{"id":2154,"date":"2026-10-09T22:20:46","date_gmt":"2026-10-09T14:20:46","guid":{"rendered":"http:\/\/www.puriactives.com\/en\/?p=2154"},"modified":"2026-10-09T22:20:46","modified_gmt":"2026-10-09T14:20:46","slug":"puriactives-supracaffix","status":"publish","type":"post","link":"http:\/\/www.puriactives.com\/en\/?p=2154","title":{"rendered":"PuriActives\u00ae SupraCaffix™"},"content":{"rendered":"

01 \u00b7 PuriActives\u00ae SupraCaffix™: Supramolecular Caffeic Acid<\/h2>\n

PuriPharm Active Platform. Caffeic acid enters the supramolecular era.<\/p>\n

Supramolecular antioxidant intelligence for skin and scalp.<\/p>\n

INCI name: Caffeic Acid. Caffeic Acid \u00d7 Zinc PCA \u00d7 Xyloglucan \u00d7 Alpha-Glucan Oligosaccharide: a multicomponent supramolecular active system.<\/p>\n

PuriPharm Co. Ltd.<\/p>\n

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02 \u00b7 One Ingredient, Five Skin and Scalp Care Pathways<\/h2>\n

01 Antioxidant: catechol-driven radical scavenging and oxidative cascade management.<\/p>\n

02 Photoaging: modulation of ROS\u2013MMP-related signals and support for structural protein protection.<\/p>\n

03 Clarity: antioxidant, cellular signaling, and melanogenesis pathways for more even-looking skin.<\/p>\n

04 Balance: Zinc PCA supports sebum balance, skin comfort, and scalp freshness.<\/p>\n

05 Microbiome: prebiotic care supports beneficial microbial ecology and skin\/scalp balance.<\/p>\n

SupraCaffix™ is a supramolecular composite active platform for multiple skin and scalp applications.<\/p>\n

03 \u00b7 Combined Environmental Stress on Modern Skin and Scalp<\/h2>\n

Skin: UV- and visible-light-related oxidative stress, urban pollution and particle deposition, sebum oxidation and recurring shine, a fragile barrier and discomfort, and dull or uneven tone.<\/p>\n

Scalp: oiliness, odor, visible flakes and discomfort, oxidized sebum and a greasy appearance, microbiome fluctuations with frequent cleansing, and increased oxidative stress around follicles.<\/p>\n

An integrated active system addresses oxidation, sebum, the barrier, and microbial ecology.<\/p>\n

04 \u00b7 Caffeic Acid: A Compact, Reactive Natural Hydroxycinnamic Acid<\/h2>\n

Chemical name: 3,4-Dihydroxycinnamic Acid. Molecular formula: C9H8O4.<\/p>\n

Structural features: a catechol group, conjugated double bond, and carboxylic acid. Naturally occurs in plants, coffee, propolis, and plant metabolites.<\/p>\n

Caffeic Acid and Caffeine are entirely different molecules.<\/p>\n

The catechol group participates in electron or hydrogen-atom transfer, supporting radical scavenging, termination of oxidative chain reactions, and metal-ion interactions.<\/p>\n

Source: structure drawn from public chemical data, PubChem\u2014Caffeic Acid.<\/p>\n

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05 \u00b7 Formulation Barriers Behind the Activity<\/h2>\n

1 Limited aqueous solubility and dispersion: low solubility in pure water limits high-loading aqueous formulations.<\/p>\n

2 Sensitivity to light, oxygen, and formulation conditions: free caffeic acid can degrade rapidly under light.<\/p>\n

3 Color changes after oxidation: phenolic oxidation can affect appearance stability.<\/p>\n

4 Limited distribution and availability in complex emulsions: micelle, gel, and microparticle delivery research addresses this need.<\/p>\n

5 Skin and follicular contact requires optimization: distribution and follicular deposition depend on delivery design.<\/p>\n

Literature solubility data: in vitro measurements (n = 3, mean \u00b1 SD) show solubility below 1 mg\/mL in pure water, markedly lower than in 30% ethanol. Aqueous use requires systematic solubilization and protection.<\/p>\n

The technical objective is a molecular microenvironment better suited to cosmetic use.<\/p>\n

