Decyl Glucoside
Decyl Glucoside 30%
Decyl Glucoside 30%Â
Decyl Glucoside 30% is a mild, nonionic surfactant derived from renewable plant-based raw materials. It is produced through the condensation of decyl alcohol, typically sourced from coconut or palm kernel oil, with glucose derived from corn or other plant sugars. The result is an alkyl polyglucoside surfactant supplied as an approximately 30% active aqueous solution, offering excellent cleansing performance with high skin and eye tolerance. The manufacturing process does not involve ethoxylation, sulfation, or petrochemical modification, supporting its use in clean and natural-leaning cosmetic formulations.
Polysorbate 20
Polysorbate 20 — Summary
Polysorbate 20 is a nonionic surfactant and emulsifier derived from sorbitol and fatty acids, typically sourced from renewable vegetable oils such as coconut or palm. It is produced through controlled ethoxylation of sorbitan esters, resulting in a water-soluble, mild, and effective solubilizing agent.
In cosmetics and skincare, Polysorbate 20 is used primarily as a solubilizer and emulsifier. It helps disperse essential oils, fragrances, and other lipophilic actives in water-based formulations while stabilizing emulsions and enhancing clarity. It is commonly found in creams, lotions, serums, tonics, and rinse-off products, supporting smooth texture, uniform appearance, and product stability.
Sodium Cocoyl Isethionate
Sodium Lauryl Sulfate 35%
Sodium Lauryl Sulfate 35% — Summary
Sodium Lauryl Sulfate 35% is an anionic surfactant derived from lauryl alcohol, typically sourced from coconut or palm kernel oil, and converted into a water-soluble cleansing agent through sulfation and neutralization. It is supplied as a 35% active aqueous solution and is valued for its high detergency and foaming performance.
In cosmetics and skincare, Sodium Lauryl Sulfate 35% is used primarily as a cleansing and foaming agent in rinse-off products such as shampoos, body washes, facial cleansers, hand soaps, and toothpastes. It effectively removes oils, dirt, and impurities while contributing rich, fast-forming foam. Due to its strong cleansing action, it is most often formulated alongside milder surfactants to improve skin feel and reduce irritation, making it suitable for conventional and performance-driven cleansing systems.
Technical & Clean Standards Overview: Surfactants
Technical Definition & Functional Role
Surfactants (surface-active agents) are functional ingredients that reduce surface and interfacial tension between immiscible phases such as oil and water. Their amphiphilic molecular structure—comprising both hydrophilic and lipophilic segments—enables key formulation functions including cleansing, emulsification, solubilization, foaming, wetting, and dispersion.
In personal care and cosmetic formulations, surfactants are essential for effective soil and sebum removal, emulsion stability, controlled foam generation, improved rinseability, and overall product performance and sensorial attributes.
Surfactant Classification
Surfactants are commonly classified according to the ionic character of their hydrophilic head group:
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Nonionic Surfactants
No ionic charge; valued for broad formulation compatibility, pH stability, and mildness. Frequently used in gentle cleansers, solubilizers, and emulsified systems. -
Anionic Surfactants
Negatively charged; highly effective primary cleansers and foam generators. Often combined with secondary surfactants to optimize mildness. -
Amphoteric (Zwitterionic) Surfactants
Charge varies with pH; widely used to reduce irritation, enhance foam quality, and improve skin compatibility in surfactant systems. -
Cationic Surfactants
Positively charged; primarily used for conditioning, antistatic, and antimicrobial functions rather than primary cleansing.
Clean Standards & Safety Profile
Under modern Clean Standards frameworks, surfactants are evaluated beyond performance, with emphasis on toxicological safety, environmental impact, and regulatory compliance.
Clean-aligned surfactants typically demonstrate:
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Favorable safety profiles, with low acute toxicity and controlled irritation potential when used within established limits
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Exclusion of high-risk impurities, such as unacceptable levels of 1,4-dioxane, residual solvents, or heavy metals
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Biodegradability and reduced aquatic toxicity, supporting environmental responsibility goals
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Suitability for sensitive skin applications, often supported by historical use data, in-vitro testing, or finished-formula assessments
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Compliance with global cosmetic regulations, including U.S. and EU cosmetic safety requirements
Many Clean Standards reference third-party hazard and safety screening methodologies to assess surfactants for carcinogenicity, reproductive toxicity, endocrine disruption potential, and environmental persistence.
Typical Usage Levels
Surfactant usage levels vary depending on surfactant class, formulation type, and desired performance:
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Primary Cleansers (rinse-off products):
~5–30% total active surfactant matter (ASM), depending on product type and mildness goals -
Secondary / Co-Surfactants:
~1–10%, used to enhance foam quality, reduce irritation, or improve skin feel -
Nonionic Solubilizers (leave-on or fragrance systems):
~0.1–5%, depending on solubilization requirements -
Amphoteric Surfactants (mildness boosters):
~2–10%, commonly paired with anionic surfactants
Actual use levels are formulation-dependent and are validated through stability testing, safety assessment, and performance evaluation in the finished product.
Formulation & Clean Label Considerations
Clean formulations frequently employ surfactant systems rather than single surfactants, leveraging synergistic blends to achieve effective cleansing while minimizing irritation potential. Selection criteria often include renewable feedstock sourcing, manufacturing transparency, and alignment with retailer-specific Clean Standards.
When used within recommended concentrations, Clean-compliant surfactants support product claims related to gentleness, responsible formulation, and consumer safety—without compromising functional efficacy.