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Two non-steroidal antiandrogens, RU 58841 and RU 56187, form a common metabolite at different rates, which may influence their effects; RU 56187 could be used for prostate cancer treatment and RU 58841 for acne treatment.

AKR1D1 controls glucocorticoid levels and receptor activity in liver cells.

5α-reductases increase epitestosterone's effect on androgen receptors.

Two enzymes regulate androgen receptor activity, affecting treatments for androgen insufficiency and benign prostatic hyperplasia.

Certain inhibitors can potentially treat prostate cancer and other hormone-dependent conditions by controlling sex hormone levels in cells.

The skin's ability to produce hormones is linked to various skin conditions, and better understanding this process could lead to new treatments.

Steroidogenesis inhibitors change but don't stop androgen production in prostate cancer.

Human sebaceous glands contain enzymes that affect androgen production and may influence sebum production and acne.

11α-Hydroxyprogesterone is changed into different substances by certain enzymes and may play a role in prostate cancer.

Certain amino acids in 5AR1 and 5AR2 are crucial for binding and resistance to Finasteride.

Gut bacteria affect steroid levels, influencing health conditions and potential treatments.

Testosterone, progesterone, and levonorgestrel change enzyme levels related to fat production in hamster skin, which could affect skin oil and acne.

Diet changes hormone levels in pregnant ewes by affecting metabolism, not placental synthesis.

Steroid-producing capabilities in certain cancers may contribute to treatment resistance.

Aspergillus niger culture creates two finasteride derivatives with enzyme-inhibiting effects.

Human adrenals and gonads have a unique enzyme for steroid hormone production.

Lack or blocking of SRD5a, a key component in hormone creation, can lead to conditions like pseudohermaphrodism and affect hair growth, bone mass, muscle strength, and reproductive health. More research is needed on its regulation from fertilization to adulthood.

Beard hair follicles convert testosterone to 5α-dihydrotestosterone most intensively.

In STSD patients, the body compensates for low androgen levels by increasing another enzyme's activity.

Heart-specific steroid metabolism is crucial in cardiac hypertrophy.

A new compound with strong antiandrogenic effects was found, potentially useful for treating conditions like acne and prostate cancer.

Genetic defects in testosterone production can cause hormonal and developmental disorders, and more research is needed to understand androgen regulation and develop safer treatments.

The P133R mutation in AKR1D1 enzyme causes harmful bile acid buildup, explaining related health issues.

Men with male-pattern baldness have higher levels of certain testosterone metabolites and may have more active androgen metabolism.

The enzyme steroid sulfatase is linked to breast cancer and other conditions, and inhibitors are being developed for treatment.

Natural 5α-reduced glucocorticoids might be anti-inflammatory with fewer side effects than current options.

Epristeride's metabolism involves key metabolites and proteins, affecting its use in doping tests.

Chromosomal differences affect how muscle cells respond to testosterone.

Taking 5α-reductase inhibitors with prednisolone can worsen its negative effects on metabolism.

Human skin can produce steroids from cholesterol.