Sources: Jokubaite et al. Gels. 2024;10(12):794; Mazzotta et al. Molecules. 2024;29(14):3329; dos Santos et al. Saudi Pharm J. 2019;27:791\u2013797.<\/p>\n

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06 \u00b7 Four Components, One Integrated System<\/h2>\n

Caffeic Acid, antioxidant core: radical scavenging, photoaging defense, even-looking tone, and a research basis for sebum\/blemish care.<\/p>\n

Zinc PCA, balance core: sebum management, skin comfort, a research basis for MMP-1\/collagen protection, and scalp freshness.<\/p>\n

Xyloglucan, interface core: polysaccharide film formation, a hydrated interface, contact with skin\/hair surfaces, and comfortable sensory properties.<\/p>\n

Alpha-Glucan Oligosaccharide, microbiome core: prebiotic design, beneficial microbial ecology, and skin\/scalp balance.<\/p>\n

The presentation describes a dynamic, multisite composite system formed through noncovalent supramolecular interactions.<\/p>\n

07 \u00b7 From Four Components to a Dynamic Microenvironment<\/h2>\n

Hydrogen bonding: caffeic acid phenolic hydroxyls and polysaccharide hydroxyls.<\/p>\n

Dynamic coordination\/ionic interactions: caffeic acid carboxyl and phenolic hydroxyl groups with Zn\u00b2\u207a.<\/p>\n

\u03c0\u2013\u03c0 interactions: caffeic acid aromatic rings.<\/p>\n

Chain entanglement and multipoint binding: the Xyloglucan polymer network.<\/p>\n

Hydrophilic microenvironment: Alpha-Glucan Oligosaccharide contributes.<\/p>\n

Dynamic self-assembly: multicomponent noncovalent assembly.<\/p>\n

The schematic represents an irregular, dynamic, multipoint molecular network, rather than a regular liposome or nanosphere. Reversible interactions incorporate active small molecules into a hydrophilic polysaccharide\/zinc network.<\/p>\n

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08 \u00b7 Reducing Practical Barriers to Caffeic Acid<\/h2>\n

Disperse: supports aqueous use and dispersion in toners, gels, and other water-based formats.<\/p>\n

Protect: a protective environment aims to reduce direct exposure to light, oxygen, and environmental factors.<\/p>\n

Interface: polysaccharide networks support contact with skin, scalp, and hair surfaces.<\/p>\n

Multifunction: combines antioxidant, sebum, barrier, and microbiome care concepts.<\/p>\n

Literature accelerated-light experiment: free caffeic acid solutions (CA 5\u201330 \u03bcg\/mL) degraded substantially over 20\u2013120 min, while polymeric micelles MC10CA\/MC20CA largely retained initial concentrations through 120 min. These carrier findings support protective-environment design and are not direct SupraCaffix™ test results.<\/p>\n

Source: Mazzotta et al. Formulation of Polymeric Micelles to Increase the Solubility and Photostability of Caffeic Acid. Molecules. 2024;29(14):3329.<\/p>\n

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09 \u00b7 Catechol-Driven Antioxidant Defense<\/h2>\n

Pathway: UV\/pollution\/environmental stress increases ROS and radicals, lipid peroxidation, NF-\u03baB\/AP-1 inflammatory signaling, and damage to proteins, lipids, and cellular structures. The diagram marks CA intervention at multiple points.<\/p>\n

Caffeic acid scavenges radicals, terminates oxidative chain reactions, donates electrons or hydrogen atoms, reduces lipid peroxidation pressure, and modulates oxidative-stress-related NF-\u03baB\/AP-1 signals.<\/p>\n

Literature mouse skin model with UVB 150 mJ\/cm\u00b2: caffeic acid at 5 and 20 \u03bcM reduced ROS and ONOO\u207b generation in a concentration-dependent manner. Figure symbols: ##\/### vs control; *\/**\/*** vs UVB.<\/p>\n

Source: Kim et al. Anti-Wrinkle and Anti-Inflammatory Effects of Active Garlic Components and the Inhibition of MMPs via NF-\u03baB Signaling. PLoS ONE. 2013;8(9):e73877.<\/p>\n

The concept extends from radical scavenging to oxidative cascade management.<\/p>\n

