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Certain skin cells near the base of hair muscles may help renew and stabilize skin, possibly affecting skin disorder understanding.

Cold Atmospheric Microwave Plasma (CAMP) helps hair cells grow and could potentially treat hair loss.

Different keratin types have unique amino acid patterns that are evolutionarily conserved.

PRMT5 inhibitors effectively fight adenoid cystic carcinoma in salivary glands.

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

Hair's structure and properties change with pH; acidic pH maintains strength and less swelling, while alkaline pH increases water content and swelling.

Bleaching hair increases cysteic acid levels in a predictable way.

Cashmere goats have a hair growth cycle with specific genes regulating growth, regression, and resting periods.

Loss of Fz6 disrupts hair follicle and associated structures' orientation.

A new method speeds up insulin amyloid fibril growth, useful for studying diseases.

FOL-005 peptide can reduce human hair growth by lowering FGF7 levels.

SCUBE3 is a potential target for cancer and alopecia treatment but is challenging to target due to its varied roles.

A gene mutation in mice causes skin defects and early death.

ILC1-like cells can cause alopecia areata by affecting hair follicles.

Certain genes and proteins may help diagnose and treat primary cicatricial alopecia.

SPARC likely aids in tissue remodeling during the hair cycle, not in starting new hair growth phases.

PC-associated alopecia has unique microscopic features.

Higher levels of PD-L1 are linked to more severe hair loss in people with Alopecia Areata.

Reducing Flightless I protein improves wound healing by activating skin stem cells.

DK peptides can reduce hair loss by inhibiting the 5α-reductase enzyme and have antioxidant effects.

BLTP1 and KIF27 gene mutations can help breed better wool sheep.

A stable, active version of a growth factor was made in bacteria, showing promise for medical use.

A new keratin 6 type in mice explains why some mice without certain keratin genes still have normal hair and nails.

Blocking the HEDGEHOG-GLI1 pathway can reduce keloid growth and may be a potential treatment.

WNT5A contributes to keloid scars by promoting cell changes through specific signaling pathways.

RNase L hinders hair growth by altering immune signals.