Science
Mechanism of Action
This copolymer utilizes cationic amine groups to selectively bond with negatively charged, damaged areas of the skin's surface. Once attached, its hydroxy-siloxane backbone anchors to create a durable, protective 'shield' that mimics the natural hydrophobic state of healthy tissue, significantly reducing transepidermal friction and surface roughness.
Research
Clinical Evidence
High confidence2%
Key findings
- 01 Demonstrated significant reduction in dry friction and improved surface alignment compared to dimethicone benchmarks.
- 02 Proven to restore hydrophobicity to damaged surfaces, providing measurable thermal and environmental protection.
Transparency
Dusting Analysis
While often used for its sensory profile, clinical data indicates that concentrations below 0.3% are unlikely to provide the substantive barrier protection and friction reduction for which this polymer is valued.
The Formula
Formulation
Stability
Highly stable across a broad pH spectrum (3-12), though it performs optimally between pH 4 and 8 for maximum charge density and deposition. It is resistant to yellowing over time.
Synergies
- Sulfate-free surfactants
- Emollient oils
- Conditioning agents
Conflicts
- High concentrations of strong anionic surfactants
- Strong oxidizing agents
Safety
Safety Profile
The high molecular weight of this copolymer prevents systemic absorption through the skin barrier, making it safe for topical application.
Your Skin
Skin Compatibility
Our Assessment
Verdict
A sophisticated conditioning polymer that provides superior surface restoration and friction defense for compromised skin and hair.
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References
Sources