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10 \u00b7 From ROS to MMPs: Photoaging Defense<\/h2>\n

Pathway: UVB\/UVA or environmental stress increases ROS, activates NF-\u03baB\/AP-1, increases MMP expression, and promotes collagen degradation, associated with visible fine lines, laxity, and roughness. CA and Zn\u00b2\u207a interventions are shown schematically.<\/p>\n

Caffeic acid research: protection of UVB-treated human fibroblasts, reduced oxidative stress, supported viability, and modulation of MMP-related photoaging signals.<\/p>\n

Zinc PCA research: inhibition of UVA-induced AP-1 activation, reduced MMP-1 production, and supported type I collagen synthesis.<\/p>\n

Literature skin-replica images: caffeic acid 5 \u03bcM reduced wrinkle formation compared with UVB 150 mJ\/cm\u00b2.<\/p>\n

Sources: Jeon et al. J Food Biochem. 2019;43:e12701; Takino et al. Int J Cosmet Sci. 2012;34(1):23\u201328; Kim et al. PLoS ONE. 2013;8(9):e73877.<\/p>\n

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11 \u00b7 Caffeic Acid \u00d7 Zinc PCA: Structural Protein Protection<\/h2>\n

Caffeic acid: antioxidant reduction of upstream ROS stress, NF-\u03baB\/AP-1 modulation, reduced MMP-related collagen damage, and support for post-light cellular homeostasis.<\/p>\n

Zinc PCA: UVA-related MMP-1 modulation, a supportive collagen-synthesis environment, and zinc involvement in skin enzymes and cellular defense.<\/p>\n

Literature Masson trichrome images of UVB-exposed mouse skin (collagen blue): A, no-UVB control; B, UVB 150 mJ\/cm\u00b2; C and D, UVB plus caffeic acid 5\/20 \u03bcM. Collagen fibers were better preserved with caffeic acid (Kim 2013).<\/p>\n

The combined design links oxidative\/inflammatory signal management with collagen protection and cellular homeostasis.<\/p>\n

Sources: Kim 2013; Takino 2012.<\/p>\n

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12 \u00b7 Skin Tone Clarity Beyond a Single Tyrosinase Pathway<\/h2>\n

The concept addresses oxidative pressure and pigmentation, post-inflammatory uneven tone, and UV-related pigment signaling. The diagram links CA, MITF, and TYR\/melanogenesis.<\/p>\n

Caffeic acid supports a multidimensional concept through antioxidant activity, cellular signaling, and melanogenesis-related pathways.<\/p>\n

01 Antioxidant pathway: less oxidative pressure on pigment signals.<\/p>\n

02 Cellular signaling: modulation of MITF-related transcription.<\/p>\n

03 Melanogenesis: regulation observed in B16 cells.<\/p>\n

Literature B16 melanoma cell model: caffeic acid 0.15 mM significantly reduced melanin (*** vs PBS). Reference groups were ferulic acid 0.31 mM (**) and hydroquinone 0.018 mM (*).<\/p>\n

Concept: reduce sources of dullness for clearer, more even-looking radiance.<\/p>\n

Source: Maruyama et al. Biol Pharm Bull. 2018;41(5):806\u2013810.<\/p>\n

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13 \u00b7 Managing Sebum Oxidation and Visible Blemishes<\/h2>\n

Pathway: excess sebum, sebum oxidation, shine\/pores\/unstable skin condition, and visible blemishes\/redness.<\/p>\n

Caffeic acid: patent research on sebocytes, acne-associated microorganisms, and pro-inflammatory factors. Zinc PCA: oily skin\/scalp use and sebum balance. Polyphenol antioxidants: reduced sebum oxidation pressure. Alpha-Glucan Oligosaccharide: microbiome-friendly balance.<\/p>\n

Cosmetic language: shine management, fresh-feeling pores, care for recurring blemish-prone skin, visible redness\/discomfort management, and a clear skin feel. Therapeutic claims are excluded.<\/p>\n

The concept manages sebum oxidation and skin fluctuations.<\/p>\n

Source: KR101409111B1. Composition for treating or preventing acne comprising caffeic acid or its derivative as an active ingredient. Published 2014 (patent title).<\/p>\n

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14 \u00b7 Zinc PCA: More Than Sebum Management<\/h2>\n

