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

Keratohyalin and trichohyalin proteins help form and organize skin and hair structures.

Human hair has a new region with ordered filaments and the cuticle contains β-keratin sheets.

The rat vibrissa follicle can quickly remodel its basement membrane during hair growth, affecting cell signaling and activity.

The study concluded that a protein important for hair strength is regulated by certain molecular processes and is affected by growth phases.

Mechanoreceptors convert physical touch into electrical signals through specialized nerve structures.

Imaging living plant cells shows dynamic changes in actin and endoplasmic reticulum linked to root hair growth.

The method allows detailed observation of hair tissue structures.

Skin cell clumping for hair growth is improved by a protein called fibronectin, which helps cells stick and move better.

Vimentin, desmin, and laminin help maintain rat skin structure.

Human hair proteins can be used to create scaffolds that support cell growth for tissue engineering.

The protein structures in the hair and tendon were preserved, but their molecular arrangements changed.

Human hair keratin scaffolds help repair injured muscles by breaking down and activating muscle cell growth.

Human hair's strength comes from a honeycomb-like structure and macrofibrils.

A new method isolated previously undetected hair proteins rich in glycine and tyrosine.

The skin's basement membrane has specialized structures and molecules for different tissue interactions, important for hair growth and attachment.

Trichohyalin is a versatile protein involved in hair and skin structure.

NuMA-microtubule interactions are crucial for proper skin structure and hair growth.

Keratins are crucial proteins for hair and nails, with a structure that helps teach protein principles.

Trichohyalin is found in non-hair tissues and works with filaggrin in certain skin areas and conditions.

Certain skin proteins can form anchoring structures without the protein AMACO.

Understanding intermediate filaments helps explain hair health and related diseases.

ILK and ELMO2 help cells move and stick together, important for wound healing and hair growth.

The keratin network in mouse skin changes during cornification and affects the skin's protective barrier.

The model explains how mammal ear hair cells respond to sound and adapt.

Lanceolate complexes in mouse hair follicles are essential for touch and depend on specific cells for maintenance and regeneration.

Correcting EDA fibronectin organization and YAP translocation can improve wound healing in fibrotic conditions.

The lower part of rat vibrissa hair gets more blood and is well-protected for growth.