KPV
Product overview
KPV (Lysine–Proline–Valine) is a regulatory tripeptide of synthetic origin, studied in research settings for its role in inflammatory modulation processes, intracellular signaling, and structure–function dynamics in controlled biological systems.
Derived from the C-terminal sequence of α-melanocyte stimulating hormone (α-MSH), KPV retains the regulatory properties associated with the parent molecule, while presenting a minimal structure, high chemical stability, and absence of melanocortin receptor activity.
This 10 mg lyophilized preparation is designed to support reproducible laboratory studies focused on the mechanistic evaluation of cellular pathways and on the comparative modeling of regulatory peptide behavior.
Peptide overview
Scientific interest in KPV developed starting in the 1990s, when research began to identify short bioactive peptide fragments as autonomous functional units capable of modulating specific biochemical pathways without activating complex endocrine systems.
Between 1995 and 2015, KPV was widely used as an experimental model to:
study intracellular inflammatory signaling
analyze the role of tripeptides in immune regulation
evaluate the behavior of sequences derived from longer neuropeptides
From 2015 to 2025, the use of KPV became consolidated in in vitro and preclinical studies focused on the selective modulation of cellular response pathways, with particular attention to peptide transport mechanisms, regulated intracellular communication, and structure–activity relationships.
Historical and scientific context
Early studies on KPV helped demonstrate that the biological activity of α-MSH could be traced back to an extremely short peptide sequence, paving the way for the study of functional minimal peptides.
Throughout the 2000s, KPV was employed as a reference molecule to explore:
inhibition of major intracellular pro-inflammatory pathways
the role of di- and tripeptide transporters (such as PepT1) in cellular distribution
the distinction between surface receptor–mediated signaling and direct intracellular mechanisms
Between 2020 and 2025, KPV continued to be used as a reproducible structural model for the analysis of:
regulated signaling cascades
peptide–cellular environment interactions
comparative behavior of regulatory peptides under standardized experimental conditions
Research focus on mechanisms
Experimental studies on KPV primarily focus on:
Modulation of intracellular inflammatory pathways, including NF-κB and MAP kinase cascades
PepT1-mediated peptide transport and selective uptake in epithelial and immune cells
Structure–function analysis of bioactive tripeptides in controlled in vitro systems
Peptide–signaling interactions independent of melanocortin receptors
Comparative modeling of regulatory peptide behavior relative to longer sequences
These aspects make KPV a particularly useful research tool for the study of fine cellular regulation, without hormonal interference or non-specific systemic activation.
Regulatory note
Research Use Only (RUO)
Not approved for human or veterinary use
Intended exclusively for scientific research and laboratory experimentation
Product info
BAC WATER not included
