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NAD+ (nicotinamide adenine dinucleotide) is a coenzyme investigated for its central role in cellular energy production, DNA repair signaling, and the regulation of proteins linked to aging-associated cellular processes. NAD+ levels decline in research models over time, a pattern that has been associated with reduced cellular energy output, impaired DNA repair pathway activity, and changes in the activity of proteins that govern how cells respond to stress and damage at the molecular level. It is one of the most actively researched molecules in longevity and cellular biology, with a growing body of literature examining its role in metabolic signaling, neurological pathway activity, and tissue maintenance across controlled research settings.
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Product Description
KPV is a naturally derived tripeptide, a three-amino acid fragment taken from the tail end of alpha-melanocyte-stimulating hormone (alpha-MSH), a peptide investigated for its role in regulating inflammatory signaling, pigmentation, and immune pathway activity. KPV has been studied for its ability to reduce inflammatory signaling activity in intestinal and dermal research models, and has attracted particular research interest for its potential role in the gut-skin axis, the studied relationship between intestinal barrier signaling and skin condition pathways. Its small size and targeted activity make it a well-suited research compound for investigators studying inflammation as a driver of skin aging, barrier dysfunction, and chronic tissue signaling dysregulation in controlled research settings.
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KLOW is an advanced peptide blend extending the GLOW formula with the addition of KPV (Lys-Pro-Val), a tripeptide fragment of alpha-melanocyte-stimulating hormone studied for its systemic anti-inflammatory signaling and gut-skin axis modulatory properties. Where GLOW targets dermal and follicular tissue through structural and vascular signaling mechanisms, KLOW adds a fourth pathway that researchers have investigated for its potential to address inflammatory signaling and intestinal permeability as upstream regulators of dermal biology. KLOW is designed for researchers investigating comprehensive, systems-level approaches to skin rejuvenation and anti-aging signaling pathways in controlled research settings.
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Ipamorelin is a synthetic pentapeptide, a five-amino acid compound, developed as a selective growth hormone secretagogue investigated for its ability to stimulate the release of growth hormone from pituitary gland receptors. Unlike broader growth hormone-releasing compounds, Ipamorelin has been researched for its high selectivity, with studies suggesting it stimulates growth hormone release without meaningfully affecting other hormones such as cortisol or prolactin. This selectivity has made it a subject of interest for researchers investigating growth hormone regulation, body composition signaling, and tissue repair pathway activity in controlled research settings.
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GLP3 (RT) is a triple-receptor incretin-based research peptide investigated for its simultaneous activity at the GLP-1, GIP, and glucagon receptors. Extending the dual-agonist framework established by earlier compounds in this class, GLP3 (RT) introduces glucagon receptor co-activation as a third mechanistic dimension, engaging a receptor system with distinct and complementary roles in energy expenditure, hepatic glucose output, and lipid metabolism. As the most recently developed compound in this research class, GLP3 (RT) represents the current frontier of multi-receptor incretin pharmacology and is among the most actively investigated peptides in preclinical metabolic research settings.
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GLP2 (TZ) is a dual-receptor incretin-based research peptide investigated for its simultaneous activity at both GLP-1 and GIP receptors. Where earlier compounds in this class engage a single incretin pathway, GLP2 (TZ) is studied for its capacity to activate two complementary receptor systems within a single molecular framework. This dual-agonist architecture has made it a subject of considerable scientific interest, with researchers examining how concurrent GLP-1 and GIP receptor engagement influences metabolic signaling, body composition, glycemic dynamics, and cardiometabolic markers in preclinical research models.
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GLP1 (SM) is a long-acting incretin-based research peptide investigated for its role in metabolic regulation, energy intake signaling, and body composition. Structurally optimized for extended half-life, it has become one of the most studied compounds in its class, with a research profile spanning glycemic control, weight regulation, cardiovascular function, and neurological pathway activity. Its sustained receptor engagement makes it a preferred model compound for studying GLP-1 receptor-mediated pathways in preclinical research settings.
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GLOW is a precision-formulated peptide blend combining three of the most extensively researched compounds in regenerative science: GHK-Cu, BPC-157, and TB-500. Each component contributes a distinct and complementary mechanism, collectively studied for dermal tissue remodeling, hair follicle signaling, tissue repair pathway activity, and extracellular matrix remodeling in controlled research settings. GLOW is designed for researchers investigating multi-pathway approaches to dermal regeneration and anti-aging signaling biology.
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GHK-Cu is a naturally occurring copper-binding tripeptide, a small three-amino acid molecule first identified in plasma, saliva, and urine research models, where its levels have been observed to decline over time. This pattern has led researchers to investigate its potential role in the biological signaling processes associated with tissue aging, wound repair, and cellular maintenance. It is one of the most studied peptides in dermatological and regenerative research, with a well-established record in the scientific literature spanning several decades.
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Epithalon is a synthetic tetrapeptide, a four-amino acid compound, based on a naturally occurring peptide called epithalamin, which is derived from the pineal gland. It has been studied primarily in the context of aging biology, with research examining its potential to influence telomere length, regulate circadian signaling, and modulate the activity of hormones and growth factors that shift in aging research models. Epithalon is of particular interest to researchers investigating the biological mechanisms of cellular aging, with a notable body of research originating from the St. Petersburg Institute of Bioregulation and Gerontology, where much of the foundational work on this compound was conducted.
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