Search

everythinglearnresearchcommunity

for

Search:↓

A new hair loss treatment theory beyond minoxidil and finasteride is proposed, causing mixed reactions in the community, with some members eager to explore and support it, while others call for more research and evidence.

Feeding bacteria-free mice with Lactobacillus murinus worsened hair loss, but a regular diet with biotin stopped it. The conversation suggests gut bacteria and diet may influence hair loss, with some skepticism and discussion about other factors like DHT and genetics.

Micronutrient testing and deficiencies related to hair loss, particularly androgenetic alopecia (AGA). Discussion includes the impact of iron, selenium, zinc, copper, folate, B12, vitamin E, vitamin D, amino acids, and fatty acids, alongside treatments like dutasteride or finasteride.

Vitamin D deficiency is linked to hair loss, and supplementation with vitamin D can improve conditions like androgenic alopecia and telogen effluvium. Users discussed various dosages of vitamin D, emphasizing the importance of getting blood tests to determine the appropriate amount.

Diffuse hair loss is often linked to genetics but can also be due to health issues like thyroid problems and low vitamin or iron levels. Treatments include finasteride, minoxidil, and dutasteride, with some seeing improvements after addressing health issues.

The conversation discusses a patent filed by Shiseido for cloning Dermal Papilla (DP) cells to treat hair loss. The method involves using viral vectors to maintain the cells' growth-inducing properties, differing from Replicel's approach with Dermal Sheath Cup (DSC) cells.

A user proposed genetically engineering scalp stem cells to stop androgen receptors from causing hair loss. Others discussed the feasibility, existing research, and potential issues with this approach, including targeting the correct cells and unintended effects.

Hair regrowth treatment involving 3aHSD enzyme shows 6% improvement in 18 weeks. Sulforaphane, L-Menthol, and Dexpanthenol are potential ingredients for new hair loss solution.

Finasteride and oral minoxidil effectively maintain a youthful appearance and full head of hair, despite genetic predispositions to balding. The discussion also considers the impact of DHT blockers on masculinity and aging, with lifestyle choices like sunscreen use and a vegetarian diet mentioned.

A 22-year-old male with hair loss is considering treatments like finasteride, minoxidil, and derma rolling after being diagnosed with MPB, vitamin D deficiency, and dandruff. He seeks advice on whether these treatments can realistically improve his hair density and achieve a healthier NW2.

The conversation discusses hair loss treatments, specifically mentioning Minoxidil, finasteride, and RU58841, and highlights hair multiplication research from Koehler Lab at Harvard. Users express optimism about future advancements.

The conversation discusses androgenetic alopecia (AGA) and questions why treatments focus on lowering DHT levels instead of building resistance to it. It also touches on hair transplantation techniques using body hair.

The conversation discusses whether finasteride's reduction of DHT and increase in scalp testosterone contribute to hair follicle miniaturization. Some participants argue testosterone does not cause miniaturization, while others suggest that even with reduced DHT, other androgens like testosterone may still contribute to hair loss.

The user experienced reduced hair loss using an online serum but found it too expensive and is seeking a vendor for ptd-dbm. They are also interested in KY19382 but are unable to find it.

Hair cloning technology is advancing, with clinical trials for improved methods expected by 2028 and 2029, potentially offering a solution for hair loss if donor follicles remain. Organtech's expansion into other biotech areas may secure funding, but the effectiveness of cloning depends on the availability of androgen-resistant donor follicles.

Gym and creatine can cause hair loss by increasing testosterone and androgenic activity. DHT blockers may help some, while others need androgen suppression with topical AA like RU or Pyri.

Hair loss treatments like Dutasteride, RU58841, and Minoxidil may not work for everyone, as some individuals experience no improvement despite extensive use and research. Genetic factors can play a significant role, and standard treatments may not be effective for all.

Hair loss treatments discussed include Minoxidil, Finasteride, and RU58841. HMI-115, a monoclonal antibody drug, is in phase 1 and 2 trials for different conditions, but its availability on the gray market is unlikely due to high production costs.

A 16-year-old is experiencing hair loss and is using minoxidil, finasteride, and plans to add RU58841, while considering other treatments like MK-677 and microneedling. Concerns are raised about the potential impact of these treatments on puberty and development.

PP405 shows initial promise for treating androgenetic alopecia, with safety confirmed in early trials, but skepticism remains due to limited data. Further trials are needed to determine its true efficacy and potential market impact.

A 25-year-old experiencing genetic hair loss used minoxidil, biotin, and cystine but stopped due to routine fatigue, leading to worsened hair loss and unwanted body hair growth. They are hesitant about finasteride due to potential side effects and are seeking advice on effective treatments.

How androgens, including testosterone, can cause hair follicles to miniaturize in people with sensitivity to androgens, and treatments such as finasteride, dutasteride, minoxidil, RU58841, or fluridil may be used in combination for long-term treatment.

Blocking DHT is not a complete solution for hair loss; instead, altering the scalp's response to DHT may be more effective. Topical finasteride and minoxidil are current treatments, but future approaches may involve bioengineering, gene therapy, and inflammation control.

Melatonin's effect on aromatase expression is unclear, with studies showing both increases and decreases. Hormonal impacts are complex and inconsistent, similar to changing health advice on other substances.

miR-205, a tiny RNA, can stimulate hair growth by softening aging hair follicle stem cells in mice. Future tests aim to see if this can work in humans.

High-dose Lysine and Histidine supplements caused curly/kinky hair and shedding due to Elastin dysfunction. Minoxidil, white tea, and dark grape juice were mentioned as treatments to inhibit Elastase and mimic Lysyl Oxidase.

The conversation humorously discusses hair loss treatments, mentioning Minoxidil, finasteride, and RU58841. It suggests that affordable genetic therapy could be the ultimate solution.

Minoxidil can stimulate hair growth but does not prevent long-term hair loss, while finasteride or dutasteride is necessary to address DHT and maintain hair. Family hair history may not predict individual outcomes, and combining treatments like microneedling can enhance results.

A quercetin-encapsulated and polydopamine-integrated nanosystem (PDA@QLipo) shows promise for treating androgenetic alopecia by reshaping the perifollicular microenvironment, outperforming minoxidil in hair regeneration. The nanosystem promotes cell proliferation, hair follicle renewal, and recovery by scavenging reactive oxygen species and enhancing neovascularity.

The conversation discusses GT20029, a drug in Phase II trials that targets androgen receptors with minimal systemic effects, and TDM-105795, a growth stimulant with a different mechanism than minoxidil that may revive papilla stem cells. Both are potential new treatments for hair loss.