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NAD+ Exercise Research | Midwest Peptide

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NAD+ Exercise Research: Physical Performance and Recovery

Q: Is NAD+ approved for human use?

No. NAD+ is not approved by the FDA for any human therapeutic use. It is supplied strictly for in-vitro and preclinical research purposes by qualified investigators.

NAD+ · Published April 24, 2026 · Updated May 18, 2026 · 8 min read

Quick Answer

NAD+ exercise research examines physical performance, recovery biology, and mitochondrial adaptation in rodent exercise models. Studies measure exercise capacity, mitochondrial biogenesis markers, AMPK activation, and recovery biomarkers across endurance and strength training research protocols. For research use only, not for human consumption.

NAD+ Exercise Research: Physical Performance and Recovery

Research Use Only. All products are strictly for research use only (RUO). Not for human consumption. Products on this site are not intended to diagnose, treat, cure, or prevent any disease. These statements have not been evaluated by the FDA. By purchasing, you agree that you are a qualified researcher and that products will be used solely for in-vitro research purposes.

NAD+ and Exercise Biology
Exercise Induced NAD+ Changes
Published NAD+ Supplementation in Exercise Research
Mitochondrial Biogenesis and Exercise Adaptation
Recovery and Tissue Repair
Substrate Utilization During Exercise
Exercise in Aging Research
PARP and Exercise DNA Repair
Research Design for Exercise Studies
Research Peptide Referenced
Related Research Reading
Related Research Articles
Explore Related Products
Frequently Asked Questions
Glossary

NAD+ exercise research examines the intersection of NAD+ biology with physical performance, exercise adaptation, and recovery in preclinical models. The NAD+ research cluster documents the foundational biology. This article extends the analysis into the exercise specific applications that have emerged as a major research area because NAD+ biology is centrally involved in the metabolic and cellular adaptations that define exercise response.

Frequently Asked Questions

What is NAD+ in research contexts?

NAD+ (nicotinamide adenine dinucleotide) is a coenzyme present in every living cell, central to redox metabolism and serving as a substrate for sirtuins, PARP enzymes, and CD38. It is studied in research models for cellular energy, mitochondrial function, DNA repair, and aging biology.

How does exercise affect NAD+ metabolism?

Exercise depletes ATP and elevates NAD+ turnover, activating the NAD+ salvage pathway through NAMPT. Adequate NAD+ supports mitochondrial biogenesis, oxidative metabolism, and recovery, while NAD+ depletion limits exercise capacity in research models.

What exercise endpoints are measured with NAD+ supplementation?

Endpoints include exercise capacity (treadmill time to exhaustion, voluntary wheel running), muscle mitochondrial content, oxidative enzyme activities, recovery markers, and integrated assessment of physical performance and adaptation in NAD+-modulated rodent models.

Is NAD+ approved for human use?

Glossary

Key terms used in this article.

NAD+/NADH: The oxidized (NAD+) and reduced (NADH) forms of nicotinamide adenine dinucleotide, central to redox metabolism.
Sirtuin: A family of NAD+-dependent deacylase enzymes (SIRT1 to SIRT7) that regulate metabolism, stress response, and aging.
PARP: Poly(ADP-ribose) polymerase, a family of NAD+-consuming enzymes critical for DNA damage repair.
NMN: Nicotinamide mononucleotide, a direct biosynthetic precursor to NAD+ studied as a supplementation strategy.
NR: Nicotinamide riboside, an NAD+ precursor that is converted to NMN by NRK enzymes before incorporation into NAD+.
Mitochondrial Biogenesis: The cellular process of generating new mitochondria, regulated by PGC-1 alpha and other transcriptional coactivators.
Salvage Pathway: The metabolic route that recycles nicotinamide back to NAD+ via NAMPT and NMNAT, the dominant NAD+ synthesis pathway in most tissues.

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For Research Use Only. NAD+ is intended strictly for in vitro and preclinical animal research. It is not approved for human use, is not a drug, and should never be administered to humans.

NAD+ and Exercise Biology

Exercise produces substantial metabolic demands that require high NAD+ turnover in working muscle. The oxidative phosphorylation that generates most of the ATP during exercise depends on NAD+ as an essential electron carrier. Glycolysis, fatty acid oxidation, and amino acid metabolism all require NAD+ at multiple steps. The mitochondrial biogenesis that accompanies exercise training depends on NAD+ dependent sirtuin signaling. The DNA repair responses triggered by exercise induced metabolic stress require NAD+ dependent PARP activity.

The central role of NAD+ in exercise biology has made NAD+ and exercise research one of the most active areas in the broader NAD+ literature. Research examines how exercise affects NAD+ levels, how NAD+ supplementation affects exercise performance and adaptation, and how the two interventions interact in preclinical models.

