Restoring testosterone levels by adding dehydroepiandrosterone to a drospirenone containing combined oral contraceptive: II Clinical effects

Objectives: Combined oral contraceptives (COCs) decrease androgen levels, including testosterone (T), which may be associated with sexual dysfunction and mood complaints in some women. We have shown that co-administration of dehydroepiandrosterone (DHEA) to a drospirenone (DRSP) containing COC restored total T levels to baseline and free T levels by 47%. Here we describe the effects on sexual function, mood and quality of life of such an intervention. Study design: This was a randomized, double-blind, placebo-controlled study in 99 healthy COC starters. A COC containing 30 μg ethinylestradiol (EE) and 3 mg DRSP was used for 3 cycles, followed by 6 cycles of the same COC combined with 50 mg/day DHEA or placebo. Subjects completed the Moos Menstrual Distress Questionnaire (MDQ), the McCoy Female Sexuality Questionnaire (MFSQ) and the short form of the Quality of Life Enjoyment and Satisfaction Questionnaire (Q-LES-Q). Safety and tolerability, including effects on skin were evaluated. Results: The addition of DHEA induced small, but significant improvements compared to placebo in the MDQ score for: Autonomic reactions during the menstrual (- 2.0 vs 0.71; P = 0.05) and the pre-menstrual phase (- 3.1 vs 2.9; P = 0.01); and for Behavior during the inter-menstrual phase (- 1.4 vs 3.6; P = 0.02). A significant difference was found in the MDQ score for arousal during the pre-menstrual phase in favor of placebo (- 5.0 vs 1.0; P = 0.01). There were no statistically significant differences between groups for the MSFQ and Q-LES-Q scores. DHEA co-administration resulted in an acceptable safety profile. DHEA negated the beneficial effect of the COC on acne according to the subjects' self-assessment. Conclusions: Co-administration with DHEA did not result in consistent improvements in sexual function, mood and quality of life indicators in women taking EE/DRSP. Retrospectively, the 50 mg dose of DHEA may be too low for this COC. Implications: A well-balanced judgment of the clinical consequences of normalizing androgens during COC use may require complete normalization of free T

Restoring testosterone levels by adding dehydroepiandrosterone to a drospirenone containing combined oral contraceptive: I Endocrine effects

Objectives: Combined oral contraceptives (COCs) decrease testosterone (T) levels. This study investigated restoration of T and other androgen concentrations during COC use by co-administration of dehydroepiandrosterone (DHEA). Study design: In this randomized, double-blind, placebo-controlled study in 99 new COC starters (18-35 years old with BMI range 18-34 kg/m2), a COC containing 30 μg ethinylestradiol (EE) and 3 mg drospirenone (DRSP) was used for 3 cycles, followed by 6 cycles of the same COC combined with either 50 mg/day DHEA or placebo. Total T, albumin, sex hormone-binding globulin (SHBG), DHEA-sulfate (DHEA-S), Δ4-androstenedione (AD), 3α-androstanediol glucuronide (ADG) and estradiol (E2) were measured, whereas free T and the free T index (FTI) were calculated. Assessments took place at baseline (no COC use), after the run-in period (COC use alone) and during the treatment period (DHEA or placebo). Results: During COC use alone androgen levels decreased, especially total T by 62% and free T by 86%, and SHBG increased by 243%. Total T increased with DHEA compared to placebo (change from end of run-in period to end of treatment period: 1.3 ± 1.2 nmol/L vs 0.0 ± 0.4 nmol/L; P < 0.0001), and was restored to baseline levels. Free T and the FTI increased significantly (P < 0.0001), but the free T level was still 53% below baseline levels. DHEA-S, AD and ADG increased significantly to levels above baseline (P < 0.0001 for each). DHEA had no effect on SHBG, albumin and E2. Conclusions: An EE/DRSP containing COC strongly suppressed endogenous androgen concentrations in all users. The addition of 50 mg DHEA to a COC regimen containing EE/DRSP restored total T to baseline levels, but free T levels were restored by only 47% as most of the T remains bound to SHBG. Implications: When using a COC that increases SHBG considerably, a daily dose of 50 mg DHEA is insufficient to normalize free T levels completely

