Effects of treatment with testosterone alone or in combination with estrogen on insulin sensitivity in postmenopausal women. Treatment with percutanous testosterone gel in postmenopausal women with decreased libido--effects on sexuality and psychological general well-being. Testosterone enhances estradiol's effects on postmenopausal bone density and sexuality. Influence of methyltestosterone postmenopausal therapy on plasma lipids, inflammatory factors, glucose metabolism and visceral fat: a randomized study. A double-blind, randomized, placebo-controlled trial of the effect of testosterone cream on the sexual motivation of menopausal hysterectomized women with hypoactive sexual desire disorder. The benefits of androgens combined with hormone replacement therapy regarding to patients with postmenopausal sexual symptoms. Addition of testosterone to estrogen replacement therapy in oophorectomized women: effects on sexuality and well-being. Efficacy and safety of a testosterone patch for the treatment of hypoactive sexual desire disorder in surgically menopausal women: a randomized, placebo-controlled trial. Serum lipids in oophorectomized women during estrogen and testosterone replacement therapy. Effects of androgen supplementation of hormone replacement therapy on the vascular reactivity of cerebral arteries. Transdermal testosterone treatment in women with impaired sexual function after oophorectomy. Testosterone patch for low sexual desire in surgically menopausal women: a randomized trial. Testosterone patch increases sexual activity and desire in surgically menopausal women with hypoactive sexual desire disorder. Effect of hormone replacement therapy on cardiovascular risk factors in postmenopausal women with diabetes. Influence of 1,25 dihydroxycholecalciferol on sexual dysfunction and related endocrine parameters in patiens on maintenance hemodialysis. Testosterone inhibits estrogen/progestogen-induced breast cell proliferation in postmenopausal women. DHEA in elderly women and DHEA or testosterone in elderly men. Testosterone patch for the treatment of hypoactive sexual desire disorder in naturally menopausal women: results from the INTIMATE NM1 Study. Safety and efficacy of a testosterone patch for the treatment of hypoactive sexual desire disorder in surgically menopausal women: a randomized, placebo-controlled trial. Effects of combined estrogen/testosterone therapy on bone and body composition in oophorectomized women. Hormonal treatments of sexual unresponsiveness in postmenopausal women: a comparative study. Effects of chronic testosterone administration in normal men: safety and efficacy of high dosage testosterone and parallel dose-dependent suppression of luteinizing hormone, follicle-stimulating hormone, and sperm production. Changes in androgens during treatment with four low-dose contraceptives. [Influence of hormone replacement therapy on the quality of life in postmenopausal women with hypertension]. Effect of different preparations of hormone therapy on sexual dysfunction in naturally postmenopausal women. Comparison of the effects of estrogen alone and estrogen plus androgen on biochemical markers of bone formation and resorption in postmenopausal women. Comparative effects of conventional hormone replacement therapy and tibolone on climacteric symptoms and sexual dysfunction in postmenopausal women. Comparative effects of oral esterified estrogens with and without methyltestosterone on endocrine profiles and dimensions of sexual function in postmenopausal women with hypoactive sexual desire. Combined esterified estrogens and methyltestosterone versus esterified estrogens alone in the treatment of loss of sexual interest in surgically menopausal women. Efficacy of sequential hormone replacement therapy in the treatment of hypercholesterolaemia among postmenopausal women. A clinical trial of 7 alpha-methyl-19-nortestosterone implants for possible use as a long-acting contraceptive for men. Affective changes with estrogen and androgen replacement therapy in surgically menopausal women. Estrogen and estrogen-androgen replacement in postmenopausal women dissatisfied with estrogen-only therapy. Sexual behavior and neuroendocrine responses. Establishing the minimum effective dose and additive effects of depot progestin in suppression of human spermatogenesis by a testosterone depot. An effective hormonal male contraceptive using testosterone undecanoate with oral or injectable norethisterone preparations. Reproductive events modify the effects of estrogen replacement therapy on cognition in healthy postmenopausal women. A comparative study of two hormone replacement therapy regimens on safety and efficacy variables.
Little is known about metabolic effects of testosterone treatment in postmenopausal women. The aim of the study was to compare the treatment effects of testosterone, estrogen, and testosterone plus estrogen on insulin sensitivities, body compositions, and lipid profiles in healthy postmenopausal women.
                An open, randomized clinical study with parallel group comparison.
                Women's health clinical research unit at a university hospital.
                Sixty-three naturally postmenopausal women participated in the study.
                The participants were randomly assigned to 3 months of treatment with testosterone undecanoate (40 mg every second day), estradiol valerate (2 mg daily), or the combination of both.
                Insulin sensitivity assessed by euglycemic hyperinsulinemic clamp, body composition, and serum lipids.
                Insulin-induced glucose disposal was reduced by approximately 20% after treatment with testosterone alone, and after the combined treatment, but not by estrogen alone. Body weight, but not total body fat, increased significantly by about 1 kg in all groups. Lean body mass was significantly increased in the group of combined treatment and tended to be increased by testosterone alone. High-density lipoprotein (HDL)-cholesterol decreased significantly by testosterone treatment. In contrast, HDL-cholesterol increased, whereas low-density lipoprotein (LDL)-cholesterol and lipoprotein-(a) [Lp(a)] decreased with estradiol treatment.
                We conclude that 3 months of treatment with testosterone undecanoate in postmenopausal women induces insulin resistance and an adverse serum lipid profile but may increase lean body mass. To elucidate if percutanous treatment with 10mg testosterone per day could enhance sexuality and psychological well-being in postmenopausal women presenting problems with low libido. Secondary to study the influence on blood lipids, hemoglobin and erythropoietin levels.
