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Hair patterns in mice are controlled by both a global system dependent on Fz6 and a local self-organizing system.

Feather patterns form through genetic and epigenetic controls, with cells self-organizing into periodic patterns.

Nanocarriers could improve how drugs are delivered through the skin but require more research to overcome challenges and ensure safety.

The conclusion is that skin and hair patterns are formed by a mix of cell activities, molecular signals, and environmental factors.

The conclusion is that understanding how patterns form in biology is crucial for advancing research and medical science.

The conclusion is that understanding how feathers and hairs pattern can help in developing hair regeneration treatments.

Skin patterns are formed by simple reaction-diffusion mechanisms.

Hair follicles help magnesium get through the skin more effectively.

Lymphatic vessels are essential for hair follicle growth and skin regeneration.

Gene network oscillations inside hair stem cells are key for hair growth regulation and could help treat hair loss.

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

The study showed that hair follicle stem cells can maintain and organize themselves in a lab setting, keeping their ability to renew and form hair and skin.

Researchers created early-stage hair-like structures from skin cells, showing how these cells can self-organize, but more is needed for complete hair growth.

Hair stem cell regeneration is controlled by signals that can explain different hair growth patterns and baldness.

Stem cell niches are adaptable and key for tissue maintenance and repair.

Current methods can't fully recreate skin and its features, and more research is needed for clinical use.

Understanding hair growth involves complex factors, and more research is needed to improve treatments for hair loss conditions.

Hair grows faster in the morning and is more vulnerable to damage from radiation due to the internal clock in hair follicle cells.

Researchers created a fully functional, bioengineered skin system with hair from stem cells that successfully integrated when transplanted into mice.

Wnt1a helps keep cells that can grow hair effective for potential hair loss treatments.

Lecithin organogels could be good for applying drugs to the skin because they are stable, safe, and can improve drug absorption.

Certain mature cells in mouse lungs can turn back into stem cells to aid in tissue repair.

The document concludes that for hair and feather growth, it's better to target the environment around stem cells than the cells themselves.

The document concludes that understanding hair and feather regeneration can help develop new regenerative medicine strategies.

Environmental factors at different levels control hair stem cell activity, which could lead to new hair growth and alopecia treatments.

Different cell types work together to repair skin, and targeting them may improve healing and reduce scarring.

The conclusion is that hair growth can be improved by activating hair cycles, changing the surrounding environment, healing wounds to create new hair follicles, and using stem cell technology.

Stem cell plasticity is crucial for wound healing but can also contribute to cancer development.

Advancements in creating skin grafts with biomaterials and stem cells are promising, but more research is needed for clinical application.

Sex hormones, especially estradiol, can change chicken feather shapes and colors.