Isha Jain’s lab is interested in how the human body senses and responds to variations in oxygen levels. A number of diseases, including mitochondrial diseases, strokes, heart attacks, and respiratory diseases, reflect an imbalance between oxygen supply and oxygen demand. Using a combination of systems biology, metabolism, and physiology, the Jain Lab aims to identify conditions that may benefit from “turning the oxygen dial.” A long-term goal of the team’s work is to understand the role of oxygen in aging and age-associated conditions. Using similar approaches, the lab is also investigating pathologies associated with variations in vitamin levels in the body.

Disease Areas

Ischemia (Stroke, Heart Attack, Respiratory Disease)
Neurodegenerative and Mitochondrial Diseases
Inborn Errors of Metabolism
Aging and Aging-related Diseases

Areas of Expertise

Oxygen Metabolism and Physiology
Vitamin and Cofactor Metabolism
Human Genetics
Systems Biology
Working in the Jain lab

Lab Focus

Understanding how the body senses and adapts to variations in oxygen levels, and studying what goes wrong when there is too little or too much oxygen in the body.
Developing low or high oxygen exposure as a therapy for metabolic disorders.
Understanding the genetic, nutritional, and metabolic causes of subclinical vitamin deficiencies, with the goal of developing personalized nutritional therapies.

Research Impact

Oxygen is both vital and toxic for life. It enables efficient energy production in the mitochondria. Yet, excess oxygen leads to oxidative damage of biomolecules.

One of Jain’s seminal contributions was the discovery that in a mouse model of mitochondrial disease, lowering inhaled oxygen levels could alleviate and even reverse neurodegeneration. This finding raises the possibility that therapies aimed at “turning the oxygen dial” may benefit other mitochondrial or metabolic disorders. This work has led to a Phase 1 clinical trial.

Jain’s findings also have implications for aging and longevity. Epidemiological studies show that people who live at higher altitude—where oxygen pressure is lower—are longer-lived than people who live at sea level. Understanding the molecular mechanisms that kick in at high altitude and their interaction with the aging process may uncover new ways to alleviate age-related conditions.

Jain’s work could also lead to therapies aimed at preventing or reversing the tissue damage associated with states of ischemia, such as strokes or heart failure, where much of the pathology is due to an insufficient supply of oxygen and nutrients.

 

Lab Members

Alan Baik, MD
Affiliate
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Skyler Blume
Research Associate III
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Kirsten Chen
Graduate Student
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Kirsten Chen, PhD
Collaborator
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Brandon Chew
Graduate Student
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Brandon Chew
Graduate Student
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Beza Danna
Rotation Student
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Brandon Desousa
Graduate Student
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Jessica Felix, PhD
Postdoctoral Scholar
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Will Flanigan
Graduate Student
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Rebecca Fulthorpe
Rotation Student
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Ankur Garg, PhD
Postdoctoral Scholar
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Laurel Geraci
Rotation Student
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Galih Haribowo, PhD
Postdoctoral Scholar
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Tej Joshi
Visiting Researcher
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Yolanda Marti Mateos, PhD
Postdoctoral Scholar
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Annabel Menendez
Rotation Student
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Ayush Midha
Graduate Student
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Landon Nguyen
Rotation Student
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Rafaella Shima
Rotation Student
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