                Fifty-three postmenopausal women participated. As a complement to their already on-going HRT, 10mg of a testosterone gel (Testogel, Besins-Iscovesco) or placebo was administered. Treatment continued for three plus three months in a double blind, randomized, crossover design.
                The scores concerning "frequency of sexual activity, orgasm and intercourse", "sexual arousal, fantasies and enjoyment", "satisfaction with orgasms", and "interest in sex" were all significally improved for testosterone addition as compared to placebo both before and after crossover. Testosterone levels increased more than 10-fold during treatment while DHT-levels were more than doubled. Estrogen levels were not affected during the addition of testosterone. Liver enzymes, total cholesterol, triglycerides, HDL and LDL revealed no significant differences between any of the periods or groups. Endometrial thickness did not change significantly during treatment. Hemoglobin and erythropoietin remained unchanged. No significant differences in the number of experienced side effects were found.
                Testosterone gel of 10mg had positive effects on several aspects of sexual life such as frequency of sexual activity, orgasm, arousal, fantasies and sexual interest in postmenopausal women on HRT. Several psychological variables were positively influenced. The given dose resulted in too high serum levels. Even if no negative effects were observed, monitoring of serum levels and a decreased dose should be considered in future studies. To investigate the role of androgens in increasing bone density and improving low libido in postmenopausal women, we have studied the long-term effects of estradiol and testosterone implants on bone mineral density and sexuality in a prospective, 2 year, single-blind randomised trial. Thirty-four postmenopausal volunteers were randomised to treatment with either estradiol implants 50 mg alone (E) or estradiol 50 mg plus testosterone 50 mg (E&T), administered 3-monthly for 2 years. Cyclical oral progestins were taken by those women with an intact uterus. Thirty-two women completed the study. BMD (DEXA) of total body, lumbar vertebrae (L1-L4) and hip area increased significantly in both treatment groups. BMD increased more rapidly in the testosterone treated group at all sites. A substantially greater increase in BMD occurred in the E&T group for total body (P < 0.008), vertebral L1-L4 (P < 0.001) and trochanteric (P < 0.005) measurements. All sexual parameters (Sabbatsberg sexual self-rating scale) improved significantly in both groups. Addition of testosterone resulted in a significantly greater improvement compared to E for sexual activity (P < 0.03), satisfaction (P < 0.03), pleasure (P < 0.01), orgasm (P < 0.035) and relevancy (P < 0.05). Total cholesterol and LDL-cholesterol fell in both groups as did total body fat. Total body fat-free mass (DEXA, anthropometry, impedance) increased in the E&T group only. We concluded that in postmenopausal women, treatment with combined estradiol and testosterone implants was more effective in increasing bone mineral density in the hip and lumbar spine than estradiol implants alone. Significantly greater improvement in sexuality was observed with combined therapy, verifying the therapeutic value of testosterone implants for diminished libido in postmenopausal women. The favourable estrogenic effects on lipids were preserved in women treated with T, in association with beneficial changes in body composition. There has been a growing interest in treating postmenopausal women with androgens. However, hyperandrogenemia in females has been associated with increased risk of cardiovascular disease.
                We aimed to assess the effects of androgen replacement on cardiovascular risk factors.
                Thirty-seven postmenopausal women aged 42-62 years that had undergone hysterectomy were prospectively enrolled in a double-blind protocol to receive, for 12 months, percutaneous estradiol (E2) (1 mg/day) combined with either methyltestosterone (MT) (1.25 mg/day) or placebo.
                Along with treatment, we evaluated serum E2, testosterone, sex hormone-binding globulin (SHBG), free androgen index, lipids, fibrinogen, and C-reactive protein; glucose tolerance; insulin resistance; blood pressure; body-mass index; and visceral and subcutaneous abdominal fat mass as assessed by computed tomography.
                A significant reduction in SHBG (P < 0.001) and increase in free testosterone index (P < 0.05; Repeated measures analysis of variance) were seen in the MT group. Total cholesterol, triglycerides, fibrinogen, and systolic and diastolic blood pressure were significantly lowered to a similar extent by both regimens, but high-density lipoprotein cholesterol decreased only in the androgen group. MT-treated women showed a modest rise in body weight and gained visceral fat mass relative to the other group (P < 0.05), but there were no significant detrimental effects on fasting insulin levels and insulin resistance.
                This study suggests that the combination of low-dose oral MT and percutaneous E2, for 1 year, does not result in expressive increase of cardiovascular risk factors. This regimen can be recommended for symptomatic postmenopausal women, although it seems prudent to perform baseline and follow-up lipid profile and assessment of body composition, especially in those at high risk of cardiovascular disease. To assess the safety and efficacy of 10 mg topical testosterone therapy daily (2 cm Andro-Feme cream) as a treatment for low sexual desire in postmenopausal hysterectomized women who were already on transdermal estrogen.
                A double-blind, randomized, placebo-controlled, cross-over study (each period being of 3 months' duration) was performed in the research center of a tertiary referral women's hospital. Thirty-six menopausal healthy women were recruited who had undergone a hysterectomy, who were not depressed, were in a stable relationship and who fulfilled diagnostic criteria for low sexual desire, as measured by the Brief Index of Sexual Function for Women (BISF-W).
                The primary outcome measure was improvement in the sexuality score as measured by a validated tool (BISF-W); secondary measures were sub-scores of the BISF-W, effect on mood and energy, lipids and testosterone levels.
                Testosterone cream significantly improved sexual desire, frequency of sex, receptivity and initiation as measured by the BISF-W score. It did not change mood, energy, lipids, blood pressure or weight over the study period.