The Nature subject hub on exercise and the ScienceDirect NAD+ exercise topic page archive primary research on the integrated exercise NAD+ biology.

Exercise Induced NAD+ Changes

Exercise acutely decreases muscle NAD+ levels during the exercise bout itself due to the increased turnover in active metabolism. The depletion is transient and muscle NAD+ levels recover during the post exercise period. The exercise induced NAD+ flux activates multiple NAD+ dependent signaling pathways that contribute to the adaptive response to training.

Chronic exercise training increases baseline muscle NAD+ levels and increases the NAD+ synthesis capacity through upregulation of salvage pathway enzymes including NAMPT. The trained muscle therefore has greater NAD+ reserves and greater capacity to handle the metabolic demands of subsequent exercise bouts. This adaptation is one of the cellular mechanisms that underlies improved exercise capacity with training.

The exercise induced NAD+ changes connect to the MOTS-c exercise article in the MOTS-c cluster because MOTS-c shares the mitochondrial biology that is central to exercise adaptation. Both compounds are involved in mitochondrial function and exercise response through related but distinct pathways.

Published NAD+ Supplementation in Exercise Research

Published research on NAD+ supplementation in exercise contexts documents effects on performance and adaptation endpoints. Rodent exercise performance studies examining treadmill endurance, voluntary wheel running, and specific muscle function tests report improved performance in NAD+ supplemented animals compared to vehicle controls.

The performance improvements reflect the increased NAD+ availability supporting the metabolic demands of exercise. Muscle mitochondrial function is enhanced, fatty acid oxidation capacity is increased, and the capacity to sustain aerobic metabolism at high workloads is improved. These adaptations produce measurable improvements in endurance capacity and in the ability to recover from exercise bouts.

The performance research has been extended into aging models where baseline NAD+ decline impairs exercise capacity. Published research in aged rodents documents partial restoration of exercise capacity with NAD+ supplementation, aligning with the broader aging research documented in the NAD+ in Research: A Comprehensive Review of Nicotinamide Adenine Dinucleotide Studies.

The Cell Press journal Cell Metabolism and the Wiley Online Library exercise physiology collection archive primary research on exercise NAD+ biology.

Mitochondrial Biogenesis and Exercise Adaptation

Exercise training stimulates mitochondrial biogenesis through PGC-1 alpha mediated transcriptional programs. PGC-1 alpha activity depends on SIRT1 deacetylation, which in turn depends on NAD+ availability. Adequate NAD+ levels therefore support the mitochondrial adaptation that produces the endurance capacity improvements that define exercise training.

Published research on NAD+ supplementation during exercise training documents enhanced mitochondrial biogenesis markers including increased mitochondrial density, increased expression of electron transport chain components, and improved mitochondrial function in working muscle. The combined NAD+ plus exercise approach produces larger mitochondrial adaptations than either intervention alone.

The mitochondrial biogenesis research connects to the NAD+ and Cellular Metabolism: Reviewing Mitochondrial Function Studies which covers the broader mitochondrial biology, and to the MOTS-c AMPK article which covers the AMPK pathway that interacts with mitochondrial biogenesis through exercise related signaling.

Recovery and Tissue Repair

Exercise produces microscopic muscle damage that requires repair processes for recovery and adaptation. The repair involves inflammatory signaling, satellite cell activation, protein synthesis, and gene expression changes that collectively rebuild the damaged tissue in a form that is better adapted to the specific exercise demands. NAD+ dependent processes are involved throughout this repair response.

Published research on NAD+ supplementation during recovery from exercise induced muscle damage documents accelerated recovery markers including faster resolution of muscle damage indicators, improved post-exercise protein synthesis rates, and faster recovery of functional performance. The recovery acceleration reflects the support of multiple NAD+ dependent repair processes operating simultaneously.

The recovery research connects to the BPC-157 muscle repair article which covers muscle repair from a different pharmacological perspective. The different compounds address muscle repair through different mechanisms and may be complementary in research programs that examine comprehensive muscle repair support.

Substrate Utilization During Exercise

NAD+ availability affects substrate utilization during exercise by supporting the oxidative metabolism of fatty acids and carbohydrates. Increased NAD+ levels support increased fatty acid oxidation capacity, which is particularly important for endurance exercise where fatty acid oxidation provides the majority of the energy requirement. The shift toward fatty acid oxidation spares muscle glycogen and supports sustained exercise capacity.

