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The model helps improve medical devices by showing how skin deforms under pressure.

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

The authors created a realistic and efficient method to simulate hair movement by combining fluid dynamics with individual hair strand behavior.

The Spherical Skin Model improves drug and cosmetic testing by accurately mimicking human skin for efficient compound screening.

A boronic acid copolymer quickly forms cell clusters, useful for tissue and tumor modeling.

Stiffness gradients in alginate gels can guide cancer cell invasion and study cellular behaviors.

The new stiffness test works well for gels but not for sprays.

The PCL/PHB blend allows for slower, more controlled curcumin release than individual polymers.

Hair beds in fluid show nonlinear response due to viscosity, inertia, and elasticity.

These polymers can improve hair texture and reduce water loss in hair cosmetics.

Different levels of shear stress affect where cells move and gather in a 3D-printed model, helping to better understand cell behavior in blood vessels.

The technique helps measure how hair styling ingredients affect hair's stiffness and flexibility.

Artificial hair fibers improve drug delivery accuracy through skin models.

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

Human hair becomes weaker and stretches more easily at higher temperatures.

4D polycarbonate scaffolds show promise for soft tissue repair due to their biocompatibility, shape memory, and minimal immune response.

The homogenization theory effectively describes how flow behaves differently across asymmetric membranes.

Adding keratin to a mix of cow hair and plant-based plastic makes it stronger.

Multiparametric ultrasound effectively monitors scalp changes after using vasoconstrictive cosmetics.

The hydrogel is versatile and easy to make.

The model helps understand how wool fiber structure affects its strength and flexibility.

The research shows how certain drugs can form stable structures with polymers, which is important for making new pharmaceuticals.

The 3D skin model mimics pemphigus vulgaris and helps test treatments.

The model shows that filament flexibility and amino acid differences affect how fast intermediate filament proteins assemble.

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

A new method quickly creates controllable cell clusters for tissue engineering and drug testing.

VVF alone can't fully describe porosity in granular scaffolds.

Desmopressin-loaded liposomes can effectively deliver drugs through the skin, improving bioavailability and patient compliance.