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The junction of the inner and outer prepuce with good blood flow is ideal for surgical flaps.

Hair structure worsens as tumors grow in mice.

The new biomaterial helps grow blood vessels and hair for skin repair.

Hairless mice have longer hair follicles and abnormal structures during the catagen phase.

Microneedles show promise for cancer diagnosis and treatment due to their minimally invasive nature and effective drug delivery.

The skin has two main layers, the epidermis and dermis, which work together and are essential for diagnosing skin conditions.

AFM helps study hair surfaces for dermatology, cosmetics, and forensics.

Human-induced stem cell-created skin models can help understand skin diseases by studying the skin's layers.

Examining scalp tissue under a microscope helps diagnose and understand hair loss diseases.

New techniques can record electromagnetic fields in hair follicles for potential medical use.

New imaging technologies help us see how stem cells work in living animals.

New hair and scalp disease diagnosis methods are important for correct treatment.

Alopecia causes smaller hair follicles and affects growth-related structures.

Confocal Raman microscopy can effectively study drug delivery in hair follicles using pig ear models.

Plastic surgeons need to understand skin anatomy and physiology to effectively treat aging and diverse skin types.

Understanding how new blood vessels form is key to treating heart disease and other health problems.

Two-photon microscopy effectively tracks live stem cell activity in mouse skin with minimal harm and clear images.

The concentric mini-micrografting method is effective for extensive baldness, creating a natural look and efficiently using donor hair.

A new method quickly creates controllable cell clusters for tissue engineering and drug testing.

Special astroglia cells improved stroke recovery in rats, a hair growth drug reduced cancer spread, and tiny magnesium structures were more easily shaped.

Reduced alpha smooth muscle actin may cause hair loss in androgenetic alopecia.

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

Miniaturized hairs stay connected to muscle in alopecia areata, allowing possible regrowth, but not in androgenetic alopecia.

Multiphoton microscopy can non-invasively tell apart scarring from non-scarring hair loss and could aid in treatment.

The connective tissue around hair follicles changes structure throughout the hair cycle.

The method shows how hair lipids form specific patterns and their roles in hair structure.

The study found that balding scalps have more thin hairs and larger oil glands, which might contribute to skin conditions related to hair loss.

Accurate clinical, histological, and genetic methods are key for understanding and treating hair disorders.