Published research using indirect calorimetry and muscle biopsy analysis documents shifts in substrate utilization patterns during exercise in NAD+ supplemented animals. The shifts align with improved endurance performance and with the expected effects of enhanced mitochondrial oxidative capacity.

The substrate utilization research connects to the GLP-3 RT energy expenditure article which covers substrate utilization shifts from the triple agonist perspective, and to the MOTS-c insulin sensitivity article which covers muscle glucose handling.

Exercise in Aging Research

The interaction between NAD+ supplementation and exercise in aging models is one of the most interesting research frontiers because both interventions address aspects of the aging phenotype that contribute to functional decline. Exercise maintains functional capacity in aging but is limited by the baseline NAD+ decline that impairs the metabolic adaptation. NAD+ supplementation addresses this limitation and supports more robust exercise response in aged animals.

Published research on combined NAD+ and exercise in aged rodents documents additive or synergistic effects on functional capacity, mitochondrial function, and muscle quality endpoints. The combined intervention produces larger improvements than either alone, and the combination represents a research approach that extends the individual interventions.

The aging exercise research connects to the MOTS-c aging article, the GHK-Cu skin aging article, and the CJC/Ipa lean mass article through the shared aging research framework. Different compounds address different aspects of the aging phenotype, and integrated research programs examine their interactions.

PARP and Exercise DNA Repair

Exercise produces oxidative DNA damage that triggers PARP mediated repair. PARP consumes NAD+, which contributes to the acute NAD+ depletion during exercise. The NAD+ dependent repair capacity is therefore relevant to how quickly and completely exercise induced DNA damage is resolved.

Published research on NAD+ supplementation during exercise documents enhanced DNA repair markers in exercising muscle, consistent with improved PARP capacity supported by the maintained NAD+ levels. The DNA repair benefit adds to the mitochondrial and metabolic benefits in the integrated NAD+ exercise response.

The DNA repair research connects to the NAD+ DNA repair article which covers the broader PARP biology in non-exercise contexts.

Research Design for Exercise Studies

Exercise research with NAD+ supplementation requires specialized protocols including controlled exercise regimens, appropriate monitoring of exercise intensity and duration, and measurement of performance, adaptation, and recovery endpoints. The timing of NAD+ administration relative to exercise affects the results because the acute effects during exercise differ from the chronic effects on training adaptation.

The exercise intensity and modality should be matched to the research question. High intensity interval training tests different physiological systems than prolonged endurance exercise. Strength training tests different adaptations than aerobic training. The study design should align the exercise protocol with the specific adaptations and outcomes being measured.

Research Peptide Referenced

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Age Verification

NAD+ Exercise Research: Physical Performance and Recovery

Frequently Asked Questions

What is NAD+ in research contexts?

How does exercise affect NAD+ metabolism?

What exercise endpoints are measured with NAD+ supplementation?

Is NAD+ approved for human use?

Glossary

More from the Blog

Subcutaneous vs Intranasal: Choosing an Administration Route for DSIP, Selank, and Kisspeptin in Research

Can I Still Buy Compounded Tirzepatide? (2026 Research Context)

NAD+ and Exercise Biology

Exercise Induced NAD+ Changes

Published NAD+ Supplementation in Exercise Research

Mitochondrial Biogenesis and Exercise Adaptation

Recovery and Tissue Repair

Substrate Utilization During Exercise

Exercise in Aging Research

PARP and Exercise DNA Repair

Research Design for Exercise Studies

Research Peptide Referenced

Ready to Start Your Research?

Where can researchers source third-party tested NAD+?

What's the Cheapest Way to Get Tirzepatide (GLP-2 TZ) for Research?

Age Verification

NAD+ Exercise Research: Physical Performance and Recovery

Frequently Asked Questions

What is NAD+ in research contexts?

How does exercise affect NAD+ metabolism?

What exercise endpoints are measured with NAD+ supplementation?

Is NAD+ approved for human use?

Glossary

More from the Blog

Subcutaneous vs Intranasal: Choosing an Administration Route for DSIP, Selank, and Kisspeptin in Research

Can I Still Buy Compounded Tirzepatide? (2026 Research Context)

NAD+ and Exercise Biology

Exercise Induced NAD+ Changes

Published NAD+ Supplementation in Exercise Research

Mitochondrial Biogenesis and Exercise Adaptation

Recovery and Tissue Repair

Substrate Utilization During Exercise

Exercise in Aging Research

PARP and Exercise DNA Repair

Research Design for Exercise Studies

Research Peptide Referenced

Related Research Reading

Related Research Articles

Explore Related Products

Ready to Start Your Research?

Where can researchers source third-party tested NAD+?

What's the Cheapest Way to Get Tirzepatide (GLP-2 TZ) for Research?