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Grants > Unraveling the Triggers to Myelin Damage in Alzheimer’s Disease Updated On: Jul 11, 2025
Alzheimer's Disease Research Grant

Unraveling the Triggers to Myelin Damage in Alzheimer’s Disease

Oligodendrocyte & Myelin Dysfunction
Katerina Akassoglou headshot

Principal Investigator

Katerina Akassoglou, PhD

Gladstone Institutes

San Francisco, CA, USA

About the Research Project

Program

Alzheimer's Disease Research

Award Type

Standard

Award Amount

$300,000

Active Dates

July 01, 2025 - June 30, 2028

Grant ID

A2025013S

Goals

The project aims to uncover how vascular dysfunction and blood proteins drive myelin damage in Alzheimer’s disease and explore treatments that can restore brain repair and improve cognitive function.

Summary

Myelin damage has emerged as a key player in Alzheimer’s disease (AD). However, the triggers of myelin pathology in AD remain largely unknown. Fibrinogen, a blood clotting protein deposited in the AD brain, is a potent inducer of neurotoxic inflammation and inhibitor of myelin repair. We will determine the role of fibrinogen on myelin-forming cells in AD mice with state-of-the-art imaging, multiomic technologies, and behavioral analysis of learning and memory in AD mice, as well as testing pharmacologic treatments promoting remyelination.

Unique and Innovative

What’s most unique and innovative about this project is its focus on myelin, an often-understudied aspect of Alzheimer’s disease, and how blood proteins and vascular dysfunction drive its damage and impair brain repair. The project uses cutting-edge imaging, multiomic profiling, and, importantly, tests innovative remyelinating therapies aimed at restoring brain repair and enhancing cognitive functions. This integrated, cross-disciplinary approach aims to uncover breakthrough strategies to restore myelin, promote brain repair, and improve memory and learning in Alzheimer’s.

Foreseeable Benefits

Once this study is complete, it could open the door to new therapeutic interventions that promote brain repair and improve cognitive function in people with Alzheimer’s disease. By uncovering how vascular dysfunction and blood proteins drive myelin damage, the research may shift the field’s focus toward targeting brain repair mechanisms. Ultimately, these advances could lead to innovative therapies that improve the quality of life for patients and families affected by Alzheimer’s.