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Some cells may slow melanoma growth, a protein could affect skin pigmentation, a gene-silencing method might treat hair defects, skin bacteria changes likely result from eczema, and a defensin protein could help treat multiple sclerosis.

SOX4 is crucial for the development of melanoma.

We know less about human hair pigmentation than mouse coat color, but pH and cysteine levels are key factors.

A3B5 can reduce skin pigmentation and slow melanoma growth.

A human serum-enriched medium effectively supports melanocyte growth and activity without using animal-derived supplements.

MC1R gene variations affect skin, hair color, UV sensitivity, and melanoma risk.

A protein called sFRP4 from skin cells stops the development of pigment-producing cells in hair.

ISCK03 stops melanin production in human melanoma cells and lightens skin color in mice and guinea pigs.

Alpha-MSH affects mitochondrial function, and MC1R mutations may increase skin aging.

The human scalp has different types of pigment cells in hair follicles with varying abilities to produce pigment.

SDF-1/CXCL12 and its receptor CXCR4 are crucial for melanocyte movement in mouse hair follicles.

BMP4 helps stem cells turn into pigment-producing cells, affecting hair color and growth.

MCSP may help identify and regulate skin stem cells, affecting hair growth and regeneration.

Tanning ability is linked to specific DNA changes in skin genes.

Retinoids can help treat skin pigmentation disorders by affecting melanin production.

1,25-dihydroxyvitamin D3 helps melanocyte precursors from hair follicles grow and produce melanin, aiding vitiligo treatment understanding.

A clinically suspected melanoma appeared benign under the microscope but was confirmed by specific tests and a rare mutation.

BMP signaling controls hair growth and skin color.

The protein p21 is more abundant in normal skin cells than in melanoma cells and may help protect against melanoma, with UVB light affecting its levels.

Protocatechuic acid can reduce melanin production and boost antioxidant activity in hair follicles.

Melanin granules can be expelled by exocytosis.

Melasma's causes include genetics, sun exposure, hormones, and oxidative stress, and understanding these can help create better treatments.

Melanocyte stem cells are crucial for skin pigmentation and have potential in disease modeling and regenerative medicine.

All-trans retinoic acid helps amelanotic melanocytes in hair follicles develop and produce pigment while reducing their growth.

Melanocyte stem cells from non-affected skin in vitiligo patients can become functional melanocytes for potential therapy.

Stromal cells in melanoma promote tumor growth and spread.

Retinoids or their analogs could treat skin pigmentation disorders like melasma and vitiligo.

The new assay can track and measure melanosome transfer between skin cells, confirming filopodia's role in this process.

TPA is about 50 times more effective at promoting tumors than MZ.