Science
Mechanism of Action
This ingredient functions through a biomimetic approach to moisture retention; the anhydroxylitol moiety binds water molecules within the stratum corneum, while the lactate component conditions the skin surface. Simultaneously, its molecular structure acts as a preservative booster, disrupting the metabolic pathways of unwanted microorganisms to enhance the efficacy of the overall formula's antimicrobial system.
Research
Clinical Evidence
Medium confidence1.5%
Key findings
- 01 Clinical evaluations and patent data indicate its primary utility in enhancing formula stability while providing secondary humectant benefits at concentrations between 0.1% and 3.0%.
Transparency
Dusting Analysis
Because it often serves as a preservative booster or stabilizer, it is frequently used at low levels that are technically functional for formula safety, though 1.0% or higher is typically required for noticeable skin conditioning benefits.
The Formula
Formulation
Stability
Highly stable under standard processing; achieves peak antimicrobial efficacy in slightly acidic environments between pH 4.0 and 5.5.
Synergies
- Preservative systems
- Glycerin
- Xylitol derivatives
Conflicts
- Strong oxidizing agents
- High pH environments (above 7.0) which may trigger ester hydrolysis
Safety
Safety Profile
While the specific ester is pending an independent CIR review, its parent components—Lactic Acid and Anhydroxylitol—possess extensive safety profiles with low irritation potential when formulated at appropriate pH levels.
Your Skin
Skin Compatibility
Our Assessment
Verdict
A high-precision multifunctional ingredient that excels at stabilizing clean beauty formulas while contributing to the skin's natural moisturizing factor.
Related
Similar Ingredients
Finding similar ingredients…
References
Sources