Highlights
- 1Nature metabolism · 2025
Publications
41 publications
Funding
11 grantsView NIH portfolio on RePORTER ↗
Active
5 grants- PIRF1AG095161-01A1Developing Inhibitors of Mitochondrial Complex III-Derived ROS for the Treatment of Alzheimer's DiseaseNational Institute on Aging · 2026–2030
- MPIR01AG095960-01Complex III-derived reactive oxygen species in mitochondrial-nuclear crosstalk in Alzheimer's disease and related dementiasNational Institute on Aging · 2025–2030
- Co-IR01NS118569-02Defining the Effects of Astrocytic TDP-43 Dysregulation on Hippocampal FunctionNational Institute of Neurological Disorders and Stroke · 2020–2026
- Co-IR21AG087400-01Uncovering Dementia-Related Lipid Alterations and Mechanisms in AstrocytesNational Institute on Aging · 2024–2026
- Co-IR01AG068091-01Mitochondrial Complex III Free Radicals in Dementia-Related Proteinopathy and NeuroinflammationNational Institute on Aging · 2020–2026
Completed grants (6)
- MPIBP 214689-01Site-Specific Blockers of Mitochondrial Free Radicals for Therapeutic Intervention in Neurodegenerative DiseasesDaedalus Fund for Innovation (Weill Cornell) · 2021–2022BioPharma Alliance
- Co-IGA-202007-2020603Lead Optimization of Novel Site-Selective Blockers of Mitochondrial Complex III ROS as FTD TherapeuticsAlzheimer's Drug Discovery Foundation · 2021–2022
- Co-IBFF A2019363SSelective Blockade of Mitochondrial Free Radicals in ADBrightFocus Foundation · 2019–2022
- Co-IAARG 17-533273Defining Astrocytic-Neuronal Transcriptional Alterations in Memory LossAlzheimer's Association National Office · 2017–2020
- Co-IR00AG048222-04Roles of Astrocytic G Protein-Coupled Signaling in MemoryNational Institute on Aging · 2017–2020
- PISUS 182558-01Unique Blockers of Two Major Sources of Mitochondrial ROS as Novel Therapeutics for Neurodegenerative Disorders.Sanofi S.A. · 2017–2018Contract
News mentions
3 mentionsView all WCM news ↗
- Study Pinpoints Source of Free Radicals in the Brain that May Fuel DementiaNovember 4, 2025
Researchers have discovered that free radicals generated at a specific site in non-neuronal brain cells called astrocytes, may promote dementia, according to a Weill Cornell Medicine study.
- Astrocytes Induce Sex-Specific Effects on MemoryMay 30, 2024
Weill Cornell Medicine scientists have uncovered the first evidence that astrocyte receptors can trigger opposite effects on cognitive function in male and female preclinical models.
- Astrocyte Dysfunction Causes Cognitive DeclineApril 19, 2023
People with dementia have protein build-up in astrocytes that may trigger abnormal antiviral activity and memory loss.