A tumor cell specific Zona Pellucida glycoprotein 3 RNA transcript encodes an intracellular cancer antigen

BackgroundExpression of Zona Pellucida glycoprotein 3 (ZP3) in healthy tissue is restricted to the extracellular Zona Pellucida layer surrounding oocytes of ovarian follicles and to specific cells of the spermatogenic lineage. Ectopic expression of ZP3 has been observed in various types of cancer, rendering it a possible therapeutic target.MethodsTo support its validity as therapeutic target, we extended the cancer related data by investigating ZP3 expression using immunohistochemistry (IHC) of tumor biopsies. We performed a ZP3 transcript specific analysis of publicly available RNA-sequencing (RNA-seq) data of cancer cell lines (CCLs) and tumor and normal tissues, and validated expression data by independent computational analysis and real-time quantitative PCR (qPCR). A correlation between the ZP3 expression level and pathological and clinical parameters was also investigated.ResultsIHC data for several cancer types showed abundant ZP3 protein staining, which was confined to the cytoplasm, contradicting the extracellular protein localization in oocytes. We noticed that an alternative ZP3 RNA transcript, which we term ‘ZP3-Cancer’, was annotated in gene databases that lacks the genetic information encoding the N-terminal signal peptide that governs entry into the secretory pathway. This explains the intracellular localization of ZP3 in tumor cells. Analysis of publicly available RNA-seq data of 1339 cancer cell lines (CCLs), 10386 tumor tissues (The Cancer Genome Atlas) and 7481 healthy tissues (Genotype-Tissue Expression) indicated that ZP3-Cancer is the dominant ZP3 RNA transcript in tumor cells and is highly enriched in many cancer types, particularly in rectal, ovarian, colorectal, prostate, lung and breast cancer. Expression of ZP3-Cancer in tumor cells was confirmed by qPCR. Higher levels of the ZP3-Cancer transcript were associated with more aggressive tumors and worse survival of patients with various types of cancer.ConclusionThe cancer-restricted expression of ZP3-Cancer renders it an attractive tumor antigen for the development of a therapeutic cancer vaccine, particularly using mRNA expression technologies

A multicenter, randomized study to select the minimum effective dose of estetrol (E4) in postmenopausal women (E4Relief): part 1. Vasomotor symptoms and overall safety.

peer reviewed[en] OBJECTIVE: The aim of this study was to select the minimum effective dose of estetrol (E4) for the treatment of vasomotor symptoms in postmenopausal women. METHODS: This was a multicenter, randomized, double-blind, placebo-controlled study. Postmenopausal women (n = 257, of whom 32 were hysterectomized) aged 40 to 65 years, with ≥7 moderate to severe hot flushes (HFs) per day, or 50 or more moderate to severe HFs weekly, received 2.5, 5, 10, or 15 mg E4, or placebo once-daily for a period of 12 weeks. Efficacy was assessed by recording the frequency and severity of HFs. Overall safety was assessed by recording adverse events, measuring endometrial thickness, and monitoring bleeding patterns. Treatment groups were compared using analysis of covariance. RESULTS: The frequency of moderate to severe HFs decreased with all E4 doses. The difference in the percentage change of weekly HF frequency was significant for 15 mg E4 versus placebo at both W4 (-66% vs -49%, P = 0.032) and W12 (-82% vs -65%, P = 0.022). The decrease in severity of HFs was significantly more pronounced for 15 mg E4 than for placebo at both W4 (-0.59 vs -0.33, P = 0.049) and W12 (-1.04 vs -0.66, P = 0.049); the other doses failed to achieve statistical significance. In nonhysterectomized women, endometrial thickness increased during treatment and normalized following progestin treatment at study completion. No endometrial hyperplasia was observed. CONCLUSIONS: Estetrol 15 mg is considered to be the minimum effective daily oral dose for treatment of vasomotor symptoms. Its current seemingly favorable safety profile is further to be confirmed in phase 3 clinical development. : Video Summary:http://links.lww.com/MENO/A591.Video Summary:http://links.lww.com/MENO/A591

