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Biography and Research Information
OverviewAI-generated summary
Harrison Brown's research investigates fundamental biological processes, with a recent focus on the role of mitochondrial NADPH in cellular metabolism. His work has explored how mitochondrial NADPH influences fatty acid synthesis and lipoylation, impacting oxidative metabolism. Another area of his research examines purine synthesis pathways, both de novo and salvage routes, across various tissues and in the context of tumors.
In addition to his work in molecular and cellular biology, Brown has contributed to orthopedic research. He has authored publications on the surgical treatment of interprosthetic femur fractures and the use of cerclage cables in managing periprosthetic femur fractures. His scholarship metrics include an h-index of 25 and over 2,800 citations across 151 publications. He is recognized as a highly cited researcher and collaborates with colleagues at the University of Arkansas for Medical Sciences, including Benjamin M. Stronach and Bryce Wall.
Metrics
- h-index: 25
- Publications: 151
- Citations: 2,890
Selected Publications
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Interprosthetic Femur Fractures: A Multicenter Retrospective Study (2025)
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Use of 1 mm Cerclage Cables in Surgical Treatment of Periprosthetic Femur Fractures (2024)
Collaboration Network
Top Collaborators
- De novo and salvage purine synthesis pathways across tissues and tumors
- Crystal structure of human NADK2 reveals a dimeric organization and active site occlusion by lysine acetylation
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- De novo and salvage purine synthesis pathways across tissues and tumors
- Crystal structure of human NADK2 reveals a dimeric organization and active site occlusion by lysine acetylation
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- De novo and salvage purine synthesis pathways across tissues and tumors
- Crystal structure of human NADK2 reveals a dimeric organization and active site occlusion by lysine acetylation
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Crystal structure of human NADK2 reveals a dimeric organization and active site occlusion by lysine acetylation
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- De novo and salvage purine synthesis pathways across tissues and tumors
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- De novo and salvage purine synthesis pathways across tissues and tumors
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- De novo and salvage purine synthesis pathways across tissues and tumors
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- De novo and salvage purine synthesis pathways across tissues and tumors
- Crystal structure of human NADK2 reveals a dimeric organization and active site occlusion by lysine acetylation
- Interprosthetic Femur Fractures: A Multicenter Retrospective Study
- Use of 1 mm Cerclage Cables in Surgical Treatment of Periprosthetic Femur Fractures
- Interprosthetic Femur Fractures: A Multicenter Retrospective Study
- Use of 1 mm Cerclage Cables in Surgical Treatment of Periprosthetic Femur Fractures
- Interprosthetic Femur Fractures: A Multicenter Retrospective Study
- Use of 1 mm Cerclage Cables in Surgical Treatment of Periprosthetic Femur Fractures
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
- Author Correction: Mitochondrial NADPH fuels mitochondrial fatty acid synthesis and lipoylation to power oxidative metabolism
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