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Keratin 2e shows a unique pattern in developing fetal skin, different from other keratins.

A specific protein in chicken embryos links early skin layers to feather development.

Foxi3 expression in developing teeth and hair is controlled by the ectodysplasin pathway.

The skin is vital for protection, temperature control, fluid balance, immunity, and sensing, with damage affecting daily life and mental health.

Birds can regenerate inner ear hair cells from supporting cells, and mammals show potential for similar regeneration.

Epidermal nevi are skin cell clusters linked to various syndromes.

ES cell-derived stem cells can help regenerate skin and form gland-like structures.

The epidermis is crucial for hair growth.

Reptile skin hardens by layering beta-proteins on keratin.

Progress has been made in skin and nerve regeneration, but more research is needed to improve methods and ensure safety.

Merkel cells stabilize nerve endings in the skin, and they change independently of each other.

Ets2 gene is crucial for placental development in mice.

The first pediatric case of naevus trichilemmocysticus was documented.

Hoxc8 gene helps start mammary gland development by controlling specific signals.

Hair follicle stem cell exosomes help nerve regeneration.

Scientists used stem cells to create a model of the skin disease Epidermolysis Bullosa simplex, which helped them understand its molecular mechanisms and could aid in finding treatments.

Merkel cells develop independently of nerves and are linked to specific hair follicles in mice.

Hair follicle stem cell exosomes help nerve regeneration.

Stem cells in eccrine glands could be used for regenerative medicine.

Keratin 17 is important for skin development and may help define skin cell types.

Basal layer skin cells help form the epidermis and hair follicles.

Ectodermal dysplasia causes various symptoms and early treatment is important for eye, dental, and skin issues.

Reptile scales help us understand the evolution of skin features like hair and feathers.

Different body areas in mice produce different hair types due to interactions between skin layers.

Dental pulp stem cells might not reliably become neurons.

Scientists created a long-lasting stem cell line from human hair that can turn into different skin and hair cell types.

The cornified envelope is crucial for skin's barrier function and involves key proteins and genetic factors.

Deleting the Hoxc13 gene in frogs shows its crucial role in developing skin structures similar to hair.

Feather patterns in birds are shaped by signaling interactions and cell movements, with EDA/EDAR crucial for pattern formation.