Turning bacteria into bioplastic factories
Biologists in Arts & Sciences have found new ways to encourage the plastic-producing power of purple microbes.
WashU to lead $26 million decarbonization initiative
A collaboration of universities and industry, led by the McKelvey School of Engineering at Washington University, is embarking on a bold plan to transform manufacturing toward zero or negative emissions by converting carbon dioxide into environmentally friendly chemicals and products that create a circular economy.
Wobbly molecules get a closer look
Microscopy engineers at Washington University model how molecules move to enhance understanding of nanoscale biological systems.
Studying how serotonin alters locust’s sense of smell
Researchers at Washington University studied the role of serotonin in altering odor-driven behavioral and neural responses in locusts.
Ornamented dragonflies better equipped to survive human threats
A study by Kim Medley, director of Tyson Research Center, and others found that dragonflies with dark wing markings have a lower risk of extinction.
Daily rhythms depend on receptor density in biological clock
Tweaking the numbers of receptors in a key brain area changes the daily rhythms of rest and wake in mice, according to research led by Daniel Granados-Fuentes in Arts & Sciences, published in the Proceedings of the National Academy of Sciences.
WashU researchers shine light on amyloid architecture
Researchers at Washington University in St. Louis have used microscopy to chart amyloid beta’s underlying structure and yield insight into neurodegenerative disease.
‘Molecular putty’ properties found encoded in protein sequence for biomolecular condensates
Scientists at the McKelvey School of Engineering at Washington University in St. Louis sort the rules governing putty-like biomolecular condensates.
Fluctuating cellular energy drives microbial bioproduction
Researchers at Washington University are studying how to turbo-charge microbial bioproduction.
Heart disease model puts cells to work
Researchers at Washington University can more effectively study mutations that cause heart disease by putting stem cells through their paces. Their research offers insight into the origins of hypertrophic cardiomyopathy.
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