
Elizabeth Repasky
Articles
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1 month ago |
thetransmitter.org | Sydney Wyatt |Caitlin James |Elizabeth Repasky |Sandra Sexton
A new photometry technique can track absolute levels of dopamine and monitor both fast and slow changes in its concentration in freely moving mice, according to a preprint posted on bioRxiv in January.
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2 months ago |
thetransmitter.org | Shaena Montanari |Caitlin James |Elizabeth Repasky |Sandra Sexton
Reporter The Transmitter Share this article: Tags: Methods, Alzheimer’s disease, Amyloid beta, Animal models, animal research, models, neurodegenerative disease Transgenic mice typically help to standardize disease research, but not in the case of a common model of familial Alzheimer’s disease: The amount of amyloid beta plaque in 5XFAD mice—so named for the five familial Alzheimer’s disease variants they carry—varies depending on how they are bred, according to a study published 20 January...
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Nov 11, 2024 |
thetransmitter.org | Anthony M. Zador |Caitlin James |Elizabeth Repasky |Sandra Sexton
The field of NeuroAI encompasses two intertwined research programs: the use of artificial intelligence (AI) to model intelligent behavior, and the application of neuroscience insights to improve AI systems. The motivation for using neuroscience to improve AI is clear: If the ultimate goal is, in the words of AI pioneer Marvin Minsky, “to build machines that can perform any […] task that a human can do,” then the most natural strategy is to reverse-engineer the brain.
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Nov 11, 2024 |
thetransmitter.org | Anthony M. Zador |Caitlin James |Elizabeth Repasky |Sandra Sexton
“NeuroAI,” a portmanteau of “neuroscience” and “AI” (artificial intelligence), is on the rise. Almost unheard of until about five years ago, it has now emerged as a “hot” area of research—and the subject of a growing number of workshops, conferences and academic programs, including a BRAIN-Initiative-sponsored workshop that starts tomorrow. The intertwining of these disciplines was almost inevitable.
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Nov 6, 2024 |
thetransmitter.org | Angie Voyles Askham |Jill Adams |Caitlin James |Elizabeth Repasky
Engrams, the physical circuits of individual memories, consist of more than just neurons, according to a new study published today in Nature. Astrocytes, too, shape how some memories are stored and retrieved, the work shows. The results represent “a fundamental change” in how the neuroscience field should think about indexing memories, says lead researcher Benjamin Deneen, professor of neurosurgery at Baylor College of Medicine.
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