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Stretched hair has a similar structure to natural silk, showing hair's elasticity involves reversible changes within its molecules.

Certain small molecules and polymers can change hair's physical properties and how it feels by affecting the bonds within the hair.

The study concluded that a protein important for hair strength is regulated by certain molecular processes and is affected by growth phases.

The 3D structure of a key hair protein was modeled, revealing specific helical structures and stabilization features.

Electrostatic interactions mainly stabilize the binding of peptides to hair keratin.

Recent findings suggest that genetic factors, immune system issues, and skin cell defects might contribute to the development of hidradenitis suppurativa.

Frontal fibrosing alopecia shows increased inflammation and JAK-STAT pathway activity without reduced hair proteins.

Simulations of hair keratin help improve disease treatment and cosmetic products.

Molecular dynamics simulations help understand keratin's properties and predict hair's response to treatments.

KRTAP genes evolved early in mammals, leading to diverse hair traits.

Hard α-keratin has a universal molecular structure with a specific superlattice arrangement.

The KRTAP gene family helps understand hair evolution and hair disorders.

Certain genetic variations in camels affect hair coarseness.

The research helps in creating genetically modified animals to study hair growth.

Mutations in keratin genes cause skin disorders, but new treatments show promise.

Different sizes of keratin peptides can strengthen hair, with smaller ones possibly increasing volume and larger ones repairing damage.

A non-toxic formula using polycarboxylic acids strengthens and improves hair.

Thioglycolic acid mainly affects the unordered areas in hair structure.

The Glu413Lys mutation in keratin affects hair stability, while Glu413Asp does not.

Whn is essential for hair growth, and its malfunction causes hair loss.

Basal-cell epitheliomas and the pilosebaceous tract share a unique keratin, distinguishing them from other skin areas.

Type I and Type II keratin chains can form heterodimers despite sequence differences.

Low-molecular weight hyaluronate can make damaged hair stronger.

The document discusses various skin disorders and new therapeutic approaches.

Scientists successfully created mouse hair proteins in the lab, which are stable and similar to natural hair.

Keratin structure changes during keratinization, but the exact model remains uncertain.

New hair perming method using tyrosine is gentler and can be done with a blow-dryer.