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Microfluidic models improve testing for aging, wound healing, and oral tissue, reducing animal testing.

New bio-ink can print complex tissues and organs.

The new delivery system improved hair growth in alopecia treatment.

Keratinocyte stem cells are crucial for skin renewal and have potential in wound healing and tissue regeneration.

Staphylococcus aureus delays wound healing by disrupting lipid metabolism in skin cells.

The study found that expanded skin regenerates similarly to normal skin, with 77 genes playing a role in the process.

Transforming skin disease treatment requires new strategies, better drug models, and patient-focused research.

Skin organoids are a promising new model for studying human skin development and testing treatments.

Key genes can rewire networks, changing skin appendage types.

Scientists have improved 3D models of human skin for research and medical uses, but still face challenges in perfectly replicating real skin.

Improving drug delivery through the skin requires understanding skin and using enhancers.

More research is needed to effectively measure how well GHK–Cu in liposomes penetrates the skin.

PmtHEE is a better model for studying pigmented skin because it includes melanocytes and shows improved cell differentiation.

3D-cultured cells in HGC-coated environments improve hair growth and skin integration.

The study found that immune responses disrupt hair growth cycles, causing hair loss in alopecia areata.

A wearable patch speeds up healing of chronic wounds by monitoring and treating them.

The microneedle system shows promise for non-invasive brain drug delivery.

Blocking YAP/TAZ could be a new way to treat skin cancer.

HT-scCAT-seq helps understand gene regulation in embryonic skin development.

Blood tests can help understand the genetic differences in people with alopecia areata, including how severe it is and if it's inherited.

Microneedles offer a painless, effective way to deliver drugs through the skin.

Plant-based compounds can improve wound dressings and skin medication delivery.

Hair patterns in mice are controlled by both a global system dependent on Fz6 and a local self-organizing system.

Natural compounds and biomimetic engineering can improve wound healing by enhancing fibroblast activity.

Mechanical forces are crucial in shaping our sensory organs during development.

Nanoparticle-embedded microneedles improve drug delivery through the skin but face challenges in stability and safety.

Stem cell plasticity is crucial for wound healing but can also contribute to cancer development.

The hydrogels help harvest cells while preserving their mechanical memory, which could improve wound healing.

Microfluidic technology improves cell spheroid creation for better drug testing and tissue engineering.

The conclusion is that the nuclear lamina and LINC complex in skin cells respond to mechanical signals, affecting gene expression and cell differentiation, which is important for skin health and can impact skin diseases.