic stress disorder.
Tiny sensors implanted in the body show promise in combating acid reflux disease, pain and other health problems.
Nanotechnology researchers pursue hybrid silicon chips with life-saving potential.
Biomedical engineers combat diseases with procedures that are painless to patients.
How did we come to exist, and why? That's what the Deep Underground Neutrino Experiment is attempting to answer—at least partially. Known as DUNE, the U.S. Department of Energy initiative and global science project is investigating why the universe consists of matter rather than antimatter.
Earlier this year, UTA hosted a four-day DUNE meeting, welcoming about 150 of the world's leading physicists to campus.
"DUNE is the next big thing in particle physics," says Jaehoon Yu, physics professor and organizer of the meeting. "UTA's key role in this billion-dollar, U.S.-led project consolidates our international reputation as a powerhouse in this field."
DUNE focuses on neutrinos, subatomic particles that—along with their antimatter antineutrinos—oscillate as they move through space, changing form and mass. Scientists hope that studying these oscillations will reveal the imbalance between matter and antimatter, perhaps giving clues about how our universe came to exist.
The experiment features nearly 800 collaborators representing 145 institutions and 26 countries. Dr. Yu heads the Exotics Group, which searches for dark matter, while physics Associate Professor Amir Farbin leads a team that is designing the project's computing systems model.
Kinesiology professor exploring the link between sympathetic nerve activity and kidney disease
How our demand for fresh produce year-round changed the face of agriculture in Mexico
