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3D-printed membranes with smart sensors can greatly improve tissue healing and have many medical applications.

3D bioprinting is useful for making tissues, testing drugs, and delivering drugs, but needs better materials, resolution, and scalability.

Biomimetic scaffolds are better than traditional methods for growing cells and could help regenerate various tissues.

Surgical robots have improved but still can't perform tasks or make decisions on their own.

The 3D electrospun fibrous sponge is promising for tissue repair and healing diabetic wounds.

Nanofiber structure helps regenerate hair follicles.

The new 3D sponge-like material helps cells grow and heals wounds effectively.

3D bioprinting could improve skin repair and treat conditions like vitiligo and alopecia by precisely placing cells.

The document describes a way to isolate and grow human hair follicle cells in 3D to help study hair growth.

Researchers created hair-inducing human cell clusters using a 3D culture method.

The 3D scaffold helped maintain hair cell traits and could improve hair loss treatments.

3D cell-derived matrices improve tissue regeneration and disease modeling.

Keratinocytes help keep hair follicle cells and skin cells separate in 3D cultures, which is important for hair growth research.

Created material boosts hair growth and kills bacteria for wound healing.

3D bioprinting in plastic surgery could lead to personalized grafts and fewer complications.

The study created 3D-printed pills that effectively release a hair loss treatment drug over 24 hours.

3D cell cultures are better for testing hair growth treatments than 2D cultures.

Hydrogels combined with extracellular vesicles and 3D bioprinting improve wound healing.

The conclusion is that accurately replicating the complexity of the extracellular matrix in the lab is crucial for creating realistic human tissue models.

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

Researchers developed a 3D model of human hair follicle cells that can help understand hair growth and test new hair loss treatments.

Scientists created 3D hair-like structures that could help study hair growth and test treatments.

Collagen makes skin stiff, and preservation methods greatly increase tissue stiffness.

The study concluded that changing the culture conditions can cause sika deer skin cells to switch from a flat to a 3D pattern, which is important for creating hair follicles.

A device was made in 2008 to measure hair loss severity. Other findings include: frizzy mutation in mice isn't related to Fgfr2, C/EBPx marks preadipocytes, Cyclosporin A speeds up hair growth in mice, blocking plasmin and metalloproteinases hinders healing, hyperbaric oxygen helps ischemic wound healing, amniotic membranes heal wounds better than polyurethane foam, rhVEGF165 from a fibrin matrix improves tissue flap viability and induces VEGF-R2 expression, and bFGF enhances wound healing and reduces scarring in rabbits.

Layer-by-Layer self-assembly is promising for biomedical uses like tissue engineering and cell therapy, but challenges remain in material safety and process optimization.

New nanofiber technology improves wound healing by supporting cell growth and delivering treatments directly to the wound.

Asia has made significant progress in tissue engineering and regenerative medicine, but wider clinical use requires more development.

Hair follicle regeneration needs special conditions and young cells.

Advanced human skin models improve drug development and could replace animal testing.