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Different types of cells in the eye express specific keratins at various stages of development.

Researchers found a new gene, hacl-1, that is active in mouse hair follicles during hair growth and may be important for hair biology.

Human hair keratin genes are similar to mouse genes and are specifically expressed in hair follicles.

Hair's strength and flexibility come from its protein structure and molecular interactions.

Thioglycolic acid and L-cysteine change hair structure differently during perms, affecting hair strength and curling efficiency.

Hair keratins evolved from ancient proteins, diversifying through gene changes, crucial for forming claws and later hair in mammals.

Antler velvet hair and body hair of red deer have different structures that help with protection and insulation.

Recombinant keratins can form useful structures for medical applications, overcoming natural keratin limitations.

Different conditions affect how hair proteins assemble, and certain mutations can change their structure.

Different combinations of human hair keratins affect how hair fibers form.

Researchers identified key genes and proteins linked to wool growth in sheep.

Human hair keratins can form stable nanofiber networks that might help in tissue regeneration.

Yak belly hair has higher porosity and is less stiff than human hair, making it absorb dye better but less suitable as a direct substitute for hair dyeing.

CD2 might be a new treatment target for patchy alopecia areata.

Curved human hair has different structures on its convex and concave sides.

Recombinant keratin materials may better promote skin cell differentiation than natural keratin.

Washing permed hair after using thioglycolic acid helps reform strong bonds, making hair stronger.

Beautiful hair is flexible and elastic due to its unique double-layered structure and can be enhanced with succinic acid treatment.

The analysis found genes linked to skin and hair development are more active in Pashmina goats, which may explain their long-fiber production.

Permanent wave treatment with thioglycolic acid changes hair structure by altering disulfide bonds.

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

The technique showed that human hair has two main parts, with 68% being rigid and the rest flexible, and water swelling affects its structure.

A specific hair protein variant increases the spread of breast cancer and is linked to worse survival rates.

Radiation therapy in breast cancer patients changes gene expression related to DNA damage, fibroblast growth, and hair follicle development, which could help improve treatment for radiation-induced fibrosis.

Disulfide bonds affect the melting behavior of hair's crystalline structure, but hair retains some stability even after these bonds are broken.

Human hair can almost fully recover its structure within about 1,000 minutes after being stretched.

Human hair keratins can self-assemble and support cell growth, useful for biomedical applications.

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

Curly and straight hair differ in how their internal fibers are arranged.

Trichohyalin makes hair follicles stronger.