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The model better predicts how water-loving and fat-loving substances move through the skin by including tiny pores and hair follicle paths.

The simulation showed that hypobaric pressure improves drug delivery through the skin, but stretching alone doesn't fully explain the increase.

Researchers created early-stage hair-like structures from skin cells, showing how these cells can self-organize, but more is needed for complete hair growth.

The Potts-Guy model best predicts skin permeability for the tested drugs.

The conclusion is that skin and hair patterns are formed by a mix of cell activities, molecular signals, and environmental factors.

Scientists created keratinocyte cell lines from human hair that can differentiate similarly to normal skin cells, offering a new way to study skin biology and diseases.

The conclusion is that understanding how feathers and hairs pattern can help in developing hair regeneration treatments.

Nanoformulations improve drug delivery through the skin, reducing side effects and enhancing effectiveness.

Researchers developed a model that shows hair follicles increase skin absorption of caffeine by 20%.

The new skin organoid system effectively mimics human skin for studying its functions, injuries, and diseases.

The study created a new method to test drugs that affect hormone processing in skin.

The gel can effectively deliver melatonin through the skin.

Diffusion in artificial sebum is mainly influenced by molecular size and is much faster than in skin lipids.

Tectona grandis leaf extracts, especially with propylene glycol, may be promising for topical hair loss treatments.

Skin patterns form through molecular signals and genetic factors, affecting healing and dermatology.

Skin patterns are formed by simple reaction-diffusion mechanisms.

FucoPol hydrogel membranes are promising for delivering drugs on the skin.

Nanocarriers can improve drug delivery through the skin by overcoming barriers.

Fingerprints form uniquely before birth due to specific genetic pathways and local signals.

Applying dutasteride on a damp scalp improves its delivery to hair follicles.

Different species and human skin models vary in their skin enzyme activities, with pig skin and some models closely matching human skin, useful for safety assessments and understanding the skin's protective roles.

The Multi-Organ-Chip improves the growth and quality of skin and hair in the lab, potentially replacing animal testing.

Skin organoids can model tuberculosis infection and help test treatments.

Elastic liposomes deliver genistein through haired skin better than conventional liposomes.

Dyeing hair can help target and destroy hair follicles selectively.

IPM enhances skin penetration of hydrophilic drugs.

EpiLife® media and younger donor age improve artificial skin model quality.

The skin is a complex barrier for drug penetration, but understanding its structure and interactions can improve drug delivery methods.

Different compounds move through artificial sebum at different rates, which can help choose the best ones for targeting hair follicles.

Nanostructured lipid carriers deliver lidocaine to the skin better than nanoethosomes.