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Exosomes from hair papilla cells and the Chinese medicine Liao Tuo Fang can potentially promote hair growth and could be used to develop hair growth drugs.

Bleaching hair removes its protective top layer and exposes more hydrophilic groups, changing its chemical surface and affecting how it interacts with products.

Microemulsions could improve how drugs are delivered and absorbed in the body.

FGF9 controls which receptors it binds to through a process where two FGF9 molecules join, and changes in FGF9 can lead to incorrect receptor activation.

Hair's strength and flexibility come from its protein structure and molecular interactions.

The structure of SRD5A reveals how it reduces steroids, aiding drug design for related health conditions.

Hair analysis for drugs needs a better understanding of how drugs enter hair, considering factors like hair structure and pigmentation.

Small molecule IM boosts hair growth by changing stem cell metabolism.

Biotin helps regulate proteins in the blood, which may explain its role in hair growth.

Two distinct pathways direct proteins to vacuoles in Arabidopsis, affecting root hair growth and protein targeting.

Hair follicles affect how well small molecules can pass through the skin, and this varies depending on the molecule's features.

Certain molecules in hair change with age and could be used for cosmetic treatments.

Hair absorbs molecules differently based on their size, charge, and love for water, and less at higher pH; this can help make better hair products.

The new hydrogel dressing with natural molecules helps heal wounds faster and improves skin repair.

The research shows how certain drug molecules form stable structures with polymers, which could help create new drug forms.

New findings explain how genetic changes, body clocks, and certain molecules affect tissue response to stress hormones.

C60 fullerenes can alter protein function and may help develop new disease inhibitors.

New compounds with carborane showed anti-androgen effects similar to flutamide.

A certain surfactant sticks to human hair, making it change from water-repelling to water-attracting, which could help in hair conditioning.

Microneedles help treat hair loss by improving hair surroundings and promoting growth.

Surface and internal treatments can help prevent hair lipid loss during washing.

Niosomes are a promising and effective way to deliver drugs through the skin.

Hair's internal fibers are arranged in a pattern that doesn't let much water in, and treatments like oils and heat change how much water hair can absorb.

Water and fatty acids affect hair's surface differently based on hair damage, and models can help understand hair-cosmetic interactions.

Human hair keratins can be turned into useful 3D biomedical scaffolds through a freeze-thaw process.

Minoxidil analogs can be improved for hair growth inhibition by modifying specific parts of their structure.

Improving artificial vascular grafts requires better materials and surface designs to reduce blood clotting and support blood vessel cell growth.

Niosomes are a promising, stable, and cost-effective drug delivery system with potential for improved targeting and safety.

Human hair's ability to get wet is complex and can change with treatments, damage, and environment.

Hair fibers interact through classical forces, which are influenced by treatments and products, important for hair care and other applications.