Premature luteinization in in vitro fertilization cycles using gonadotropin-releasing hormone agonist (GnRH-a) and recombinant follicle- stimulating hormone (FSH) and GnRH-a and urinary FSH

Objective: To determine if premature luteinization can occur in GnRH agonist (GnRH-a) and FSH (recombinant FSH and human urinary FSH) IVF cycles and whether premature luteinization affects IVF and clinical outcome. Design: Retrospective evaluation of 171 IVF-ET cycles. The cycles were divided into two groups according to the P level on the day of hCG: group I (serum P ≤ 0.9 ng/mL [conversion factor to SI unit, 3.180]) and group II (serum P ≤ 1.1 ng/mL). Main Outcome Measures: Comparison of cycles characteristics and of cumulative exposure of follicular serum E2, FSH, LH, and P as well as of IVF and clinical outcome were made between the study groups. Results: Twenty- three of 171 cycles (13.4%) demonstrated premature luteinization. The age of the patients, the E2, and LH exposure were similar between the groups. The number of the ampules of gonadotropins (recombinant FSH and urinary FSH) used and the area under FSH and P curve were higher in cycles with premature luteinization. The area under the FSH curve correlated with the area under the P curve. Similar IVF and clinical outcomes were observed in cycles with and without premature luteinization. Conclusion: The greater FSH exposure and its correlation with the P exposure suggest that one of the possible factors inducing premature luteinization is the increased FSH-induced LH receptivity in granulosa cells. No adverse effects of premature luteinization on the IVF and clinical outcome were observed.SCOPUS: ar.jinfo:eu-repo/semantics/publishe

Desogestrel plus testosterone effectively suppresses spermatogenesis but also causes modest weight gain and high-density lipoprotein suppression

OBJECTIVE: To test the hypothesis that oral desogestrel (DSG) plus testosterone would uniformly and rapidly suppress sperm concentrations in young men as effectively as levonorgestrel (LNG) plus testosterone and cause less high-density lipoprotein (HDL) suppression and weight gain. DESIGN: Single-blind, randomized trial. SETTING: VA Puget Sound and University of Washington, Seattle, Washington. PATIENT(S): Twenty-four healthy young men, aged 20-49. INTERVENTION(S): Subjects were randomized to three groups of men who were administered 6 months of therapy with oral DSG plus im testosterone enanthate: 150 microg of DSG plus 50 mg of testosterone (DSG 150-T 50), 150 microg of DSG plus 100 mg of testosterone (DSG 150-T 100) or 300 microg of DSG plus 100 mg of testosterone (DSG 300-T 100). We compared these three groups to two groups of historical controls of 100 mg of im testosterone alone or 150 microg of oral LNG plus 100 mg of im testosterone (LNG 125-T 100 group) enrolled in similar studies. MAIN OUTCOME MEASURE(S): Suppression of sperm counts to severe oligoazoospermia (sperm counts <1 x 10(6)/mL) and azoospermia, weight gain, and serum high-density cholesterol (HDL) suppression. RESULT(S): Azoospermia was achieved in all eight men receiving DSG 150-T 100 and seven of the eight men in the DSG 300-T 100 group. DSG 150 or 300 plus T 100 suppressed spermatogenesis as effectively as LNG 125-T 100 and more effectively than DSG 50-T 100 or testosterone alone. All groups tended to gain weight compared with their baseline, but the weight gain was greatest (and statistically significant) in the DSG 150-T 100, DSG 300-T 100, and LNG 125-T 100 groups. Serum HDL levels were modestly suppressed in all groups, and this effect was greatest in the DSG 300-T 100 and LNG 125-T 100 groups. CONCLUSION(S): The combination of DSG plus testosterone is a very effective regimen for suppression of spermatogenesis and has acceptably low side effects