                Testosterone cream significantly improved sexual scores in menopausal women with low sexual desire. It was effective, easy to use and had no side-effects over the 3-month period of active treatment. It offers a novel and acceptable method of administering testosterone to menopausal women. To evaluate the benefits and risks of hormone replacement therapy (HRT) combined with methyltestosterone (MT) in postmenopausal women with sexual dysfunction.
                This study was a randomized, double-blind, placebo-controlled and crossover trial. Eighty-five women using HRT were divided into four treatment groups: GI-HRT plus placebo for 4 months; GII-HRT plus MT 2.5mg/day for 4 months; GIII-HRT plus placebo for 2 months and then replaced with HRT plus MT 2.5mg/day for 2 months; GIV-HRT plus MT 2.5mg/day and then replaced with HRT plus placebo for 2 months. Blood was collected at baseline, after 2 months (T1) and 4 months (T2) of treatment for hormone determinations of estradiol, FSH, total and free testosterone, GOT, GPT, glucose, total and fractions of cholesterol and triglycerides. All participants answered clinical questions and a validated questionnaire of modified McCoy's sex scale.
                The association of HRT with MT 2.5mg/day did not significantly change liver enzymes or increase cardiovascular risk factors. The patients of GII, GIIII and GIV when using MT presented amelioration of sex symptoms, mainly satisfaction and desire (p<0.01); however, GIII at T1 (1.3+/-0.3) presented similar problem score results as compared to GIII at T2 (1.5+/-0.6).
                All data suggest that combined HRT-androgen therapy may be beneficial for postmenopausal women receiving HRT who continue to complain of sexual difficulties or for postmenopausal women with sexual complaints who are not undergoing estrogen therapy. To evaluate the effect of adding testosterone undecanoate 40 mg daily to estrogen replacement on sexual function, psychological well-being and self-esteem in surgically postmenopausal women.
                A letter of invitation to participate in the study was mailed to women who had undergone hysterectomy and bilateral oophorectomy for benign disorders during 1990-98. Fifty women, 45-60 years old, were consecutively recruited and randomly assigned to oral treatment with testosterone undecanoate 40 mg plus estradiol valerate 2 mg daily or placebo plus estradiol valerate 2 mg daily for 24 weeks. A double-blind design was chosen, with cross-over to the other regimen for another 24 weeks of treatment. Forty-four women completed the study. Outcome included scores on McCoy's sex scale questionnaire, the Psychological General Well-Being index and a self-esteem questionnaire, at baseline and after 24 weeks of either treatment. Serum concentrations of total testosterone, sex hormone binding globulin, free testosterone, dihydrotestosterone, androstenedione, estradiol, follicle stimulating hormone and luteinizing hormone were analyzed at baseline and after 24 weeks of both treatment regimens.
                After 24 weeks, both treatment regimens had significantly improved some of the sexual variables. The addition of testosterone had a significantly better effect on the sex variables 'enjoyment of sex', 'satisfaction with frequency of sexual activity' and 'interest in sex'. The total McCoy score was significantly increased by both treatments, but there was a stronger effect when testosterone was also given. Although both regimens improved psychological well-being and self-esteem, we found no significant differences between testosterone-estrogen or estrogen alone at 24 weeks. Serum levels of all androgens, with considerable individual variation, increased significantly from baseline after 24 weeks of testosterone-estrogen treatment. Supraphysiological levels were achieved in a significant proportion of the women. Increases in estradiol and sex hormone binding globulin were less marked when testosterone was also given. Both treatments reduced gonadotropin levels.
                The addition of testosterone undecanoate improved specific aspects of sexual function more than treatment with estrogen alone. Improvements in well-being and self-esteem were similar for both treatments. If testosterone undecanoate 40 mg daily should be used for clinical treatment, regular monitoring of androgen serum levels is needed. Evaluation of the use of testosterone therapy for hypoactive sexual desire disorder (HSDD) after oophorectomy has mostly involved women treated with oral estrogen preparations. We investigated the efficacy and safety of a testosterone patch in surgically menopausal women receiving concurrent transdermal estrogen.
                Women with HSDD after oophorectomy, for whom this was a concern, who were using transdermal estrogen, were recruited to a 24-week, randomized, double-blind, placebo-controlled trial in Europe and Australia. Patients were randomly allocated to placebo (n = 40) or testosterone 300 microg/day (n = 37) treatment. Primary endpoints were changes in sexual desire measured by the sexual desire domain of the Profile of Female Sexual Function and the frequency of satisfying sexual activity at 24 weeks.
                Sixty-one women (79%) completed the trial. All subjects who received at least one application of study medication were included in analysis. The testosterone-treated group experienced a significantly greater change from baseline in the domain sexual desire score compared with placebo (change from baseline, 16.43 versus 5.98; P = 0.02). The domain scores for arousal, orgasm, decreased sexual concerns, responsiveness, and self-image as well as decreased distress were also significantly greater with testosterone therapy than placebo. The frequency of satisfactory sexual events increased but was not statistically different between treatment groups (P = 0.06) Adverse events occurred with similar frequency in both groups, and no serious risks of therapy were observed
                In this study, transdermal testosterone therapy via a skin patch improved sexual desire and other sexual function domains. It was well tolerated in these oophorectomized women with HSDD receiving concomitant transdermal estrogen. To evaluate the effects of giving testosterone undecanoate (TU) in addition to estrogen replacement on serum lipids in oophorectomized women.
                Women with surgically induced menopause (n = 50) were randomly assigned to oral treatment with 2 mg of estradiol valerate in combination with 40 mg of TU or placebo for 24 weeks. The study was double-blind with cross-over to the other regimen for further 24 weeks of treatment. Forty-four women completed the study. Their serum concentrations of total, high density lipoprotein (HDL)- and low density lipoprotein (LDL)-cholesterol, triglycerides, lipoprotein-(a) (Lp-(a)), total testosterone, estradiol and sex hormone-binding globulin (SHBG) were analyzed at baseline and after 24 weeks of each treatment.
