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The study concluded that a protein important for hair strength is regulated by certain molecular processes and is affected by growth phases.

Hairlessness in mammals is due to complex genetic changes in both genes and regulatory regions.

Hairlessness in mammals is caused by combined changes in genes and regulatory regions.

Intermediate filaments are crucial for cell structure and function, regulated by specific genes and proteins.

The protein CTCF is essential for skin development, maintaining hair follicles, and preventing inflammation.

The Megsin-Cre transgene is a new tool for genetic manipulation in the skin and upper digestive tract.

Super-enhancers controlled by pioneer factors like SOX9 are crucial for stem cell adaptability and identity.

The KRTAP11-1 gene promoter is crucial for specific expression in sheep wool cortex.

The B2 genes are crucial for hair growth in rats.

A woman with a unique syndrome similar to TRPS has a genetic change near the TRPS1 gene, affecting its regulation.

Regulatory T cells are essential for normal and improved wound healing in mice.

A specific DNA region is crucial for Foxn1 gene expression in thymus cells but not in hair follicles.

The protein StAR is found in 17 different organs and can affect hair loss and brain functions, but its full role is not yet fully understood.

The peach gene pCTG134 helps control the interaction between auxin and ethylene hormones during fruit ripening.

The nucleus is key in controlling skin growth and repair by coordinating signals, gene regulators, and epigenetic changes.

Hairless mammals have genetic changes in both their protein-coding and regulatory sequences related to hair.

Dermal fibroblasts have adjustable roles in wound healing, with specific cells promoting regeneration or scar formation.

Changes in the SREBF1 gene cause a rare genetic skin and hair disorder.

The research found key RNA networks that may control hair growth in cashmere goats.

Keratin protein production in cells is controlled by a complex system that changes with cell type, health, and conditions like injury or cancer.

The peach gene CTG134 helps control the interaction between auxin and ethylene, which could lead to new agricultural chemicals.

Researchers found key regions in the mouse hairless gene that control its activity in skin and brain cells, affecting hair follicle function.

Different types of skin cells have unique genetic markers that affect how likely they are to spread cancer.

The conclusion is that grasping how cells determine their roles through evolution is key, with expected progress from new research models and genome editing.

DHT affects bone growth by altering gene activity in osteoblasts, potentially complicating steroid use.

The method allows for 3D tracking of hair follicle stem cells and shows they can regenerate hair for up to 180 days.

Key genes can rewire networks, changing skin appendage types.

Understanding how EDC genes are regulated can help develop better drugs for skin diseases.

GLI2 increases follistatin production in human skin cells.

Researchers found two new genetic variants linked to Alzheimer's disease.