Sebum: balanced sebum and a fresh skin feel. Photoaging: modulation of UVA-induced AP-1\/MMP-1. Collagen: support for type I collagen synthesis. Scalp: oily or stuffy scalp requiring freshness.<\/p>\n

Mechanism schematic from in vitro human dermal fibroblasts (Takino 2012): UVA activates AP-1; Zinc PCA inhibits this pathway, reducing MMP-1 and collagen-degradation pressure. The study also observed increased type I collagen synthesis. Original numerical data should be consulted in the paper.<\/p>\n

SupraCaffix™ assigns Zinc PCA roles in sebum balance, photoaging defense, and scalp freshness.<\/p>\n

Source: Takino et al. Zinc L-pyrrolidone carboxylate inhibits the UVA-induced production of matrix metalloproteinase-1 by in vitro cultured skin fibroblasts, whereas it enhances their collagen synthesis. Int J Cosmet Sci. 2012;34(1):23\u201328.<\/p>\n

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15 \u00b7 Xyloglucan: A Light, Flexible Polysaccharide Interface<\/h2>\n

A plant-derived hydrophilic polysaccharide with multipoint hydrogen bonding and chain entanglement. It supports a flexible continuous surface film, contact with skin\/scalp\/hair, hydration, smoothness, and comfort, while organizing the structural network and interface.<\/p>\n

The open-access repeating-unit image shows backbone and side chains underlying hydrogen bonding and entanglement. Mucosal models support barrier protection and adhesion concepts, which do not directly establish human skin efficacy.<\/p>\n

Concept: natural active residence and a gentler skin\/hair feel.<\/p>\n

Source: Piqu\u00e9, G\u00f3mez-Guill\u00e9n, Montero. Int J Mol Sci. 2018;19(3):673.<\/p>\n

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16 \u00b7 Alpha-Glucan Oligosaccharide: Supporting Microbial Ecology<\/h2>\n

A prebiotic oligosaccharide supports beneficial microorganisms through selective nutrition. It suits skin\/scalp care under frequent cleansing, sebum fluctuations, and environmental stress.<\/p>\n

The design supports modern microbiome care and concepts of barrier comfort, microbial balance, and reduced recurring fluctuations.<\/p>\n

The schematic expresses diversity, balance, and barrier comfort as an ecological network, without representing a specific species profile.<\/p>\n

Source: Phan et al. Topical Prebiotics and Microbiome Metabolites\u2014A Systematic Review of the Effects of Altering the Skin Microbiome. J Integr Dermatol.<\/p>\n

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17 \u00b7 Integrated Mechanism: Defense, Balance, Barrier, and Microbiome<\/h2>\n

01 Defend: caffeic acid manages ROS, lipid oxidation, and photoaging signals.<\/p>\n

02 Balance: Zinc PCA supports sebum balance, collagen protection, and scalp freshness.<\/p>\n

03 Shield: Xyloglucan establishes a light hydrated film and flexible contact interface.<\/p>\n

04 Rebalance: Alpha-Glucan Oligosaccharide supports a microbiome-friendly skin\/scalp environment.<\/p>\n

The platform integrates active phenolic acid, zinc homeostasis, polysaccharide protection, and prebiotic concepts. These complementary design roles do not by themselves verify product-level synergy.<\/p>\n

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18 \u00b7 Skincare Application Map<\/h2>\n

Daytime antioxidant serum; nighttime recovery serum; urban environmental-stress care; photoaging-defense lotion; brightening\/even-tone serum; oily\/combination skin care; post-blemish tone care; sensitive oily skin balance; fresh-feeling pore serum; microbiome-friendly cream; and body roughness\/pigmentation care.<\/p>\n

One platform supports antioxidant, even-tone, sebum, barrier, and microbiome development pathways.<\/p>\n

19 \u00b7 Scalp Care: Antioxidant, Sebum, and Microbiome Management<\/h2>\n

Scalp chain: increased sebum, oxidation, microbiome fluctuations, odor\/stuffiness\/visible flakes\/discomfort, and increased stress around follicles.<\/p>\n

Corresponding roles: caffeic acid for antioxidant\/sebum oxidation management; Zinc PCA for balance\/freshness; Xyloglucan for a comfortable hydrated film; Alpha-Glucan Oligosaccharide for microbiome-friendly care.<\/p>\n

