D Sadler
Researcher
Also affiliated: Arkansas Children's Hospital (2022–2026); Duke University (2024); University of Arkansas Medical Center (2023); Ludlow Community Hospital (2026); ORCID (2020); Arkansas Children's Nutrition Center (2022–2026); Liverpool John Moores University (2020–2022)
Faculty Researcher
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
D Sadler's research investigates physiological adaptations related to energy expenditure and cellular function. Recent publications examine how housing temperature influences whole-body energy expenditure and thermogenic capacity in mice, and the effects of protonophore treatment on energy expenditure in mice housed at thermoneutrality. Other work explores how elevated shear rates in human conduit artery endothelial cells impact protein phosphorylation and the influence of cocoa flavanols on pulmonary oxygen uptake kinetics and exercise tolerance in sedentary adults. Additionally, Sadler's research considers how parental cardiorespiratory fitness affects early life energetics and metabolic health, and the distinct adaptations to early-life exercise training based on inborn fitness. Sadler has also studied the impact of (–)-epicatechin on reactive oxygen and nitrogen species production in human vascular endothelial cells, independent of mitochondrial respiration. Sadler has a publication record of 19 articles, with an h-index of 4 and 67 total citations. Key collaborators include Craig Porter, Lillie Treas, James D. Sikes, and Elisabet Børsheim, all at the University of Arkansas for Medical Sciences.
Metrics
- h-index: 4
- Publications: 19
- Citations: 68
Selected Publications
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Carnitine deficiency alters fuel metabolism and voluntary wheel running in mice (2026)
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Mitochondrial respiratory function in human platelets: Influence of sample preparation, assay buffer, and instrumental platform (2025)
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Shared and distinct adaptations to early‐life exercise training based on inborn fitness (2025)
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Shared and distinct adaptations to early-life exercise training based on inborn fitness (2024)
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Protonophore treatment augments energy expenditure in mice housed at thermoneutrality (2024)
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Parental cardiorespiratory fitness influences early life energetics and metabolic health (2023)
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A modest change in housing temperature alters whole body energy expenditure and adipocyte thermogenic capacity in mice (2022)
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Housing Temperature Alters Energy Expenditure and Adipose Tissue Bioenergetics in Mice (2022)
Collaboration Network
Top Collaborators
- A modest change in housing temperature alters whole body energy expenditure and adipocyte thermogenic capacity in mice
- Parental cardiorespiratory fitness influences early life energetics and metabolic health
- Protonophore treatment augments energy expenditure in mice housed at thermoneutrality
- Shared and distinct adaptations to early‐life exercise training based on inborn fitness
- Housing Temperature Alters Energy Expenditure and Adipose Tissue Bioenergetics in Mice
Showing 5 of 7 shared publications
- A modest change in housing temperature alters whole body energy expenditure and adipocyte thermogenic capacity in mice
- Parental cardiorespiratory fitness influences early life energetics and metabolic health
- Protonophore treatment augments energy expenditure in mice housed at thermoneutrality
- Shared and distinct adaptations to early‐life exercise training based on inborn fitness
- Housing Temperature Alters Energy Expenditure and Adipose Tissue Bioenergetics in Mice
Showing 5 of 7 shared publications
- A modest change in housing temperature alters whole body energy expenditure and adipocyte thermogenic capacity in mice
- Parental cardiorespiratory fitness influences early life energetics and metabolic health
- Protonophore treatment augments energy expenditure in mice housed at thermoneutrality
- Shared and distinct adaptations to early‐life exercise training based on inborn fitness
- Shared and distinct adaptations to early-life exercise training based on inborn fitness
- Parental cardiorespiratory fitness influences early life energetics and metabolic health
- Shared and distinct adaptations to early‐life exercise training based on inborn fitness
- Shared and distinct adaptations to early-life exercise training based on inborn fitness
- Mitochondrial respiratory function in human platelets: Influence of sample preparation, assay buffer, and instrumental platform
- Parental cardiorespiratory fitness influences early life energetics and metabolic health
- Shared and distinct adaptations to early‐life exercise training based on inborn fitness
- Shared and distinct adaptations to early-life exercise training based on inborn fitness
- Parental cardiorespiratory fitness influences early life energetics and metabolic health
- Shared and distinct adaptations to early‐life exercise training based on inborn fitness
- Shared and distinct adaptations to early-life exercise training based on inborn fitness
- Parental cardiorespiratory fitness influences early life energetics and metabolic health
- Shared and distinct adaptations to early‐life exercise training based on inborn fitness
- Shared and distinct adaptations to early‐life exercise training based on inborn fitness
- Shared and distinct adaptations to early-life exercise training based on inborn fitness
- Shared and distinct adaptations to early‐life exercise training based on inborn fitness
- Shared and distinct adaptations to early-life exercise training based on inborn fitness
- Shared and distinct adaptations to early‐life exercise training based on inborn fitness
- Shared and distinct adaptations to early-life exercise training based on inborn fitness
- Parental cardiorespiratory fitness influences early life energetics and metabolic health
- Protonophore treatment augments energy expenditure in mice housed at thermoneutrality
- Shared and distinct adaptations to early-life exercise training based on inborn fitness
- Mitochondrial respiratory function in human platelets: Influence of sample preparation, assay buffer, and instrumental platform
- Mitochondrial respiratory function in human platelets: Influence of sample preparation, assay buffer, and instrumental platform
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