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Bird foot scales develop differently and can repair but not fully regenerate due to the lack of specialized stem cell areas.

The May issue discussed publishing agreements and four studies on cholesterol in hair, cancer cell changes, hormones in the uterus, and skin protein effects.

The conclusion is that certain cell interactions and signals are crucial for hair growth and regeneration.

Keratin proteins are increasingly recognized as important for cell health and are linked to many diseases.

A new protein was made to detect specific skin cell growth receptors and worked in normal skin but not in skin cancer cells.

Live imaging has advanced our understanding of stem cell behavior and raised new research questions.

Certain transcription factors are key in controlling skin stem cell behavior and could impact future treatments for skin repair and hair loss.

The study concluded that hair growth in mice is regulated by a stable interaction between skin cell types, and disrupting this can cause hair loss.

Understanding where cancer cells come from helps create better prevention and treatment methods.

Brain hormones significantly affect hair color and could potentially be used to prevent or reverse grey hair.

The author felt excited and honored to receive the 2016 Early Career Life Scientist Award.

Notch signalling helps skin cells differentiate and prevents tumors.

Feather patterns form through genetic and epigenetic controls, with cells self-organizing into periodic patterns.

The TGF-β family helps control how cells change and move, affecting skin, hair, and organ development.

Skin stem cells are maintained by signals from nearby cells and vary in their ability to renew and mature.

Fisetin, a type of polyphenol, may help hair grow by increasing certain protein activities in cells.

ILK is essential for proper hair follicle development and structure.

Stress hormone CRF can cause hair loss by affecting hair growth cells and hormones.

The we/we wal/wal mice have defects in hair growth and skin layer formation, causing hair loss, useful for understanding alopecia.

A specific signal from hair cells controls the tightening of the surrounding muscle, which is necessary for hair shedding.

Dihydrotestosterone treatment on 2D and 3D-cultured skin cells slows down hair growth by affecting certain genes and could be a potential target for hair loss treatment.

Extracellular vesicles, including exosomes from certain cells, can stimulate hair growth.

The book "Hair Follicle Regeneration" discusses the potential of regenerating human hair follicles or activating dormant ones as a possible cure for baldness, and the promising role of new technologies like 3D printing in this field.

DNA methylation is essential for skin and hair follicle development, and could be a target for treating skin diseases.

New method efficiently isolates hair growth cells from newborn mouse skin.

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

A pathway helps maintain long telomeres in both stem and cancer cells.

The document concludes that hair follicle regeneration involves various factors like stem cells, noncoding dsRNA, lymphatic vessels, growth factors, minoxidil, exosomes, and induced pluripotent stem cells.

New hair follicles could be created to treat hair loss.

New techniques have enhanced our understanding of how stem cells function and the role of mutations in aging tissues, which may influence future cancer therapies.