                Serum levels of total testosterone increased markedly from a baseline mean of 0.8-4.9 nmol/l during testosterone addition. The levels of free testosterone significantly increased during the combined treatment and fell when given estrogen alone. Total and LDL-cholesterol levels were significantly reduced by both treatments as also were those of Lp-(a) although the difference was not significant. We found a 13% reduction in HDL-cholesterol levels when testosterone was added, but no change with estrogen alone. Triglyceride levels were increased by estrogen treatment, but not affected by the combination of estrogen plus testosterone.
                These findings suggest that 40 mg of TU can be given in addition to estrogen replacement with only little side-effects on the pattern of circulating lipids. Although supraphysiological concentrations of testosterone were induced a significant reduction in total and LDL-cholesterol levels occurred. To determine the effect of the androgen supplementation of hormone replacement therapy (HRT) on the vascular reactivity of cerebral arteries.
                Open randomized study.
                Healthy volunteers in an academic research environment.
                Forty postmenopausal women who were treated with sequential HRT (transdermal E2 50 microg/d + medroxyprogesterone acetate 10 mg/d for 12 days every other month) for > or =1 year and < or =5 years.
                Testosterone undecanoate (40 mg/d, p.o.) was randomly administered to 20 patients during ongoing HRT; the other 20 served as controls. Doppler evaluations of the internal carotid and middle cerebral arteries were performed together with lipid levels assessments. A visual analogue scale (VAS) was used to evaluate various parameters relating to sexual life and well-being.
                Pulsatility index (PI) of the arteries, VAS assessment of psychophysical well-being.
                The administration of testosterone undecanoate during HRT induced an increase in the PI of the middle cerebral artery and a reduction of high-density lipoprotein cholesterol. Sexual desire and satisfaction were greatly improved.
                In postmenopausal women, androgen supplementation during HRT can partially counteract the beneficial effects of estrogens on cerebral vascular reactivity and lipid profiles, but sexual desire and satisfaction are greatly improved. The ovaries provide approximately half the circulating testosterone in premenopausal women. After bilateral oophorectomy, many women report impaired sexual functioning despite estrogen replacement. We evaluated the effects of transdermal testosterone in women who had impaired sexual function after surgically induced menopause.
                Seventy-five women, 31 to 56 years old, who had undergone oophorectomy and hysterectomy received conjugated equine estrogens (at least 0.625 mg per day orally) and, in random order, placebo, 150 microg of testosterone, and 300 microg of testosterone per day transdermally for 12 weeks each. Outcome measures included scores on the Brief Index of Sexual Functioning for Women, the Psychological General Well-Being Index, and a sexual-function diary completed over the telephone.
                The mean (+/-SD) serum free testosterone concentration increased from 1.2+/-0.8 pg per milliliter (4.2+/-2.8 pmol per liter) during placebo treatment to 3.9+/-2.4 pg per milliliter (13.5+/-8.3 pmol per liter) and 5.9+/-4.8 pg per milliliter (20.5+/-16.6 pmol per liter) during treatment with 150 and 300 microg of testosterone per day, respectively (normal range, 1.3 to 6.8 pg per milliliter [4.5 to 23.6 pmol per liter]). Despite an appreciable placebo response, the higher testosterone dose resulted in further increases in scores for frequency of sexual activity and pleasure-orgasm in the Brief index of Sexual Functioning for Women (P=0.03 for both comparisons with placebo). At the higher dose the percentages of women who had sexual fantasies, masturbated, or engaged in sexual intercourse at least once a week increased two to three times from base line. The positive-well-being, depressed-mood, and composite scores of the Psychological General Well-Being Index also improved at the higher dose (P=0.04, P=0.03, and P=0.04, respectively, for the comparison with placebo), but the scores on the telephone-based diary did not increase significantly.
                In women who have undergone oophorectomy and hysterectomy, transdermal testosterone improves sexual function and psychological well-being. To assess the efficacy and safety of a 300 mug/d testosterone patch for the treatment of hypoactive sexual desire disorder in surgically menopausal women on concomitant estrogen therapy.
                Five hundred thirty-three women with hypoactive sexual desire disorder who had undergone previous hysterectomy and bilateral oophorectomy were enrolled in a 24-week, multicenter, double-blind, placebo-controlled trial. Patients were randomly assigned to receive placebo or the testosterone patch twice weekly. The primary efficacy endpoint was change from baseline at week 24 in the frequency of total satisfying sexual activity, measured by the Sexual Activity Log. Secondary measures included sexual desire using the Profile of Female Sexual Function and personal distress as measured by the Personal Distress Scale. Hormone levels, adverse events, and clinical laboratory measures were reviewed.
                Total satisfying sexual activity significantly improved in the testosterone patch group compared with placebo after 24 weeks (mean change from baseline, 1.56 compared with 0.73 episodes per 4 weeks, P = .001). Treatment with the testosterone patch also significantly improved sexual desire (mean change, 10.57 compared with 4.29, P < .001) and decreased personal distress (P = .009). Serum free, total, and bioavailable testosterone concentrations increased from baseline. Overall, adverse events were similar in both groups (P > .05). The incidence of androgenic adverse events was higher in the testosterone group; most androgenic adverse events were mild.
                In surgically menopausal women with hypoactive sexual desire disorder, a 300 mug/d testosterone patch significantly increased satisfying sexual activity and sexual desire, while decreasing personal distress, and was well tolerated through up to 24 weeks of use. Hypoactive sexual desire disorder (HSDD) is one of the most common sexual problems reported by women, but few studies have been conducted to evaluate treatments for this condition.
