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The study concluded that hair growth in mice is regulated by a stable interaction between skin cell types, and disrupting this can cause hair loss.

Scientists made a mouse that shows how a specific protein in the skin changes and affects hair growth and shape.

Triboelectric nanogenerators can power wearable medical devices for long-term self-treatment and monitoring.

Engineered exosomes with EGF and FGF improve hair growth in mice with hair loss.

Researchers created a model to understand heart aging, highlighting key genes and pathways, and suggesting miR-208a as a potential heart attack biomarker.

The hair follicle is a great model for research to improve hair growth treatments.

Light-based bioelectronic devices improve health monitoring and disease treatment.

Adult skin cell-based early-stage skin substitutes improve wound healing and hair growth in mice.

The study aims to create a model to predict health attributes using diverse health data from Japanese adults.

PCL nanoscaffold-based liver spheroids are effective for drug screening and studying liver toxicity.

Scientists created complete hair-like structures by growing mouse skin cells together in a special gel.

Ionizable lipid nanoparticles are the best for delivering gene-editing therapies.

Presurgical models can effectively and affordably screen cancer prevention agents.

The mouse model showed defects in adult stem cell maintenance related to Hutchinson-Gilford progeria syndrome.

A single robotic system can accurately harvest and implant hair grafts, showing promise for real-world use.

Stem cells and biomaterials are key to improving skin substitutes for medical use.

The humanized AA mouse model is better for testing new alopecia areata treatments.

Both mouse and rat models are effective for testing alopecia areata treatments.

The best method for urethral reconstruction is using hypoxia-preconditioned stem cells with autologous cells on a vascularized synthetic scaffold.

Researchers created a 3D-printed skin model that grew human hair when grafted onto mice by improving blood supply to the grafts.

The study developed a successful mouse model to study skin infections, highlighting the importance of choosing the right fungal strains.

Microencapsulation helps protect and track therapeutic cells, showing promise for treating various diseases, but more work is needed to improve the technology.

Bone marrow stem cells from Guizhou miniature pigs can grow well and become different cell types, useful for tissue engineering.

Using bioreactors, scientists can grow more skin stem cells that keep their ability to regenerate skin and hair.

Tissue-engineered skin can support hair growth after grafting, especially with mouse-derived dermis.

Nanozymes greatly improve biocatalysis by being stable, efficient, and versatile.

Smart nano-PROTACs improve cancer treatment by targeting proteins more precisely and reducing side effects.

Scientists can mimic hair disorders by altering genes in lab-grown human hair follicles, but these follicles lack some features of natural ones.

Melanoma cells lose their ability to form tumors when placed in a zebrafish embryo environment.