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Extracts from three Polynesian plants were found to promote hair growth by affecting cell growth and gene expression related to hair.

The document reports findings on genetic research, including ethical concerns about genome editing, improved diagnosis of mitochondrial mutations, solving inherited eye diseases, confirming gene roles in epilepsy, linking a gene to aneurysms, and identifying genes associated with age-related macular degeneration.

Hair loss in Androgenetic alopecia (AGA) is due to altered cell sensitivity to hormones, not increased hormone levels. Hair growth periods shorten over time, causing hair to become thinner and shorter. This is linked to miscommunication between cell pathways in hair follicles. There's also a change in gene expression related to blood vessels and cell growth in balding hair follicles. The exact molecular causes of AGA are still unclear.

MC1R gene variations affect skin, hair color, UV sensitivity, and melanoma risk.

CD2 might be a new treatment target for patchy alopecia areata.

A gene variant increases the risk of a type of hair loss by affecting hair protein production.

Sphingosine 1-phosphate affects inflammation and gene expression in different aorta cells.

Improving CRISPR/Cas systems can make gene editing more efficient and precise.

Foxn1 gene regulation is crucial for thymus development but not for hair growth.

Two gene variants cause white spots in cattle.

CRISPR gene editing reduces harmful molecules in cells from Emery–Dreifuss Muscular Dystrophy patients.

A specific gene variant is linked to a higher risk of hair loss from chemotherapy in breast cancer patients.

The KRTAP19-5 gene affects wool curvature in Chinese Tan sheep, with Variant B reducing curvature.

EDA2R is a key gene linked to ageing and diseases, and targeting it may help treat conditions like hair loss and chronic diseases.

Rare ULBP3 gene changes may raise the risk of Alopecia areata, a certain FAS gene deletion could cause a dysfunctional protein in an immune disorder, and having one copy of a specific genetic deletion is okay, but two copies cause sickle cell disease.

Using deep learning to predict gene expression from images could help assess colorectal cancer metastasis.

S1PR1 helps control inflammation in blood vessel cells by affecting gene activity differently in various cell types and locations.

Dysplastic nevi have unique gene expressions, making them distinct from common melanocytic nevi.

Certain genes are more active in baby scalp cells and can help grow hair when added to adult mouse skin cells.

The CAP1 gene helps control ammonium levels and is necessary for the proper growth of root hairs in Arabidopsis.

The peach gene CTG134 helps control the interaction between auxin and ethylene, which could lead to new agricultural chemicals.

Hairless mammals evolved quickly in both gene and non-gene areas related to skin and hair.

Mutations in the glucocorticoid receptor gene cause reduced sensitivity to glucocorticoids and may lead to poor response to treatment.

Roots adapt to uneven environments by changing growth and gene expression.

Cashmere quality differences are due to gene expression variations affecting hair development and adaptation to cold.

Feather diversity is due to different keratin gene combinations, and chickens can help study human keratin diseases.

Gsdma3 affects hair growth by controlling Wnt5a, which influences hair cell development.

Increased methylation of the Filip1l gene may contribute to aggressive skin cancer.

Higher miR-34a levels and the A variant of the MIR-34A gene are linked to increased risk and severity of alopecia areata.

CEP135 may predict cancer outcomes, and targeting PLK1 could help treat certain sarcomas.