                The objective of this study was to evaluate the efficacy and safety of a testosterone patch in surgically menopausal women with HSDD.
                The design was a randomized, double-blind, parallel-group, placebo-controlled, 24-wk study (the Intimate SM 1 study).
                The study was performed at private or institutional practices.
                The subjects studied were women, aged 26-70 yr, with HSDD after bilateral salpingo-oophorectomy who were receiving concomitant estrogen therapy. Placebo (n = 279) or testosterone 300 microg/d (n = 283) was administered. There were 19 patients who withdrew due to adverse events in the placebo group and 24 in the 300 mug/d testosterone group.
                Testosterone (300 microg/d) or placebo patches were applied twice weekly. MAIN OUTCOME MEASURE(s): The primary end point was the change in the frequency of total satisfying sexual activity at 24 wk. Secondary end points included other sexual functioning end points and safety assessments.
                At 24 wk, there was an increase from baseline in the frequency of total satisfying sexual activity of 2.10 episodes/4 wk in the testosterone group, which was significantly greater than the change of 0.98 episodes/4 wk in the placebo group (P = 0.0003). The testosterone group also experienced statistically significant improvements in sexual desire and a decrease in distress. The overall safety profile was similar in both treatment groups.
                In the Intimate SM 1 study, the testosterone patch improved sexual function and decreased distress in surgically menopausal women with HSDD and was well tolerated in this trial. Hormone replacement therapy (HRT) in postmenopausal women improves menopausal symptoms, decreases the incidence of osteoporotic fracture, but the effects on cardiovascular risk factors remain controversial.
                To test the hypothesis that HRT may have beneficial effects on the cardiovascular risk profile in postmenopausal women with diabetes.
                One hundred and fifty postmenopausal patients with type 1 (T1DM) and type 2 diabetes (T2DM) were randomized to receive HRT (Kliofem) or placebo for 12 months. We monitored the effects on cardiovascular risk factors, including lipid profile, glycaemic control, blood pressure and body weight.
                Mean low-density lipoprotein (LDL) cholesterol was associated with a nonsignificant decrease [-0.14 mmol/l (CI=-0.44, 0.17) (p=0.37)] in the Kliofem-treated group. Total cholesterol fell by 0.42 mmol/l (CI=-0.78, -0.05) (p=0.027). High-density lipoprotein (HDL) cholesterol was reduced by a mean of 0.07 mmol/l compared to a mean rise of 0.12 mmol/l on placebo. There were apparent differences in the treatment effects between T1DM and T2DM. There was no change in triglycerides or apoprotein B and no effect on glycaemic control, blood pressure or menopausal symptom scores. In the Kliofem group, BMI fell by 0.66 kg/m2 compared to an increase of 0.14 kg/m2 for placebo patients (p=0.046).
                Although the long-term effects of HRT in women with or without diabetes appear to suggest that some types of HRT either confer no cardiovascular protection or may increase risk, the impact of Kliofem diabetic women on cardiovascular risk factors is probably neutral. It has been postulated that hyperparahyroidism is in part responsible for sexual dysfunction in dialyzed patients and that this could improved by 1,25(Oh)2D3. In a single blind study patients on maintenance hemodialysis were treated after a control period with 1,25 (OH)2D3 and with placebo in random order. Sexual performance was assessed with a detailed semistructured psychiatric interview protocol in 14 and several endocrine parameters were analyzed in 15 patients. Under control conditions sexual function was disturbed in 11/14 patients. Plasma testosterone was moderately decreased in men, PRL and PTH levels were distinctly elevated in both sexes. 1,25(OH)2D3 raised serum calcium levels significantly from 9.6 to10.6 mg/100 ml ( P < 0.01) and lowered PTh from 1.39 to 0.82 ng/ml ( P < 0.01). However, no improvement in sexual function (such as libido, frequency of intercourse or masturbation) was found, and apart from a slight rise of testosterone in men and moderate fall of PRl in men and women endocrine parameters remained unchanged. It is concluded that in spite of an improvement of secondary hyperparathyroidism, treatment with 1,25(OH)2D3 for 2 to 4 months was of no value in improving sexual dysfunction in these hemodialysis patients. During the past few years serious concern has been raised about the safety of combined estrogen/progestogen hormone therapy, in particular about its effects on the breast. Several observations suggest that androgens may counteract the proliferative effects of estrogen and progestogen in the mammary gland. Thus, we aimed to study the effects of testosterone addition on breast cell proliferation during postmenopausal estrogen/progestogen therapy.
                We conducted a 6-month prospective, randomized, double-blind, placebo-controlled study. A total of 99 postmenopausal women were given continuous combined estradiol 2 mg/norethisterone acetate 1 mg and were equally randomly assigned to receive additional treatment with either a testosterone patch releasing 300 microg/24 hours or a placebo patch. Breast cells were collected by fine needle aspiration biopsy at baseline and after 6 months, and the main outcome measure was the percentage of proliferating breast cells positively stained by the Ki-67/MIB-1 antibody.
                A total of 88 women, 47 receiving active treatment and 41 in the placebo group, completed the study. In the placebo group there was a more than fivefold increase (P<0.001) in total breast cell proliferation from baseline (median 1.1%) to 6 months (median 6.2%). During testosterone addition, no significant increase was recorded (1.6% vs 2.0%). The different effects of the two treatments were apparent in both epithelial and stromal cells.
                Addition of testosterone may counteract breast cell proliferation as induced by estrogen/progestogen therapy in postmenopausal women. Dehydroepiandrosterone (DHEA) and testosterone are widely promoted as antiaging supplements, but the long-term benefits, as compared with potential harm, are unknown.