Key message: extend cleansing into scalp ecological management.<\/p>\n

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20 \u00b7 Follicle and Root Care: An Antioxidant Interface Design<\/h2>\n

Follicles are skin appendages and local interfaces for actives. Caffeic acid microparticle research shows that carrier design can increase follicular deposition. Oxidative stress relates to follicular cellular homeostasis and the hair-cycle environment. Propolis research associated with caffeic acid observed hair-matrix keratinocyte proliferation and anagen-related phenomena.<\/p>\n

Positioning: support a follicular vitality environment, healthy-looking roots, and scalp antioxidant care in scalp serums\/root-care products.<\/p>\n

Differential stripping data: microparticle formulations deposited more caffeic acid in follicles and epidermis\/dermis than free caffeic acid.<\/p>\n

S1\u2013S20 stratum-corneum fractions and epidermis\/dermis distribution: carrier formulations significantly increased retention in epidermal\/dermal layers. These are published carrier results, not direct SupraCaffix™ delivery measurements.<\/p>\n

Sources: dos Santos et al. Saudi Pharm J. 2019;27:791\u2013797; Miyata et al. J Agric Food Chem. 2014 (Brazilian propolis study).<\/p>\n

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21 \u00b7 Hair Fiber Care: Polyphenols and Polysaccharide Films<\/h2>\n

Sunlight, heat styling, coloring\/perming, and pollution can increase oxidative stress and roughness. Caffeic acid provides an antioxidant concept; Xyloglucan supplies a light flexible surface film.<\/p>\n

Formulation concepts address dryness, frizz, combability, and shine, including leave-on care, scalp\/hair dual serums, and pollution-protection sprays.<\/p>\n

Suggested formats: 01 leave-on spray; 02 hair antioxidant serum; 03 post-color care; 04 heat-damage care; 05 dual scalp\/hair serum; 06 light conditioner\/mask.<\/p>\n

One platform supports integrated scalp-to-hair care.<\/p>\n

Source: Effects of Natural Polyphenols on Skin and Hair Health\u2014A Review. 2022 (background review).<\/p>\n

22 \u00b7 One Platform, Multiple Formats<\/h2>\n

01 Antioxidant water\/toner. 02 Water-based antioxidant serum. 03 Even-tone serum emulsion. 04 Sebum-balancing gel serum. 05 Microbiome-friendly lotion. 06 Scalp serum\/tonic. 07 Fresh-feeling sebum-care shampoo. 08 Leave-on hair spray.<\/p>\n

Combination directions: Niacinamide, Panthenol, Ectoin, Hyaluronic Acid, Ceramides, Amino Acids, Tocopherol, Ferulic Acid (combined polyphenol antioxidant concept), and Caffeine (scalp products, distinct from Caffeic Acid).<\/p>\n

Actual compatibility and stability testing are required. These directions do not imply complete compatibility.<\/p>\n

23 \u00b7 Formulator\u2019s Technical Guidance<\/h2>\n

Addition: preferably at a lower-temperature stage, avoiding prolonged heat. Consult PuriPharm technical documentation for exact temperature.<\/p>\n

pH: consider mildly acidic to near-neutral systems and avoid prolonged distinctly alkaline conditions. Consult product stability information for the applicable range.<\/p>\n

Formats: evaluate aqueous products, serums, gels, lotions, scalp tonics, and shampoos; adjust dispersion and addition processes accordingly.<\/p>\n

Stability: reduce prolonged strong-light\/air exposure, consider light-protective\/low-oxygen-permeability packaging, assess antioxidant\/preservative compatibility, and avoid strong oxidants.<\/p>\n

Metals and chelators: the product contains Zinc PCA. High levels of strong chelators may affect zinc-related interactions; EDTA use requires formulation testing.<\/p>\n

Exact temperature, pH range, and recommended use level follow PuriPharm Co. Ltd. TDS. No unconfirmed fixed values are provided.<\/p>\n

24 \u00b7 References<\/h2>\n

The complete references and molecular-structure source from the presentation are retained below.<\/p>\n

