Cosmetic Ingredient
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- • Foam Boosting (161)
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Chemicals as Skincare Ingredients
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Foam Boosting
Polyethylene glycol monomethyl ether mono[3-[methylbis(trimethylsiloxy)silyl]propyl] ether
(27306-78-1)-
Cosmetics Grade / 50%
-
Cosmetics Grade / -
-
- / 99.00%
-
USP / EP / BP / JP Grade / 99.9%
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N-(2-Hydroxyethyl)acetamide
(142-26-7)-
-
- / 99%
-
pharmaceutical grade / 99%
-
Industrial Grade / 98%
$1/KG EXW
Request for quotation , get quotes from more suppliers.
-
- / 99.00%
-
Pharmaceutical Grade / 99%
-
USP / EP / BP / JP Grade / 99.9%
-
industrial Grade / 98%
Request for quotation , get quotes from more suppliers.
Sodium decyl sulfate
(142-87-0)-
- / 99.00%
-
Pharmaceutical Grade / 99%
-
industrial Grade / 98%
-
pharmaceutical grade / 99%
Request for quotation , get quotes from more suppliers.
-
industrial Grade / 98%
-
Pharmaceutical Grade / 99%
-
Industrial Grade / 50%
-
Industrial Grade / 99.0%
Request for quotation , get quotes from more suppliers.
-
Cosmetics Grade / 50%
-
Cosmetics Grade / 99%
$1/KG EXW
-
- / 99%
-
Pharmaceutical Grade / 99%
Request for quotation , get quotes from more suppliers.
Butanedioic acid, 2-sulfo-, 4-[2-[2-[2-(dodecyloxy)ethoxy]ethoxy]ethyl] ester, sodium salt (1:2)
(40754-59-4)-
Industrial Grade / -
-
-
40%/30% / -
-
Pharmaceutical Grade / 99%
Request for quotation , get quotes from more suppliers.
-
Cosmetics Grade / 99%
$1/KG EXW
-
- / 0.00%
-
industrial Grade / 98%
-
Industrial Grade / 99%
Request for quotation , get quotes from more suppliers.
Amine oxides, cocoalkyldimethyl
(61788-90-7)-
Industrial Grade / 98%
-
- / 99.00%
-
Industrial Grade / 98%
-
- / 30%
Request for quotation , get quotes from more suppliers.
-
- / 99.00%
-
industrial Grade / 98%
-
-
Industrial Grade / 99%
Request for quotation , get quotes from more suppliers.
More Information
foam boosting are substances that create pores in the material they are applied to. Chemical foam boosting is compounds that, upon heating, decompose to release gases such as carbon dioxide and nitrogen, forming fine pores within the polymer matrix.
foam boosting typically exhibits high surface activity, effectively reducing the surface tension of liquids. They arrange themselves at the liquid film surface with a bilayer structure, surrounding air to form bubbles, which then combine to create foam.
Foaming agent application:
•Foaming cleansers
•Shaving creams
•Facial cleansers
•Body washes
•Bubble bath products
Frequently Asked Questions
Foam boosting refers to the process of enhancing the volume, stability, and texture of foam in personal care and cleaning products by using specific surfactants or additives. These foam boosters—often amphoteric or nonionic surfactants like cocamidopropyl betaine or lauryl glucoside—work by reducing surface tension and stabilizing air bubbles within the liquid matrix. This results in richer, longer-lasting lather that improves user experience and product efficacy.
Foam boosting plays a critical role in consumer perception and product performance. While foam itself doesn’t directly correlate with cleaning power, consumers often associate rich, stable lather with effectiveness and quality. In shampoos and body washes, foam boosters enhance sensory appeal, improve spreadability, and help distribute active ingredients evenly across the skin or hair. Additionally, well-structured foam can trap dirt and oil more effectively during rinsing.
Common foam-boosting ingredients include cocamidopropyl betaine, sodium lauroyl sarcosinate, decyl glucoside, and lauryl glucoside. These mild surfactants not only increase foam volume but also improve foam stability and creaminess. They are often combined with primary anionic surfactants like sodium lauryl sulfate (SLS) or sodium laureth sulfate (SLES) to balance cleansing power with skin compatibility. Choosing the right blend depends on formulation goals, such as mildness, biodegradability, or sulfate-free claims.
Yes, foam boosters are essential in sulfate-free formulations to compensate for the lower foaming ability of alternative surfactants like glucosides or amino acid-based cleansers. Ingredients such as cocamidopropyl betaine and sodium cocoyl isethionate are frequently used to enhance lather without sulfates. These boosters help maintain consumer satisfaction by delivering a luxurious foam experience while meeting clean-label or sensitive-skin requirements.
Selecting the right foam booster depends on several factors: the base surfactant system, desired foam characteristics (e.g., dense vs. airy), skin feel, pH compatibility, and regulatory compliance. For example, cocamidopropyl betaine works well across a wide pH range and pairs effectively with both anionic and nonionic surfactants. If formulating for sensitive skin, opt for mild, biodegradable boosters like lauryl glucoside. Always conduct compatibility and performance testing to ensure optimal foam quality and stability in the final product.