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Scientists created three types of structures to help regrow hair follicles, and all showed promising results for hair regeneration.

The study found that certain three-dimensional scaffolds can help regenerate hair effectively.

Electrospun nanofibers might be a promising new treatment for hair loss.

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

L-cysteine slows down the breaking of bonds in hair due to electrostatic interactions.

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

UVB radiation changes the chemical makeup and dries out human hair but doesn't alter its appearance or texture.

Hair and wool strength is affected by the number and type of bonds in their protein structures, with hair having more protein aggregates than wool.

Different hair protein amounts change the strength of keratin/chitosan gels, useful for making predictable tissue engineering materials.

Keratin's mechanical properties are influenced by hydrogen bonds and secondary structure, and can be improved with the SPD-2 peptide.

Keratin hydrogels from human hair show promise for tissue engineering and regenerative medicine.

Proteins like BSA and keratin can effectively style hair and protect it, offering eco-friendly alternatives to chemical products.

Certain small molecules and polymers can change hair's physical properties and how it feels by affecting the bonds within the hair.

Permanent waving weakens hair by altering its protein structure.

New materials that better mimic natural skin structure could improve healing, especially for chronic wounds.

Human hair keratins can form stable nanofiber networks that might help in tissue regeneration.

Estrogens significantly influence hair growth by interacting with receptors in hair follicles and may help regulate the hair growth cycle.

Fusion proteins can protect hair from heat damage.

Hair strength is similar across different scalp areas, and not affected by age, gender, or hair thickness.

Nanocarriers with plant extracts show promise for safe and effective hair growth treatment.

Keratin from hair and wool is used in medical materials for healing and drug delivery.

Using enzymes to link proteins makes hair repair treatments more effective and long-lasting.

Human hair keratins can self-assemble and support cell growth, useful for biomedical applications.

Hair properties are interconnected; a comprehensive, cross-disciplinary approach is essential for understanding hair behavior.

Hair and wool have complex microscopic structures with microfibrils and varying cystine content.

Fibroblasts are crucial for tissue repair and inflammation, and understanding them can help treat fibrotic diseases.

The 2015 Hair Research Congress concluded that stem cells, maraviroc, and simvastatin could potentially treat Alopecia Areata, topical minoxidil, finasteride, and steroids could treat Frontal Fibrosing Alopecia, and PTGDR2 antagonists could also treat alopecia. They also found that low-level light therapy could help with hair loss, a robotic device could assist in hair extraction, and nutrition could aid hair growth. They suggested that Alopecia Areata is an inflammatory disorder, not a single disease, indicating a need for personalized treatments.

Keratin from hair binds well to gold and BMP-2, useful for bone repair.

Recombinant keratin materials may better promote skin cell differentiation than natural keratin.

Human hair has different protein structures in its cuticle and cortex.