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

Trichocyte filaments have a low-density core and may include proteins for hair structure.

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

α-type filaments in guinea pig hair follicles have unique structural features.

COX-2 levels change during the hair cycle and affect skin and hair growth.

Hair and wool strength is affected by the number and type of bonds in their protein structures, with hair having more protein aggregates than wool.

Hair's internal fibers are arranged in a pattern that doesn't let much water in, and treatments like oils and heat change how much water hair can absorb.

Scientists successfully created and transplanted bioengineered hair follicles that function like natural ones, suggesting a new treatment for hair loss.

A mutation in the KRT71 gene causes a hair disorder by disrupting hair follicle structure and texture.

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

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.

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

lncRNA XLOC_008679 and gene KRT35 affect cashmere fineness in goats.

Keratins are crucial for cell stability, wound healing, and cancer diagnosis.

The study suggests that the arrector pili muscle is important for hair health and its damage might contribute to hair loss.

Pangolins have lost some skin-related genes, but kept others, leading to their unique scales and skin features.

UK medical students lack dermatology education, liver biopsy patients with risk factors show more fibrosis, and certain fungi resist drugs due to melanin; genetics may influence female hair loss.

Keratin fibrils in hair form and stop growing at specific points in the follicle.

The model shows that filament flexibility and amino acid differences affect how fast intermediate filament proteins assemble.

Hair curvature in Japanese people is linked to specific cell types and filament arrangements in the hair cortex.

Keratin heterodimers are preferred for their specific and structural advantages.

Hard α-keratin in hair has a unique, nonordered structure, different from other fibers.

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

Keratin proteins are essential for keeping the cells in the human colon healthy and stable.

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

Giant axonal neuropathy changes the structure of keratin in human hair.

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

Oxidation changes the structure of hair protein filaments, causing them to compact and rearrange.

The study revealed the detailed structure of a keratin dimer, aiding understanding of how intermediate filament proteins function.

A new method was developed to extract and analyze proteins from very short human hairs.