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Scarred skin in lichen planopilaris loses immune cells due to a decrease in a specific protein in skin cells.

Lichen planopilaris involves disrupted fat metabolism, increased scarring, and mast cell activity.

A gene mutation in mice causes hair loss, weak bones, and protein buildup, showing how protein processing issues can lead to diseases.

The research identified unique metabolic activities in immune cells associated with hair loss in Alopecia Areata.

SSAT is a key enzyme affecting cell growth and metabolism, with potential but risky use in disease treatment.

Certain genetic changes in the LSS gene cause a rare skin and hair condition.

Lysine carboxymethyl cysteinate (LCC) protects skin from UVB damage by activating autophagy.

The study suggests that changes in immune system receptors and their interaction with a cell component may be important in the development of a type of hair loss condition.

Collagen XVII and CD151 affect cell movement, with CD151 inhibiting migration when bound to integrins.

LLPS is crucial for RALF signaling, aiding plant growth and stress resilience.

Linoleic acid and magnesium are key in alopecia areata progression, and tofacitinib can help by affecting their pathway.

Phosphatide distribution in mouse skin remains consistent in both normal and cancerous growths.

A genetic mutation in the LIPH gene causes hair loss and growth defects.

Basement membrane changes in lichen planopilaris cause scarring and permanent hair loss.

PLAU and SerpinB2 affect cell death differently in various forms of leprosy and could be targets for new treatments.

Linoleic acid and magnesium are key in alopecia areata progression, and tofacitinib can help by affecting their pathway.

Arg1+ macrophages may play a role in causing alopecia areata.

Scarring alopecia involves increased immune cells and specific gene changes near damaged hair follicles.

hsa-miR-193a-5p may help diagnose and treat alopecia areata.

Mitochondrial dysfunction may contribute to chronic inflammation and immune system issues in Lichen planopilaris.

The HtrA1L364P mutation causes brain dysfunction and blood vessel damage.

Truncated LTBP-1 disrupts TGF-beta signaling, affecting hair growth.

CD8+ T cells expand significantly in alopecia areata, suggesting new treatment targets.

ALDOA levels drop in hair cells during hair loss.

Non-immune factors play a significant role in alopecia areata.

A new genetic variant in the LIPH gene causes hair growth issues in a Chinese patient.

The C-terminal tail of AHF/trichohyalin is essential for organizing keratin filaments in keratinocytes.

Targeting immune pathways like JAK/STAT may help treat frontal fibrosing alopecia.

Mutations in Plcd1 and Plcd3 together cause severe hair loss in mice.

The NIPAL4 mutation c.527C>A is common in Romanian patients with autosomal recessive congenital ichthyosis.