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Researchers found 44 proteins that change during different hair growth stages and may be important for hair follicle function.

Human and mouse TGase3 enzymes are similar but differ near the activation site, crucial for their function in skin and hair development.

Researchers created a model to understand heart aging, highlighting the role of microRNAs and identifying key genes and pathways involved.

Newly designed proteins can effectively degrade specific proteins in cells, offering a promising alternative for targeted protein degradation.

Defective nuclear transport may cause gene expression changes in Progeria.

Epigenetic changes in blood cells may contribute to alopecia areata.

Genetic changes in mice help understand skin and hair disorders, aiding treatment development for acne and hair loss.

Apoptosis, not oxidative stress, is linked to aging in mice with mtDNA mutations.

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

Certain genetic variants in ERN1, TACR3, and SPPL2C are linked to when Alzheimer's disease starts.

Understanding tissue remodeling can help create precise treatments for various organ issues.

Cysteines in wool fibers are accessible and form important disulfide bonds.

A molecule called α-ketobutyrate was found to extend lifespan and improve aging-related symptoms in worms and mice by activating certain cellular pathways and may help develop anti-aging treatments for humans.

A protein called PCBP2 controls the production of a hair growth protein by interacting with its genetic message and is linked to hair loss when this control is disrupted.

Altering the keratin 17 gene in mice hair follicles caused temporary hair issues, but changes were minimal and short-lived.

Overexpressing SSAT enzyme reduces prostate tumor growth in mice.

ANE syndrome is caused by a mutation in the RBM28 protein that disrupts ribosome assembly.

Rapamycin treatment helps reduce brain inflammation and symptoms of mitochondrial disease by blocking specific pathways in mice.

Finasteride modifies 5-alpha-reductases through a two-step process, affecting inhibitor potency and possibly causing side effects.

TTNPB helps turn stem cells into neural stem cells, improving depression-like behaviors in rats.

Hair proteins change location and structure as hair cells mature.

Ptprq has multiple forms that change during inner ear development.

Modified β-catenin can cause different effects in mouse skin cells, leading to cysts or tumors depending on the cell type.

Nε-(carboxymethyl) lysine delays hair growth by blocking a key protein.

Researchers found two new genetic variants linked to Alzheimer's disease.

Some cells may slow melanoma growth, a protein could affect skin pigmentation, a gene-silencing method might treat hair defects, skin bacteria changes likely result from eczema, and a defensin protein could help treat multiple sclerosis.

Mutations in specific keratin genes cause improper hair structure in mice due to faulty keratin protein assembly.

Hairless protein and putrescine regulate each other, affecting hair growth and skin balance.