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Hair grows faster in the morning and is more vulnerable to damage from radiation due to the internal clock in hair follicle cells.

The conclusion is that hair growth can be improved by activating hair cycles, changing the surrounding environment, healing wounds to create new hair follicles, and using stem cell technology.

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

GRK2 is essential for healthy hair follicle function, and its absence can lead to hair loss and cysts.

Hair loss caused by genetics and hormones; more research needed for treatments.

Chilled ATPv-supplemented saline best preserves hair grafts' key genes.

The document suggests that activating autophagy might help with regeneration by removing old and damaged cells.

Different types of hair loss in lupus need careful diagnosis for proper treatment.

Lymphatic vessels are important for skin repair and could affect skin disease treatments.

Stress, nutritional issues, and chronic diseases can cause hair loss, and nail changes may signal internal diseases; treatment focuses on the underlying cause.

Chemotherapy causes hair loss by damaging hair follicles and stem cells, with more research needed for prevention and treatment.

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

Radiation mainly affects keratinocyte stem cells, not melanocyte stem cells, causing hair to gray.

The conclusion is that understanding how hair follicle stem cells live or die is important for maintaining healthy tissue and repairing injuries, and could help treat hair loss, but there are still challenges to overcome.

Understanding how melanocyte stem cells work could lead to new treatments for hair graying and skin pigmentation disorders.

DNMT1 helps turn hair follicle stem cells into fat cells by blocking a specific microRNA.

New treatments for hair loss show promise, including plasma, stem cells, and hair-stimulating complexes, but more research is needed to fully understand them.

The conclusion is that teeth, hair, and claws have similar stem cell niches, which are important for growth and repair, and more research is needed on their regulation and potential markers.

Fat-derived stem cells show promise for skin repair and reducing aging signs but need more research for consistent results.

An imbalance between certain immune cells is linked to a chronic skin condition and may be influenced by obesity, smoking, and autoimmune issues.

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

Increasing PBX1 reduces aging and cell death in hair follicle stem cells by boosting SIRT1 and lowering PARP1 activity.

Hair graying is influenced by factors like nerves, fat cells, and immune cells, not just hair follicles.

Certain skin cells near the base of hair muscles may help renew and stabilize skin, possibly affecting skin disorder understanding.

Blocking specific proteins can help remove aging cells and might treat age-related diseases and promote hair growth.

Wounds can regenerate hair in young mice, but this ability declines with age, offering insights for improving tissue regeneration in the elderly.

Secretome-based therapies could improve hair growth better than current treatments.

Removing Dicer from pigment cells in newborn mice causes early hair graying and changes in cell migration molecules.

Topical drugs and near-infrared light therapy show potential for treating alopecia.

Hair graying may be caused by stem cell depletion from stress or melanocyte damage.