Maintaining physiologic testosterone levels during combined oral contraceptives by adding dehydroepiandrosterone: II. Effects on sexual function. A phase II randomized, double blind, placebo-controlled study

To evaluate the effect of combined oral contraceptives (OCs) on sexual function, either alone or together with DHEA. An exploratory randomized, double-blind, placebo-controlled, comparative, crossover study was conducted in 81 OC users. Subjects discontinued their OC for one cycle before being randomized for 10cycles to a 30μg ethinyl estradiol (EE)/levonorgestrel (LNG) OC or a 30μg EE/drospirenone (DRSP) OC, along with daily use of 50mg dehydroepiandrosterone (DHEA) or placebo during 5 OC cycles before crossing over from DHEA to placebo or the reverse for another 5cycles. First the effect on sexual function of 5 OC cycles + placebo was compared to baseline. Then, the effect of 5 OC cycles + DHEA was compared to the OC+placebo. Results regarding endocrine changes have been published separately. Primary efficacy outcomes of the current study were genital response (measured by vaginal pulse amplitude [VPA]) and sexual feelings (measured by the subjective self-assessment questionnaire [SSAQ]) to self-induced erotic fantasy and visual sexual stimuli in a laboratory setting and measures of desire and arousability using a sexual function diary (SFD). Secondary efficacy outcomes were the Female Sexual Function Index (FSFI) and the Female Sexual Distress Scale Revised (FSDS-R). Eighty-one women were enrolled and 74 women completed the study. Five cycles of OC+placebo resulted in a significant decline compared to baseline of four out of six SFD self-ratings of sexual desire and arousability with both OCs. The LNG OC also resulted in significant declines in the FSFI scores (baseline vs LNG OC+placebo: Total score, 28.7±3.7 vs 25.6±7.4; Arousal, 5.0±0.7 vs 4.5±1.4; Lubrication, 5.2±0.9 vs 4.6±1.7; Pain, 4.9±0.9 vs 4.5±1.4), but no changes were observed using the DRSP OC. In the laboratory setting, five cycles of OC+DHEA showed no significant differences with placebo except for a significant increase in genital sensations (SSAQ) during erotic fantasy (OC+placebo vs OC+DHEA: 3.3±1.4 vs 3.6±1.5; p <.05). No significant changes were observed for genital response (VPA) and the other two variables of the SSAQ assessed after visual erotic stimulus exposure. Using the SFD, 5 out of 10 variables showed a significant improvement with DHEA. Partner's initiative was rejected less often with OC+DHEA compared to placebo (OC+placebo vs OC+DHEA: 1.1±1.5 vs 0.8±1.0; p <.05). Women with free testosterone levels in the upper quartile during DHEA co-administration showed significantly better effects on sexual arousal and desire compared to the three lower quartiles (lower vs upper quartiles: Sexual arousability: 25.0±19.8 vs 41.2±29.0; Sexual desire: 5.6±3.7 vs 9.6±8.0; Desire for sex with partner: 4.9±3.1 vs 8.6±7.4; Number of sex fantasies: 3.0±3.2 vs 5.5±4.4; all p <.05). In this exploratory study, OC use was associated with decreases in some measures of sexual functioning, whereas others remained unchanged. Maintaining or restoring physiological testosterone concentrations by the co-administration of DHEA to the OC may prevent these effects on sexuality, particularly in women with relatively high, but physiologic levels of free testosterone during DHEA co-administration. The results of this exploratory study warrant further testing of the hypothesis that restoration and/or preservation of physiologic testosterone levels during OC use by co-administration of DHEA has favorable effects on those aspects of sexual function compromised by OC