Soluble epoxide hydrolase drives neurovascular dysfunction in a model of amyloidosis

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ID: 314649
2026
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Abstract
Recent advances in anti-amyloid therapies for Alzheimer's disease have been promising, but they have also highlighted critical challenges, including increased vascular complications, such as amyloid-related imaging abnormalities. Emerging evidence suggests that the soluble epoxide hydrolase may be a promising therapeutic target due to the involvement of sEH-derived diols in inflammation, oxidative stress, and vascular destabilization. APPPS1 mice, a model of amyloidosis, were crossed with an inducible soluble epoxide hydrolase knock-out mouse line. The knock-out was induced before onset of amyloid deposition, and then the mice were analyzed using histological, molecular, and RNA sequencing techniques. Here, we identify astrocytic soluble epoxide hydrolase as a key mediator of vascular instability in amyloid pathology. Targeted astrocyte-specific deletion of soluble epoxide hydrolase in APPPS1 mice dramatically mitigated vascular changes, reducing the vascular amyloid burden by 67.95% and preserving VE-cadherin architecture. Importantly, vasomotion was markedly impaired in the Alzheimer's disease model and was preserved in soluble epoxide hydrolase-deficient animals. Transcriptomic profiling of vasculature in APPPS1xsEHΔAC mice revealed upregulated expression of genes critical for neurovascular protection. These findings identify soluble epoxide hydrolase as a central regulator of neurovascular dysfunction and underscore its therapeutic potential in increasing vascular stability in amyloidosis-associated diseases, such as Alzheimer's disease.
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Authors Murphy DeMeglio, Eloah S. De Biasi, Peter Breunig, Michael Candlish, Christina Sauerland, Stefan Günther, Haruya Kawase, Blanca Peguera, Christine Bohnstaedt, Jochen Herms, AS Neubauer, Jonas J. Neher, Peter R. Nilsson, Jiong Hu, Susanne Hille, Oliver Müller, Amparo Acker‐Palmer, Bruce D Hammock, T Michael Underhill, Stephan Junek, Stefan Offermanns, Ingrid Fleming, Jasmin K. Hefendehl
Journal Brain research
Year 2026
DOI
10.1093/brain/awag184
URL
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