                We performed a 2-year, placebo-controlled, randomized, double-blind study involving 87 elderly men with low levels of the sulfated form of DHEA and bioavailable testosterone and 57 elderly women with low levels of sulfated DHEA. Among the men, 29 received DHEA, 27 received testosterone, and 31 received placebo. Among the women, 27 received DHEA and 30 received placebo. Outcome measures included physical performance, body composition, bone mineral density (BMD), glucose tolerance, and quality of life.
                As compared with the change from baseline to 24 months in the placebo group, subjects who received DHEA for 2 years had an increase in plasma levels of sulfated DHEA by a median of 3.4 microg per milliliter (9.2 micromol per liter) in men and by 3.8 microg per milliliter (10.3 micromol per liter) in women. Among men who received testosterone, the level of bioavailable testosterone increased by a median of 30.4 ng per deciliter (1.1 nmol per liter), as compared with the change in the placebo group. A separate analysis of men and women showed no significant effect of DHEA on body-composition measurements. Neither hormone altered the peak volume of oxygen consumed per minute, muscle strength, or insulin sensitivity. Men who received testosterone had a slight increase in fat-free mass, and men in both treatment groups had an increase in BMD at the femoral neck. Women who received DHEA had an increase in BMD at the ultradistal radius. Neither treatment improved the quality of life or had major adverse effects.
                Neither DHEA nor low-dose testosterone replacement in elderly people has physiologically relevant beneficial effects on body composition, physical performance, insulin sensitivity, or quality of life. (ClinicalTrials.gov number, NCT00254371 [ClinicalTrials.gov].).
                Copyright 2006 Massachusetts Medical Society. To evaluate the efficacy and safety of a testosterone patch for the treatment of women with hypoactive sexual desire disorder after natural menopause.
                A multicenter, randomized, double-blind, placebo-controlled, parallel-group trial was conducted in naturally menopausal women with hypoactive sexual desire disorder receiving a stable dose of oral estrogen with or without progestin (N = 549). Women were randomized to receive testosterone 300 microg/day or placebo patches twice weekly for 24 weeks. The primary efficacy measure was change from baseline in frequency of total satisfying sexual activity over a 4-week period (weeks 21-24).
                A total of 483 women (88%) were included in the primary analysis population (those with baseline sex hormone binding globulin levels < or = 160 nmol/L). The change from baseline in number of total satisfying sexual episodes was significantly greater for testosterone compared with placebo (participants with baseline sex hormone binding globulin levels < or = 160 nmol/L, mean change of 2.1 +/- 0.28 versus 0.5 +/- 0.23 episodes/4 weeks; P < 0.0001; intent-to-treat population, mean change from baseline of 1.9 +/- 0.26 versus 0.5 +/- 0.21 episodes/4 weeks, P < 0.0001). Testosterone also produced statistically significant improvements compared with placebo in all secondary efficacy measures, including sexual desire and personal distress. The testosterone patch was well tolerated.
                Testosterone patch treatment increased the frequency of satisfying sexual activity and sexual desire, decreased personal distress, and was well tolerated in naturally menopausal women with hypoactive sexual desire disorder. Oophorectomy reduces serum testosterone levels. We studied the efficacy and safety of transdermal testosterone in treating hypoactive sexual desire disorder in surgically menopausal women.
                A 24-week, randomized, double-blind, placebo-controlled, parallel-group, multicenter trial was conducted in women (aged 24-70 years) who developed distressful low sexual desire after bilateral salpingo-oophorectomy and hysterectomy and who were receiving oral estrogen therapy. Women were randomized to receive placebo (n = 119) or testosterone patches in dosages of 150 microg/d (n = 107), 300 microg/d (n = 110), or 450 microg/d (n = 111) twice weekly for 24 weeks. Sexual desire and frequency of satisfying sexual activity were primary efficacy outcome measures.
                Of the 447 women randomized, 318 (71%) completed the trial. Compared with placebo, women receiving the 300-microg/d testosterone patch had significantly greater increases from baseline in sexual desire (67% vs 48%; P = .05) and in frequency of satisfying sexual activity (79% vs 43%; P = .049). The 150-microg/d group showed no evidence of a treatment effect. The 450-microg/d group also was not statistically different from the 300-microg/d or placebo groups. Marginally significant linear dose-response trends were observed for total satisfying sexual activity and sexual desire at 24 weeks (P = .06 and .06, respectively). Adverse events occurred with similar frequency in both groups; no serious safety concerns were observed.
                The 300-microg/d testosterone patch increased sexual desire and frequency of satisfying sexual activity and was well tolerated in women who developed hypoactive sexual desire disorder after surgical menopause. To evaluate the effect of adding testosterone undecanoate 40 mg daily to estrogen therapy on bone markers, bone mineral density and body composition in oophorectomized women.
                Fifty women, 45-60 years old, who had undergone a hysterectomy and bilateral salpingo-oophorectomy for benign disorders, were randomly assigned to oral treatment with testosterone undecanoate 40 mg plus estradiol valerate 2 mg daily or placebo plus estradiol valerate 2 mg daily. Twenty-four weeks later, cross-over was performed to the other treatment regimen. Forty-four women completed the study. Their serum concentrations of insulin-like growth factor (IGF)-I, IGF binding protein (IGFBP)-3, osteocalcin, carboxyterminal telopeptide aminoterminal (ICTP), of type I collagen propeptide of type I procollagen (PICP) and interleukin (IL)-1 receptor antagonist were measured at baseline and after 24 weeks of both treatments, as were also their body mass index (BMI) and blood pressure. Bone mineral density of the total body, spine and hip and total body fat, total lean body mass, trunk fat and trunk lean mass were determined by dual-energy X-ray absorptiometry measurements at baseline and after 24 weeks of both regimens.
