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Regenerative pharmacology, which combines drugs with regenerative medicine, shows promise for repairing damaged body parts and needs more interdisciplinary research.

Certain genes are more active during wound healing in axolotl and Acomys, which could help develop materials that improve human wound healing and regeneration.

Autophagy helps control skin inflammation and cancer responses and regulates hair growth by affecting stem cell activity.

The gp130 receptor helps in tissue regeneration and disease progression, and manipulating it could improve healing and prevent disease.

NF-κB is crucial for zebrafish heart repair, affecting heart cell growth and repair processes.

The telogen phase of hair growth is active and important for preparing hair follicles for regeneration, not just a resting stage.

Cell aging can be both good and bad for tissue repair.

The document concludes that understanding hair and feather regeneration can help develop new regenerative medicine strategies.

The article concludes that studying how skin forms is key to understanding skin diseases and improving regenerative medicine.

Spiny mice are better at regenerating hair after injury than laboratory mice and could help us understand how to improve human skin repair.

Fibroblasts, cells usually linked to tissue repair, also help regenerate various organs and their ability decreases with age. Turning adult fibroblasts back to a younger state could be a new treatment approach.

Hydrogel scaffolds can help wounds heal better and grow hair.

Mice with enhanced regeneration abilities may help develop new regenerative medicine therapies.

Changing the environment around stem cells could help tissue repair, but it's hard to be precise and avoid side effects.

Mouse hair follicle stem cells were successfully isolated and used to regenerate hair follicles with two different methods.

Vav2 changes how hair follicle stem cells' genes work as they age, which might improve regeneration but also raise cancer risk.

T cells and bacteria in the gut and skin help maintain health and protect against disease.

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

Mice that can regenerate tissue have cells that pause in the cell cycle, which is important for healing, similar to axolotls.

High levels of ERK activity are key for tissue regeneration in spiny mice, and activating ERK can potentially redirect scar-forming healing towards regenerative healing in mammals.

Planarian regeneration begins with a specific gene activation caused by injury, essential for healing and tissue regrowth.

Mammals might fail to regenerate not because they lack the right cells, but because of how cells respond to their surroundings, and changing this environment could enhance regeneration.

Understanding and manipulating epigenetic changes can potentially lead to human organ regeneration therapies, but more research is needed to improve these methods and minimize risks.

Scarless healing is complex and influenced by genetics and environment, while better understanding could improve scar treatment.

Rats can't grow new hair follicles after skin wounds, unlike mice, due to differences in gene expression and response to WNT signaling.

Fibroblast Growth Factors (FGFs) are important for tissue repair and regeneration, influencing cell behavior and other factors involved in healing, and are crucial in processes like wound healing, bone repair, and hair growth.

PRP helps skin heal, possibly through special cells called telocytes.

BMP2 needs periosteal tissue to help regenerate mouse middle finger bones within a specific time.

Hair follicle stem cells and skin cells show promise for hair and skin therapies but need more research for clinical use.

Nerves are crucial for the regeneration of various body parts in many animals.