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Targeting the PIEZO1 and MLCK axis may offer a new treatment for hair loss.

Understanding hair follicle communication can help treat hair loss.

Weak cell junctions disrupt hair follicle stem cell rest.

Human hair's structure makes it tough and resistant to breaking.

Cell polarity signaling controls tissue mechanics and cell fate, with complex interactions and varying pathways across species.

Calcium signals and SHH guide the direction of feather growth in chicken skin.

Human hair's strength and flexibility vary by ethnicity, damage, and treatment.

NuMA-microtubule interactions are vital for proper skin structure formation and function.

Microneedling with 5% minoxidil improves hair loss in Chinese men by activating Wnt/ß-catenin pathway.

Notch-related genes play a key role in the development and cycling of hair follicles.

Gene therapy with the Math1 gene helped regenerate balance-related cells and improve balance in mice.

Hair curliness is due to uneven distribution of different cortices within the hair fiber.

Only Deomyinae rodents can regenerate complex tissues.

Precise cell manipulation technologies are advancing but still face challenges in improving accuracy for medical use.

The microenvironment, especially mechanical forces, plays a crucial role in hair growth and could lead to new treatments for hair loss.

Sensory neuron changes and Merkel-cell changes in the skin happen independently during normal skin maintenance.

Spiny mice have a unique skin structure that helps them heal and regenerate quickly.

Mechanotransduction aids healthy wound healing by promoting specific fibroblasts.

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

Hair follicles respond differently to pulling forces in various regions.

Human hair has a complex, variable structure with a consistent matrix and double-twist pattern.

The hairy ear mutation in mice is linked to changes in gene expression affecting hair growth.

Mechanical stimulation and new therapies show promise for hair regrowth.

The torsional method effectively evaluates hair damage and the performance of hair care ingredients.

The dressing can track joint movement and speed up healing of joint wounds.

Engineering the cell microenvironment is key for advancing tissue engineering and regenerative medicine.

Potential compounds may inhibit hair loss by targeting a non-androgen pathway.

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