Nicotinoyl Tripeptide-47 is a synthetic peptide composed of three amino acids, modified by the addition of a nicotinoyl (niacinamide-derived) group. This peptide is primarily used in skincare formulations for its anti-aging and skin-rejuvenating properties. By enhancing cellular communication, it helps improve the skin’s elasticity, smooths fine lines, and promotes a more youthful appearance. The nicotinoyl component further adds antioxidant benefits, protecting the skin from environmental damage.

Chemical Composition and Structure
Nicotinoyl Tripeptide-47 consists of a tripeptide chain (three amino acids) attached to a nicotinoyl group derived from niacinamide (vitamin B3). The combination of peptides with nicotinoyl enhances the skin’s ability to regenerate, supporting collagen production and improving overall skin health. The peptide sequence helps in cellular signaling, contributing to its anti-aging effects.

Physical Properties
Nicotinoyl Tripeptide-47 typically appears as a white or off-white powder, which is soluble in water. It is commonly incorporated into skincare formulations like serums, creams, and gels. The peptide is stable and works well in a variety of pH levels, making it a versatile ingredient in anti-aging and firming skincare products.

Synthetic peptides can be generated as copies of protein fragments by incorporating non-proteinogenic amino acids and modified so as to also increase the proteolytic stability of the molecules. Peptides are used in the development of therapeutic drugs (1) because of their antimicrobial activity (2), their bioactive interest (3).

What it is used for and where

Nicotinoyl Tripeptide-47 is included in cosmetic formulations for its ability to enhance skin condition. This peptide helps to hydrate, nourish, and soften the skin, making it more elastic and visibly smoother. It also contributes to strengthening the skin barrier, protecting the skin from harmful external factors and improving its overall resilience. It is particularly effective in products intended for daily skin care, such as lotions, creams, and serums, where it provides long-lasting benefits by improving the skin texture.

Cosmetics - INCI Functions

• Skin conditioning agent. It is the mainstay of topical skin treatment as it has the function of restoring, increasing or improving skin tolerance to external factors, including melanocyte tolerance. The most important function of the conditioning agent is to prevent skin dehydration, but the subject is rather complex and involves emollients and humectants that can be added in the formulation.

Chemical Industrial Synthesis Process

• Reagent selection. High-quality reagents are selected, including the three amino acids that make up the tripeptide and a nicotinamide derivative, to ensure the efficacy of the final product.
• Solid-phase peptide synthesis (SPPS). Using the SPPS technique, the three amino acids are sequentially assembled starting from the C-terminal amino acid, which is attached to a solid resin.
• Nicotinamide derivative coupling. After synthesizing the peptide chain, the nicotinoyl group is chemically coupled to the N-terminus of the tripeptide. This imparts the peptide with its beneficial properties for the skin.
• Cleavage and deprotection. The peptide is released from the resin and protective groups are removed using an appropriate cleavage mixture.
• Purification. The crude peptide is purified via reverse-phase chromatography to remove impurities and optimize product purity.
• Quality control. Rigorous testing, such as HPLC and mass spectrometry, is conducted to verify the purity, structure, and functionality of the peptide.
• Formulation. Finally, Nicotinoyl Tripeptide-47 is formulated with compatible ingredients in cosmetic products to maximize its effects on skin health.

References_____________________________________________________________________

(1) Myšková A, Sýkora D, Kuneš J, Maletínská L. Lipidization as a tool toward peptide therapeutics. Drug Deliv. 2023 Dec;30(1):2284685. doi: 10.1080/10717544.2023.2284685. 

Abstract. Peptides, as potential therapeutics continue to gain importance in the search for active substances for the treatment of numerous human diseases, some of which are, to this day, incurable. As potential therapeutic drugs, peptides have many favorable chemical and pharmacological properties, starting with their great diversity, through their high affinity for binding to all sort of natural receptors, and ending with the various pathways of their breakdown, which produces nothing but amino acids that are nontoxic to the body. Despite these and other advantages, however, they also have their pitfalls. One of these disadvantages is the very low stability of natural peptides. They have a short half-life and tend to be cleared from the organism very quickly. Their instability in the gastrointestinal tract, makes it impossible to administer peptidic drugs orally. To achieve the best pharmacologic effect, it is desirable to look for ways of modifying peptides that enable the use of these substances as pharmaceuticals. There are many ways to modify peptides. Herein we summarize the approaches that are currently in use, including lipidization, PEGylation, glycosylation and others, focusing on lipidization. We describe how individual types of lipidization are achieved and describe their advantages and drawbacks. Peptide modifications are performed with the goal of reaching a longer half-life, reducing immunogenicity and improving bioavailability. In the case of neuropeptides, lipidization aids their activity in the central nervous system after the peripheral administration. At the end of our review, we summarize all lipidized peptide-based drugs that are currently on the market.

(2) Nguyen HLT, Trujillo-Paez JV, Umehara Y, Yue H, Peng G, Kiatsurayanon C, Chieosilapatham P, Song P, Okumura K, Ogawa H, Ikeda S, Niyonsaba F. Role of Antimicrobial Peptides in Skin Barrier Repair in Individuals with Atopic Dermatitis. Int J Mol Sci. 2020 Oct 14;21(20):7607. doi: 10.3390/ijms21207607.

Abstract. Atopic dermatitis (AD) is a common chronic inflammatory skin disease that exhibits a complex interplay of skin barrier disruption and immune dysregulation. Patients with AD are susceptible to cutaneous infections that may progress to complications, including staphylococcal septicemia. Although most studies have focused on filaggrin mutations, the physical barrier and antimicrobial barrier also play critical roles in the pathogenesis of AD. Within the physical barrier, the stratum corneum and tight junctions play the most important roles. The tight junction barrier is involved in the pathogenesis of AD, as structural and functional defects in tight junctions not only disrupt the physical barrier but also contribute to immunological impairments. Furthermore, antimicrobial peptides, such as LL-37, human b-defensins, and S100A7, improve tight junction barrier function. Recent studies elucidating the pathogenesis of AD have led to the development of barrier repair therapy for skin barrier defects in patients with this disease. This review analyzes the association between skin barrier disruption in patients with AD and antimicrobial peptides to determine the effect of these peptides on skin barrier repair and to consider employing antimicrobial peptides in barrier repair strategies as an additional approach for AD management.

(3) Stephanopoulos N. Peptide-Oligonucleotide Hybrid Molecules for Bioactive Nanomaterials. Bioconjug Chem. 2019 Jul 17;30(7):1915-1922. doi: 10.1021/acs.bioconjchem.9b00259. Epub 2019 May 28. PMID: 31082220.

Abstract. Peptides and oligonucleotides are two of the most interesting molecular platforms for making bioactive materials. Peptides provide bioactivity that can mimic that of proteins, whereas oligonucleotides like DNA can be used as scaffolds to immobilize other molecules with nanoscale precision. In this Topical Review, we discuss covalent conjugates of peptides and DNA for creating bioactive materials that can interface with cells. In particular, we focus on two areas. The first is multivalent presentation of peptides on a DNA scaffold, both linear assemblies and more complex nanostructures. The second is the reversible tuning of the extracellular environment-like ligand presentation, stiffness, and hierarchical morphology-in peptide-DNA biomaterials. These examples highlight the potential for creating highly potent materials with benefits not possible with either molecule alone, and we outline a number of future directions and applications for peptide-DNA conjugates.