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Reactive oxygen species (ROS) influence hair growth by causing DNA damage, cell death, and changes in immune cells.

Liposomal carriers can improve tissue regeneration by stabilizing and retaining growth factors.

A specific chemical change in the S100A3 protein leads to the formation of a four-part structure important for hair formation.

Local positive feedback helps shape root hair cells by stabilizing growth sites.

Human hair keratin scaffolds help repair injured muscles by breaking down and activating muscle cell growth.

Apoptosis is important in the hair cycle of dogs.

Quiescent cells have increased mitochondrial activity and ECM gene expression, but reduced glycolysis.

Low oxygen areas help maintain and protect blood stem cells by using a simple sugar breakdown process for energy and managing their activity levels.

Women with irregular periods and/or excessive body hair are more likely to have polycystic ovaries, and this condition is linked to higher health risks.

Genetic discoveries are leading to new treatments for alopecia areata.

Botulinum and tetanus neurotoxins are better understood now, with updated information on their effects and treatment.

Polycystic ovary syndrome and iron overload share similar symptoms and can be potentially treated with blood removal, diet changes, and probiotics.

Stem cell-derived exosomes can help repair ear damage and improve balance and hearing.

Glutamine helps macrophages reduce inflammation and improve wound healing.

Hairless mice have longer hair follicles and abnormal structures during the catagen phase.

Scientists successfully created mouse hair proteins in the lab, which are stable and similar to natural hair.

Arg1+ macrophages may play a role in causing alopecia areata.

Autofluorescence in hair follicle stem cells can interfere with studies but may help isolate these cells.

Macrophages play a crucial role in skin wound healing, with their numbers and sizes changing over time.

Cell size independently controls when stem cells divide.

FERONIA and LRX proteins help control cell growth in plants by regulating vacuole expansion.

Resident memory T cells and necroptosis may drive fibrosis in eosinophilic fasciitis and morphea.

The nanoparticles effectively deliver antibiotics to fight resistant bacteria.

Metabolic signals and cell shape influence how cells develop and change.

A specific protein complex increases the activity of a plant enzyme, but this action is not required for plant root hair growth.

The plant hormone auxin activates the TOR pathway, affecting gene expression related to growth and cell size.

Male hormones can decrease the ability of immune cells to fight bacteria.

Growing hair follicles have high mitochondrial activity and ROS in specific regions, aiding hair formation.