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Keratin heterodimers are preferred for their specific and structural advantages.

Charge-conversion chemistry improves hair-rebonding by enhancing penetration and strength.

Different sizes of keratin peptides can strengthen hair, with smaller ones possibly increasing volume and larger ones repairing damage.

Hair structural proteins are synthesized sequentially in specific cells, offering a new way to study hair proteins and defects.

Electrostatic interactions mainly stabilize the binding of peptides to hair keratin.

Human hair keratin is a promising material for nerve repair.

Spanlastics improve drug delivery by enhancing bioavailability and targeting, reducing side effects.

Bacterial cellulose is a promising material for biomedical uses but needs improvements in antimicrobial properties and degradation rate.

Organoids can sustainably produce advanced materials with superior properties, offering solutions to global challenges.

Encapsulating hair follicle cells in a special gel boosts their activity.

The hydrogel shows promise for wound healing due to its strong mechanical, antimicrobial, and antioxidant properties.

The DNA hydrogel helps heal diabetic wounds by absorbing fluids, warming, sticking to tissue, killing bacteria, and aiding tissue and hair regrowth.

Nanoparticles can effectively deliver spironolactone to hair follicles for treating alopecia and acne.

Chirality influences the structure, strength, and biological uses of peptide-based hydrogels.

Researchers created a potential skin substitute using a biodegradable mat that supports skin cell growth and layer formation.

Hair follicles form hard α-keratin filaments in four steps, showing structural differences.

A wool hair keratin hydrogel is promising for growing cells and tissue engineering.

The new method improves bone repair by enhancing cell loading and stability in bioprinted scaffolds.

3D-printed hydrogels show promise in medicine but face challenges in resolution, cell viability, cost, and regulations.

Cross-linked proteins help maintain the structure of hair, feathers, and hagfish teeth.

The new wound dressing helps heal abdominal wall defects faster by improving the wound environment.

Hard α-keratins stay stiff in water because the surrounding matrix keeps them dehydrated and strong.

The new method improves bone repair by enhancing cell loading and stability in bioprinted scaffolds.

The scaffold improves wound healing and tissue regeneration.

Human hair keratin can be used in many medical applications.

The new GelMet hydrogel can effectively support skin cell growth for tissue engineering.