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Androgenetic alopecia, or hair loss, is caused by a mix of genetics, hormones, and environment, where testosterone affects hair growth and causes hair to become smaller and grow for a shorter time.

Different types of sun exposure damage skin cells and immune cells, with chronic exposure leading to more severe and lasting damage.

The Notch signaling pathway is important for hair follicle development and could help create treatments for hair disorders.

The 2015 Hair Research Congress concluded that stem cells, maraviroc, and simvastatin could potentially treat Alopecia Areata, topical minoxidil, finasteride, and steroids could treat Frontal Fibrosing Alopecia, and PTGDR2 antagonists could also treat alopecia. They also found that low-level light therapy could help with hair loss, a robotic device could assist in hair extraction, and nutrition could aid hair growth. They suggested that Alopecia Areata is an inflammatory disorder, not a single disease, indicating a need for personalized treatments.

Advancements in tissue engineering show promise for hair follicle regeneration to treat hair loss.

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.

A new method using fat tissue cells may help treat hair loss.

Muscles and nerves that cause goosebumps also help control hair growth.

Id2 gene helps keep hair follicle stem cells inactive.

The calcineurin/NFAT pathway plays a significant role in the development and growth of a type of skin cancer called cutaneous squamous cell carcinoma.

Hair follicle stem cells in hairpoor mice are disrupted, causing hair loss.

Blocking a specific immune cell signal can trigger hair growth.

Certain immune cells in the skin can stop hair from growing.

Disrupting a specific protein's function in hair follicle stem cells triggers their activation and a self-healing process.

All-trans-retinoic acid stops mink hair growth by affecting cell growth and causing cell death.

Shi-Bi-Man helps hair regrowth by activating the FGF pathway in cells.

Mouse cell exosomes help hair regrowth and wound healing by activating a specific signaling pathway.

The BMP/Smads pathway and Id2 gene control hair follicle stem cells, affecting their rest and growth phases.

A form of vitamin E promotes hair growth by activating a specific skin pathway.

Certain inhibitors slow down plant growth by causing early cell specialization without changing the cell development pattern.

Epithelial-mesenchymal interactions control hair growth cycles through specific molecular signals.

TPA promotes hair growth by increasing stem cell activity and activating specific cell signals.

sPLA2-IIA increases growth in hair follicle stem cells and cancer cells, suggesting it could be targeted for hair growth and cancer treatment.

A peptide called DPS-1 helps human scalp cells grow and stimulates hair growth in mice.

Biofield Energy Healing may increase hair growth by enhancing cell proliferation.

Proteins like aPKC and PDGF-AA, substances like adenosine and ATP, and adipose-derived stem cells all play important roles in hair growth and health, and could potentially be used to treat hair loss and skin conditions.

The document concludes that skin stem cells are important for hair growth and wound healing, and could be used in regenerative medicine.

The document concludes that both internal stem cell factors and external influences like the environment and hormones affect hair loss and aging, with potential treatments focusing on these areas.

Ephrin-A3 helps increase and speed up hair growth in baby mice.

Certain compounds from Panax ginseng can block proteins that affect hair growth, potentially helping treat hair loss.