                During treatment, the addition of testosterone counteracted the decrease in IGF-I and PICP seen with estrogen therapy alone. Osteocalcin and ICTP were significantly reduced to the same extent by both therapies. No change ocurred in the IL-1 receptor antagonist. A significant increase was seen in total lean body mass with the estrogen/testosterone regimen, but the total fat mass, trunk lean or fat mass remained unchanged after 24 weeks of both treatments. No effect was detected on total, hip or spinal bone mineral density after treatment with estrogen alone or estrogen/testosterone. Likewise, BMI and blood pressure were unaffected.
                The addition of testosterone to oral estrogen might have positive effects on bone as suggested by the fact that it counteracted the decline in IGF-I and PICP levels. An anabolic effect on muscle was reflected by an increase in the total lean body mass. No adverse effects were noted on BMI, fat distribution or blood pressure during the 6-month treatment with oral testosterone undecanoate. Forty postmenopausal women, referred for hormone replacement therapy and all of whom reported a significant concern about a decline in their sexual interest, were randomly allocated to one of two hormone implant treatment groups: either oestradiol (50 mg) alone, or oestradiol (50 mg) and testosterone (100 mg). Comparison between the two groups as a whole revealed no significant differences on any measure, both treatments being associated with a significant reduction in the severity of psychological, somatic and vasomotor symptoms, and with a significant improvement in sexual interest and responsiveness. Similar effects were also observed in patients who denied, pretreatment, any concurrent dyspareunia. Although it is not possible to identify the reasons for change, the results indicate no advantages of supplementary testosterone administration over oestradiol alone for sexually unresponsive postmenopausal women. In normal men, chronic testosterone (T) administration results in negative feedback suppression of gonadotropin and sperm production. However, azoospermia is achieved in only 50-70% of men treated with high dosages of T. Furthermore, the relative sensitivity of LH and FSH secretion to chronic administration of more physiological dosages of T is unclear. We determined whether a T dosage higher than those previously given would be more or less effective in suppressing spermatogenesis and whether, within the physiological range, T would exert a more selective effect on LH than on FSH secretion. After a 4- to 6-month control period, 51 normal men were randomly assigned to treatment groups (n = 9-12/group) receiving either sesame oil (1 mL) or T enanthate (25, 50, 100, or 300 mg, im) weekly for 6 months. Monthly LH and FSH levels by RIA and twice monthly sperm counts were determined. During treatment, T levels were measured daily between two weekly injections. Chronic T administration in physiological to moderately supraphysiological dosages resulted in parallel dose-dependent suppression of LH, FSH, and sperm production. T enanthate (50 mg/week) suppressed LH and FSH levels and sperm counts to 50% of those in placebo-treated men (ED50). T enanthate (300 mg/week), was no more effective than 100 mg/week in suppressing LH, FSH, and sperm production. Serum T levels in men who received 100 and 300 mg/week T enanthate were 1.5- and 3-fold higher than those in placebo-treated men, respectively. Except for mild truncal acne, weight gain, and increases in hematocrit, we detected no significant adverse health effects of chronic high dosage T administration. We conclude that 1) LH and FSH secretion are equally sensitive to the long term negative feedback effects of T administration; 2) sperm production is suppressed in parallel with the LH and FSH reductions induced by chronic T administration; and 3) even at the clearly supraphysiological dosage of 300 mg/week, T enanthate does not reliably induce azoospermia in normal men. However, there was also no evidence of a stimulatory effect of this T dosage on spermatogenesis. Furthermore, we found no evidence of major adverse health effects of T administered chronically even at the highest dosage. The aim of the present study was to compare changes in the endogenous androgen environment in healthy women while on low-dose oral contraceptives (OCs). One-hundred healthy women were randomized to receive one of four OCs during six months: 21 tablets of Cilest, Femodeen, Marvelon, or Mercilon. During the luteal phase of the pretreatment cycle, body weight and blood pressure were recorded and the following parameters were measured: sex hormone-binding globulin (SHBG), corticosteroid-binding globulin (CBG), testosterone (T), free testosterone (FT), 5 alpha-dihydrotestosterone (DHT), androstenedione (A), dehydroepiandrosterone-sulphate (DHEA-S) and 17 alpha-hydroxyprogesterone (170HP) while also the free androgen index (FAI) was calculated. Measurements were repeated during the 3rd week of pill intake in the 4th and the 6th pill month. There were no differences on body mass and blood pressure with the use of the four OCs. The mean serum DHEA-S decreased significantly in all groups though less in the Mercilon group when compared to Cilest and Marvelon (approximately 20% vs 45%). Mean serum SHBG and CBG increased significantly in all four groups approximately 250% and 100%, respectively. In each group CBG also increased significantly but less in women taking Mercilon (-75%) as compared to the others (-100%). Current low-dose OCs were found to have similar impact on the endogenous androgen metabolism with significant decreases of serum testosterone, DHT, A, and DHEA-S. They may be equally beneficial in women with androgen related syndromes such as acne and hirsutism. The effect of hormone replacement therapy (HRT) on the quality of life in women with hypertension is still not clear. Thus, the aim of the study was to assess the effect of hormone replacement therapy on quality of life in postmenopausal women with essential hypertension by using a battery of standardized questionnaires.
