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Human hair and mouse whiskers emit similar biomagnetic fields.

A unique skin cell similar to hair bulb melanocytes was identified, with better preservation using permanganate fixation.

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

Human hair has electromagnetic properties.

Hair follicles emit electromagnetic fields due to S100 proteins.

Human hair has a natural biomagnetic field.

Multiphoton microscopy effectively images mouse skin layers and structures.

Hydrogel surface properties affect mouse embryoid body differentiation.

The method successfully visualizes iodine in biological tissues.

Biomagnetic forces can deform red blood cells.

Confocal microscopy is better than scanning electron microscopy for studying hair in its natural state and understanding hair products' effects.

TOF-SIMS improved chemical mapping in cells, confirming gunshot residue, tracking anti-tumor drugs, and identifying molecules in mosquitoes and wounds.

Particles similar in size to hair cells penetrate hair follicles better.

Amelanotic melanocytes from hair follicles are immature and likely don't transfer melanosomes to keratinocytes.

Confocal Laser Scanning Microscopy is effective for tracking compounds in the skin.

Biomagnetic forces can deform red blood cells.

Superhydrophobic surfaces can prevent fouling and enable self-cleaning in microfluidic devices.

Biomagnetic forces can deform red blood cells, not just mechanical factors.

Tying a knot can measure hair friction, useful for medical applications.

The modified osmium method improves hair cortex staining for better visualization.

Human hair's structure and properties were studied using advanced microscopes and mechanical tests.

Heterotypic cell contacts likely help hair matrix cells differentiate during mouse hair follicle development.

Chemical stressors damage hair structure but the skin's outer layer protects living cells.

The research found that the properties of solid-state Electronic Circular Dichroism (ss-ECD) are influenced by the orientation of local crystals, which could help in examining and mapping chiral materials like pharmaceutical ingredients.

The method helps study hair follicle stem cells and calcium signals in mouse skin.

AFM helped show how hair changes under tension and the effects of damage and conditioner.

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

The technique effectively shows how human skin and hair cells form into ball-like structures.