Understand the source comparison
SS-LUP-332 for Muscle Performance: Research Compound Comparison
The table below compares SS-LUP-332 for muscle performance against other research peptides used in metabolic and performance studies, showing differences in mechanism, primary research applications, and observed effects in published models. SS-LUP-332 ERRα/ERR
No winner is assigned.
This page preserves a source comparison for education. It does not add a rating, recommendation or clinical judgment.
- The table below compares SS-LUP-332 for muscle performance against other research peptides used in metabolic and performance studies, showing differences in mechanism, primary research applications, and observed effects in published models.
- SS-LUP-332
- ERRα/ERRγ agonist. Increases mitochondrial biogenesis and oxidative metabolism
- Endurance adaptation, metabolic disease models, mitochondrial dysfunction
- 70% increase in endurance time-to-exhaustion, 40% higher mitochondrial density, improved lactate clearance
- Estrogen-related receptor alpha and gamma
- Best tool for studying metabolic remodeling independent of training stimulus. Produces exercise-like adaptations without requiring physical activity input
- AICAR
- AMPK activator. Mimics AMP to trigger energy depletion response
- Glucose metabolism research, AMPK pathway studies
- Increased glucose uptake, fatty acid oxidation, modest endurance improvement (20–30%)
- AMP-activated protein kinase
- Narrow mechanism focused on AMPK. Doesn't address mitochondrial biogenesis as comprehensively as ERR agonists
- GW501516
- PPARδ agonist. Upregulates fatty acid oxidation genes
- Lipid metabolism research, endurance studies
- Increased fat oxidation, 50% endurance improvement, no effect on mitochondrial density
- Peroxisome proliferator-activated receptor delta
- Strong for substrate utilization studies but lacks mitochondrial proliferation effects. Complements rather than replaces ERR agonists
- Mots-C
- Mitochondrial-derived peptide. Regulates nuclear gene expression
- Aging research, mitochondrial signaling, metabolic health
- Improved insulin sensitivity, increased mitochondrial function in aged muscle
- Folate cycle enzymes, AMPK (indirect)
- Addresses mitochondrial-nuclear communication rather than direct metabolic reprogramming. Works through different pathway than SS-LUP-332