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Human hair keratins K85 and K35 create unique filament patterns important for early hair formation.

Key genes, including KRT39 and KRT74, influence hair length in Inner Mongolia cashmere goats.

Cactus extract from Notocactus ottonis may help promote hair growth.

High glycine–tyrosine keratin-associated proteins help make hair strong and maintain its shape.

Mouse high-glycine/tyrosine proteins have distinct patterns in hair follicles, peaking at specific hair cycle days.

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

Magra sheep's wool luster is linked to specific keratin gene expression and protein variations.

A new method isolated previously undetected hair proteins rich in glycine and tyrosine.

KAP genes show significant genetic variability, but its impact on hair traits is unclear.

Transgenic sheep embryos with a specific promoter were successfully created, but more research is needed for gene expression in hair follicles.

Hair follicles have unique proteins that vary by species and are influenced by nutrition.

Keratin proteins in hair are complex and come from multiple gene families.

Hydrophobic modifications make human hair less affected by water.

The N gene affects the protein makeup of mouse hair.

Hair is mostly made of three protein types: helical, high-sulfur, and high-tyrosine.

KAP6 genes are conserved across species and active in hair follicles.

The Naked (N) trait in mice is linked to lower glycine and tyrosine in hair proteins.

Young female Australian fur seals are losing hair due to low tyrosine and zinc levels and high pollution exposure.

A second domain of high sulfur KAP genes on chromosome 21q23 is crucial for hair structure.

The B2 genes are crucial for hair growth in rats.

A cluster of sulfur-rich hair protein genes was found on chromosome 17.

Glycine slows main root growth but boosts root hair growth in habanero peppers.

A 1.0% tyrosine diet increases melanin in chicken feathers.

Hair and nail cells share similar proteins, indicating a common differentiation pathway.

Using rodents for research shows that health problems in the womb can cause diseases later in life.

Changing disulfide bonds in human hair affects its melting behavior and thermal stability.

Solid-state NMR can effectively study keratin structure and treatment effects in fur.

Biotin helps regulate proteins in the blood, which may explain its role in hair growth.

Hair analysis can help identify specific minerals and amino acids linked to various diseases.

Curved human hair has different structures on each side, which might cause its shape and is similar to wool.