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PLoS Biol
Published

Selective suppression of oligodendrocyte-derived amyloid beta rescues neuronal dysfunction in Alzheimer's disease.

Authors

Rikesh M Rajani, Robert Ellingford, Mariam Hellmuth, Samuel S Harris, Orjona S Taso, David Graykowski, Francesca Kar Wey Lam, Charles Arber, Emre Fertan, John S H Danial, Matthew Swire, Marcus Lloyd, Tatiana A Giovannucci, Mathieu Bourdenx, David Klenerman, Robert Vassar, Selina Wray, Carlo Sala Frigerio, Marc Aurel Busche

Abstract

Reduction of amyloid beta (Aβ) has been shown to be effective in treating Alzheimer's disease (AD), but the underlying assumption that neurons are the main source of pathogenic Aβ is untested. Here, we challenge this prevailing belief by demonstrating that oligodendrocytes are an important source of Aβ in the human brain and play a key role in promoting abnormal neuronal hyperactivity in an AD knock-in mouse model. We show that selectively suppressing oligodendrocyte Aβ production improves AD brain pathology and restores neuronal function in the mouse model in vivo. Our findings suggest that targeting oligodendrocyte Aβ production could be a promising therapeutic strategy for treating AD.

PMID:39042667 | DOI:10.1371/journal.pbio.3002727

UK DRI Authors

David Klenerman

Prof Sir David Klenerman

Group Leader

Determining how protein clumps form, damage the brain and change as the different neurodegenerative diseases develop to know which ones to target for therapies

Prof Sir David Klenerman
Selina Wray

Prof Selina Wray

UK DRI Co-investigator

Professor of Molecular Neuroscience, UCL

Prof Selina Wray
Marc Aurel Busche profile picture

Dr Marc Aurel Busche

Group Leader

Understanding and repairing pathological neural circuits in Alzheimer's disease

Dr Marc Aurel Busche