1 Jeon J, et al. Protective activity of caffeic acid and sinapic acid against UVB-induced photoaging in human fibroblasts. J Food Biochem. 2019;43:e12701. DOI: 10.1111\/jfbc.12701.<\/p>\n

2 Takino Y, et al. Zinc L-pyrrolidone carboxylate inhibits the UVA-induced production of matrix metalloproteinase-1 by in vitro cultured skin fibroblasts, whereas it enhances their collagen synthesis. Int J Cosmet Sci. 2012;34(1):23\u201328. DOI: 10.1111\/j.1468-2494.2011.00676.x.<\/p>\n

3 dos Santos LCO, et al. Caffeic acid skin absorption: Delivery of microparticles to hair follicles. Saudi Pharm J. 2019;27:791\u2013797. DOI: 10.1016\/j.jsps.2019.04.015.<\/p>\n

4 Maruyama H, Kawakami F, Lwin TT, Imai M, Shamsa F. Biochemical Characterization of Ferulic Acid and Caffeic Acid Which Effectively Inhibit Melanin Synthesis via Different Mechanisms in B16 Melanoma Cells. Biol Pharm Bull. 2018;41(5):806\u2013810. DOI: 10.1248\/bpb.b17-00892.<\/p>\n

5 Kim SR, et al. Anti-Wrinkle and Anti-Inflammatory Effects of Active Garlic Components and the Inhibition of MMPs via NF-\u03baB Signaling. PLoS ONE. 2013;8(9):e73877. DOI: 10.1371\/journal.pone.0073877.<\/p>\n

6 Miyata S, et al. Stimulatory Effect of Brazilian Propolis on Hair Growth through Proliferation of Keratinocytes in Mice. J Agric Food Chem. 2014. DOI: 10.1021\/jf503184s.<\/p>\n

7 Mazzotta E, et al. Formulation of Polymeric Micelles to Increase the Solubility and Photostability of Caffeic Acid. Molecules. 2024;29(14):3329. DOI: 10.3390\/molecules29143329.<\/p>\n

8 Jokubaite M, et al. Potential Unlocking of Biological Activity of Caffeic Acid by Incorporation into Hydrophilic Gels. Gels. 2024;10(12):794.<\/p>\n

9 Piqu\u00e9 N, G\u00f3mez-Guill\u00e9n MC, Montero MP. Xyloglucan, a Plant Polymer with Barrier Protective Properties over the Mucous Membranes: An Overview. Int J Mol Sci. 2018;19(3):673. DOI: 10.3390\/ijms19030673.<\/p>\n

10 Phan S, et al. Topical Prebiotics and Microbiome Metabolites: A Systematic Review of the Effects of Altering the Skin Microbiome. J Integr Dermatol. DOI: 10.64550\/joid.d9xw9z64.<\/p>\n

11 Effects of Natural Polyphenols on Skin and Hair Health: A Review. 2022.<\/p>\n

12 Korean Patent KR101409111B1. Composition for treating or preventing acne comprising caffeic acid or its derivative as an active ingredient. Published 2014.<\/p>\n

\u5206\u5b50\u7ed3\u6784\u53c2\u8003\uff1aPubChem, Caffeic Acid\uff08\u516c\u5f00\u5316\u5b66\u6570\u636e\uff09\u3002<\/p>\n

25 \u00b7 Built on Published Science, Designed for Modern Formulation<\/h2>\n

Evidence pyramid: patent evidence for caffeic acid sebum\/blemish\/cosmetic applications; delivery\/formulation science on caffeic acid and follicles; ingredient science on Caffeic Acid, Zinc PCA, Xyloglucan, and Alpha-Glucan Oligosaccharide; and a product-specific physicochemical, stability, and efficacy data framework for SupraCaffix™.<\/p>\n

The final category is presented as a data framework: this deck does not supply numerical product-specific validation. Published ingredient\/carrier results should retain their original attribution.<\/p>\n

Caffeic acid supplies the antioxidant core, Zinc PCA supports balance, Xyloglucan creates a flexible interface, and Alpha-Glucan Oligosaccharide connects microbiome care. From facial antioxidant care to scalp balance, the platform supports multifunctional formulation development.<\/p>\n

PuriPharm Co. Ltd.<\/p>\n

\"\"\"\"<\/p>\n","protected":false},"excerpt":{"rendered":"

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