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Neuroscience
A microscopic worm may shed light on how we perceive gravity
C. elegans shares more than half of its genes with humans, allowing genetic studies to give insight into which genes are responsible for similar traits in humans, such as pinpointing molecular pathways responsible for gravitaxis, the ability to move in response to gravity.
Reimagining scientific discovery through the lens of an artist
The latest exhibition by Rebecca Kamen, Penn artist-in-residence and visiting scholar, at the American University Katzen Art Center explores curiosity and the creative process across art and science.
Developing new technologies to solve the mysteries of the brain
The Perelman School of Medicine’s Flavia Vitale is using her background in biomedical and chemical engineering to develop cutting edge materials and devices that will help clinicians diagnose and treat brain disorders.
Restoring ‘chaperone’ protein may prevent plaque buildup in Alzheimer’s
Penn Medicine researchers show how restoring levels of the protein DAXX and a large group of similar proteins prevents the misfolding of the rogue proteins known to drive Alzheimer’s and other neurodegenerative diseases.
Brain powered: Neuroscience research at Penn Medicine’s Pavilion
Penn Medicine’s newest inpatient facility will help to foster fundamental neuroscience discoveries and new neurotechnologies by bringing clinical care and neuroscience research closer together.
Damian Pang may have discovered a new type of memory
The Penn LPS Online Certificate in Neuroscience let Pang gain additional knowledge and skills while still working full time as an airline pilot out of Hong Kong.
Decoding how the brain accurately depicts ever-changing visual landscapes
A collaborative study finds that deeper regions of the brain encode visual information more slowly, enabling the brain to identify fast-moving objects and images more accurately and persistently.
A link between childhood stress and early molars
Penn researchers discovered that children from lower-income backgrounds and those who go through greater adverse childhood experiences get their first permanent molars sooner.
Researchers study thought process behind revealing Alzheimer’s test results
Two qualitative studies try to understand individuals’ decision-making process as they choose whom, why and how to share information regarding their Alzheimer’s disease biomarker and genetic testing results.
2021 cohort of Postdoctoral Fellows for Academic Diversity named
The competitive program, managed by Office of the Vice Provost for Research, is designed to support early career researchers and scholars while enriching the Penn community.
In the News
A new strategy to attack aggressive brain cancer shrank tumors in two early tests
A clinical trial led by Stephen Bagley of the Perelman School of Medicine suggests that targeting two associated proteins with CAR T cell therapy could be a viable strategy for shrinking brain tumors.
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ADHD may have evolved more than 12,000 years ago as an advantage for foragers, study claims
A study led by David Barack of the Perelman School of Medicine suggests that ADHD may have played a major role in foraging and survival for ancient hunter-gatherers.
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How to stay mentally sharp into your 80s and beyond
According to David Wolk of the Perelman School of Medicine, a healthier body can help the brain respond better to the aging process.
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Blood tests can help diagnose Alzheimer’s—if they’re accurate enough. Not all are
Virginia Man-Yee Lee of the Perelman School of Medicine says it’s likely in the future that anyone older than 60 will get an Alzheimer’s test.
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Some scientists think newborn neurons could reverse Alzheimer’s
Research co-authored by Hongjun Song of the Perelman School of Medicine strengthens the case for human neurogenesis, the development of new neurons from neural progenitor cells.
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The brain may interpret smells from each nostril differently
A study by postdoc Gulce Nazli Dikecligil in the Perelman School of Medicine suggests that the smells flowing through each nostril are processed as two separate signals in the part of the brain that receives smell inputs.
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