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Hair growth and health are influenced by factors like age, environment, and nutrition, and are controlled by various molecular pathways. Red light can promote hair growth, and understanding these processes can help treat hair-related diseases.

Scientists created complete hair-like structures by growing mouse skin cells together in a special gel.

The document concludes that understanding genetic mutations in the PI3K-AKT-mTOR pathway can lead to better diagnosis and treatment for certain genetic skin disorders.

The study found that bioengineered hair follicles work when using cells from the same species but have issues when combining human and mouse cells.

New treatments targeting skin stem cells show promise for skin repair, anti-aging, and cancer therapy.

Human hair keratins can self-assemble and support cell growth, useful for biomedical applications.

The protein folliculin, involved in a rare disease, works with another protein to control how cells stick together and their organization, and changes in this interaction can lead to disease symptoms.

FP-1 is a key protein in rat hair growth, active only during the growth phase.

Newly found stem cells in horse hooves show promise for treating a hoof disease called laminitis.

PNKP is essential for keeping adult mouse progenitor cells healthy and growing normally.

Stem cell therapy, particularly using certain types of cells, shows promise for treating hair loss by stimulating hair growth and development, but more extensive trials are needed to confirm these findings.

Smad1 and Smad5 are essential for hair follicle development and stem cell sleepiness.

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

New drugs for heart disease may be developed from molecules secreted by stem cells.

New treatments targeting T-cell pathways are needed for better alopecia areata management.

The secretions of mesenchymal stem cells could be used for healing without using the cells themselves.

Mice lacking steroid 5α-reductase 2 show less aggression and better impulse control.

Removing a methyl group from the ITGAV gene speeds up bone formation in a specific type of bone disease model.

Mesenchymal stem cells could help treat aging-related diseases better than current methods.

Exosomes could potentially enhance tissue repair and regeneration with lower rejection risk and easier production than live cell therapies.

New cell-based therapies may improve hair loss treatments in the future.

Keratin is crucial for keeping skin cells healthy and its changes can lead to diseases and affect cell behavior.

The document concludes that better targeted treatments are needed for wound healing, and single-cell technologies may improve cell-based therapies.

Minoxidil boosts hair growth by opening potassium channels and increasing cell activity.

Biomaterials with MSC-derived substances could improve tissue repair and have advantages over direct cell therapy.

Spheroid culture in agarose dishes improves survival and nerve cell growth in thawed human fat-derived stem cells.

Exosomes show promise for tissue repair and regeneration with advantages over traditional cell therapies.

Nanoencapsulation creates adjustable cell clusters for hair growth.

The Hairless gene is crucial for hair cell development, affecting whether skin cells become hair or skin and oil gland cells.

Hair loss in men is mainly caused by hormones and genes, and while current treatments can slow it down, they can't fully stop it.