Metabolic Research
Adipose Metabolism Research Stack
GLP-1+GIP (T) + AOD-9604
Designed for research involving metabolic signaling, adipose tissue biology, lipid metabolism, fat oxidation pathways, and energy utilization.
Research note: Research on GLP-1+GIP (T) has shown it significantly reduces body weight and fat mass, while preclinical AOD-9604 research has demonstrated increased lipolytic activity and reductions in body fat in animal models.
Metabolic Research
Advanced Adipose Metabolism Research Stack
GLP-1+GIP+GCG (R) (30 mg) + AOD-9604
Designed for research involving multi-receptor metabolic signaling, adipose tissue biology, lipid metabolism, fat oxidation, and energy expenditure.
Research note: Research on GLP-1+GIP+GCG (R) has shown it significantly reduces body weight and fat mass in human trials, while preclinical AOD-9604 research has demonstrated effects on lipolysis and adipose metabolism.
Metabolic Research
Advanced Metabolic Recomposition Research Stack
GLP-1+GIP+GCG (R) 30 mg + Tesamor TH-9507
Designed for research involving GLP-1, GIP, glucagon, and growth hormone pathways with a focus on visceral adipose tissue, metabolic regulation, and body composition.
Includes
Research note: Research on GLP-1+GIP+GCG (R) has shown it can produce substantial reductions in body weight and total fat mass, while Tesamor TH-9507 has demonstrated significant reductions in visceral abdominal adipose tissue.
Metabolic Research
Advanced Mitochondrial Metabolic Research Stack
GLP-1+GIP+GCG (R) + MOTS-c
Designed for research involving multi-receptor metabolic signaling, mitochondrial biology, cellular energy metabolism, glucose utilization, and metabolic adaptation.
Research note: Research on GLP-1+GIP+GCG (R) has shown it produces substantial reductions in body weight and improvements in metabolic measures, while MOTS-c has demonstrated improved insulin sensitivity and metabolic homeostasis in preclinical research.
Healthy Aging
Cellular Energy Research Stack
NAD+ + MOTS-c
Designed for research involving mitochondrial function, cellular energy metabolism, metabolic signaling, glucose utilization, and cellular resilience.
Includes
Research note: Research identifies NAD+ as a central regulator of cellular energy and mitochondrial biology, while MOTS-c has demonstrated improvements in insulin sensitivity and metabolic homeostasis in experimental research.
Recovery & Performance
Copper-Free Recovery Research Stack
KPV + Wolverine Blend (BPC-157 + TB-500)
Designed for research involving inflammatory signaling, tissue repair, mucosal biology, extracellular matrix remodeling, and regenerative pathways without GHK-Cu.
Research note: Research shows KPV can suppress inflammatory signaling in experimental models, while preclinical BPC-157 and TB-500 research has demonstrated improved tendon architecture, collagen organization, and tissue-repair activity.
Healthy Aging
Healthy Aging Research Stack
NAD+ + Epitalon
Designed for research involving cellular aging, NAD+-dependent pathways, telomere biology, cellular maintenance, and longevity-associated mechanisms.
Includes
Research note: Research links NAD+ biology to mitochondrial and cellular aging pathways, while laboratory studies of Epitalon have demonstrated increased telomerase activity and telomere elongation in human cells.
Metabolic Research
Metabolic Energy Research Stack
AOD-9604 + MOTS-c
Designed for research involving adipose metabolism, mitochondrial signaling, cellular energy utilization, lipid metabolism, and metabolic homeostasis.
Includes
Research note: Preclinical research shows AOD-9604 can influence lipolysis and adipose metabolism, while MOTS-c has demonstrated improved insulin sensitivity, metabolic homeostasis, and resistance to diet-induced obesity.
Healthy Aging
Mitochondrial Longevity Research Stack
MOTS-c + Epitalon
Designed for research involving mitochondrial signaling, cellular metabolism, metabolic adaptation, telomere biology, and longevity-associated pathways.
Includes
Research note: Research shows MOTS-c can regulate metabolic homeostasis and insulin sensitivity in experimental models, while Epitalon has demonstrated effects on telomerase activity and telomere length in human cell studies.
Metabolic Research
Mitochondrial Metabolic Research Stack
GLP-1+GIP (T) + MOTS-c
Designed for research involving metabolic signaling, mitochondrial function, glucose utilization, cellular energy production, and metabolic homeostasis.
Research note: Research on GLP-1+GIP (T) has shown it improves body weight and metabolic parameters, while preclinical MOTS-c research has demonstrated improved insulin sensitivity, metabolic homeostasis, and resistance to diet-induced obesity.
Cognitive Research
Neuroregulation Research Stack
Semax + Selank
Designed for research involving cognition, executive function, stress-response pathways, neuroregulation, and functional brain connectivity.
Includes
Research note: Research in healthy human participants shows both Semax and Selank can alter resting-state functional connectivity involving brain regions associated with executive function and anxiety regulation.
Metabolic Research
Non-GLP Metabolic Research Stack
Tesamor TH-9507 + AOD-9604
Designed for research involving growth hormone signaling, visceral adipose tissue, lipid metabolism, adipose biology, and body-composition pathways without GLP-1 receptor signaling.
Research note: Research on Tesamor TH-9507 has shown it significantly reduces visceral adipose tissue in human studies, while preclinical AOD-9604 research has demonstrated increased lipolytic activity and reductions in body fat.
Skin & Regenerative Research
Regenerative Signaling Research Stack
GHK-Cu + KPV
Designed for research involving inflammatory signaling, collagen pathways, extracellular matrix biology, cellular repair, and tissue remodeling.
Includes
Research note: Research shows GHK-Cu can stimulate collagen synthesis and tissue-remodeling pathways, while KPV has demonstrated anti-inflammatory and mucosal-healing activity in experimental models.
Optional Premium Stack — Highly Recommended
Metabolic Research
Metabolic Recomposition Research Stack
GLP-1+GIP (T) + Tesamor TH-9507
Designed for research involving incretin signaling, growth hormone pathways, visceral adipose tissue, metabolic regulation, and body composition.
Research note: Research on GLP-1+GIP (T) has shown it can significantly reduce body weight, total fat mass, and visceral adipose tissue, while Tesamor TH-9507 has demonstrated approximately 15 to 20% reductions in visceral adipose tissue in human studies.