Articles

  • 2 weeks ago | phys.org | Emily Ayshford |Gaby Clark |Robert Egan

    The clean energy transition requires new means to transport energy that are less reliant on burning fossil fuels. This requires new materials to catalyze reactions to store and extract energy from chemical energy carriers without combustion.

  • 1 month ago | news.uchicago.edu | Emily Ayshford

    Editor’s Note: This is part of a series called Inside the Lab, which gives audiences a first-hand look at the research laboratories at the University of Chicago and the scholars who are tackling some of the world’s most complex problems. Our memories form our sense of self, and when they are disrupted—through conditions like Alzheimer’s disease and post-traumatic stress disorder—our quality of life can be greatly affected.

  • 2 months ago | news.uchicago.edu | Emily Ayshford

    Editor’s Note: This is part of a series called Inside the Lab, which gives audiences a first-hand look at the research laboratories at the University of Chicago and the scholars who are tackling some of the world’s most complex problems. Strokes and genetic conditions that cause brain bleeds are among the leading causes of disability and death worldwide. By the time University of Chicago neurosurgeon Issam Awad sees these patients, their brains have already been damaged.

  • Feb 17, 2025 | news.uchicago.edu | Emily Ayshford

    Editor’s Note: This is part of a series called Inside the Lab, which gives audiences a first-hand look at the research laboratories at the University of Chicago and the scholars who are tackling some of the world’s most complex problems. Over the last decade, researchers have begun to untangle the network of billions of bacteria, fungi, and microbes that live within our guts. It’s a monumental task that requires both new ways of thinking and specialized equipment. In his UChicago lab, Asst. Prof.

  • Oct 21, 2024 | scitechdaily.com | Emily Ayshford

    University of Chicago researchers have developed a new way to improve quantum sensors by studying how diamond defects interact at the atomic level. This could lead to more reliable sensors for navigation and medical applications. Credit: SciTechDaily.comResearchers at the University of Chicago have figured out how to improve the performance of diamond-based quantum sensors by studying defects at the atomic level.

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