                The study population consisted of 53 women (mean age 50.9 +/- 6.3 years) with mild and moderate essential hypertension (mean duration 6.4 +/- 6.4 years). The postmenopausal status was defined as the absence of menstrual blood loss during > 6 months and blood estradiol concentration < 50 pg/ml, accompanied by follicle-stimulating hormone (FSH) levels > 21 U/I. Twenty seven women were blindly randomised to transdermal hormone replacement therapy (HRT) and received 17-beta-estradiol and noretisterone acetate, TTS. Twenty six women were randomly selected as controls. The subjects were evaluated at baseline (after 2 weeks' wash-out from hypotensive drug period) and after three months of HRT using self-administered standardized quality of life questionnaires: the Psychological General Well-being Index (PGWB) and the Subjective Symptoms Assessment Profile (SSA-P).
                No differences were found in blood pressure values, heart rate, body mass index and distribution of body fat tissue between women receiving HRT and controls at baseline and after 3 months of follow-up. There were no significant differences in the baseline total PGWB score as well as in its subscale between two groups. Similarly, the frequency and intensity of subjective symptoms assessed by SSA-profile were the same in both groups at baseline. After 3 months, a significant improvement in PGWB total score was observed in women receiving HRT. This effect was due to improvement in anxiety, positive well-being and vitality. Moreover, emotional distress, symptoms of flushing, sweating and trembling hands also diminished and sexual capacity improved in women treated with HRT.
                A three-month hormone replacement therapy in hypertensive postmenopausal women slightly improves the general well-being, seems to decrease emotional tension, increase sexual capacity and markedly relieves some vasomotor symptoms. To compare the effect of different formulations of continuous combined hormone therapy on sexual performance in naturally postmenopausal women.
                A total of 158 postmenopausal women were enrolled and prospectively randomized to the single-blind study. Fifty-four women received tibolone 2.5 mg, 53 received 2 mg estradiol and 2 mg dienogest (E2/dienogest), and 51 did not receive any menopausal therapy. The patients were monitored after 6 months. Attitudes of sexuality were evaluated by using the Rosen's female sexual function index.
                Compared with E2/dienogest and the control group, tibolone treatment was associated with more improvement of sexual performance, including sexual desire, sexual arousal and satisfaction. Both of the hormone therapies decreased frequencies of vaginal dryness and painful intercourse.
                Tibolone has more positive effects on the sexual dysfunction of postmenopausal women and may be an alternative to the E2/dienogest preparation in postmenopausal women with sexual dysfunction. The present study was undertaken to determine whether the addition of an androgen to estrogen therapy in postmenopausal women would alter the skeletal response as determined by measurements of markers of bone formation and resorption. Postmenopausal women were treated for 9 weeks with either a combination of 1.25 mg esterified estrogen and 2.5 mg methyltestosterone (E+A) or 1.25 mg conjugated equine estrogen (CEE). Both groups showed a similar decrease in urinary excretion of the bone resorption markers, deoxypyridinoline, pyridinoline, and hydroxyproline. Patients treated with CEE showed decreases in the serum markers of bone formation, bone-specific alkaline phosphatase, osteocalcin, and C-terminal procollagen peptide. In contrast, subjects treated with E+A showed increases in these markers of bone formation. CEE increased, and E+A decreased serum levels of sex hormone-binding globulin as well as triglycerides and high density lipoprotein levels. Only CEE significantly reduced low density lipoproteins. Both regimens were effective in reducing postmenopausal somatic symptoms, but only E+A had a significant effect on psychological symptoms. We conclude that short term administration of androgen with estrogen may reverse the inhibitory effects of estrogen on bone formation. Long term studies are needed to determine the relative benefits and risks of the combination of estrogen and androgen and whether this results in greater increases in bone mass and strength. To compare the effects of tibolone with those of conventional hormone replacement therapy on climacteric symptoms and sexual function in postmenopausal women.
                In a randomized, controlled trial, 140 postmenopausal women were allocated into three groups. Of the subjects included, 47 women received 2.5 mg tibolone + one Cal+D tablet (500 mg calcium and 200 IU vitamin D) daily; 46 women received 0.625 mg conjugated equine estrogen + 2.5 mg medroxyprogesterone (CEE/MPA) + one Cal+D tablet daily; and 47 women received only one Cal+D tablet as the control group. The Greene Climacteric Scale (GCS) questionnaire was used to detect the efficacy of treatment on climacteric symptoms. Rosen's Female Sexual Function Index (FSFI) was used for sexual function evaluation. Sex hormone binding globulin (SHBG), free estradiol index (FEI) and free testosterone index (FTI) were measured before and after treatment. The women were followed up for 6 months
                After treatment, all subscores in the GCS improved in the tibolone and CEE/MPA groups (p < 0.01), except the sexual subscore in the CEE/MPA group, compared with baseline. There were significant differences in the FSFI in the tibolone and CEE/MPA groups in comparison to the control group after treatment. Tibolone, in comparison to CEE/MPA, significantly lowered SHBG levels and increased the FTI and FEI and improved the desire, arousal and orgasm sexual domains of the FSFI (p < 0.001).
                Tibolone may be an alternative to conventional hormone replacement therapy in the treatment of climacteric symptoms and sexual dysfunction in postmenopausal women. In some women, a decline in sexual interest accompanies a relative androgen insufficiency after menopause. We sought to characterize the hormonal effects of the combination of oral esterified estrogens and methyltestosterone and to investigate whether this regimen improves hypoactive sexual desire.
                Double-blind randomized trial.
                Healthy volunteers in a multicenter research environment.
                Postmenopausal women taking estrogen therapy who were experiencing hypoactive sexual desire.
                4 months of treatment with 0.625 mg of esterified estrogens (n = 111) or the combination of 0.625 mg of esterified estrogens and 1.25 mg of methyltestosterone (n = 107).
                Baseline and end-of-study measurements of total and bioavailable testosterone and sex hormone-binding globulin (SHBG), and mean change in level of sexual interest or desire as rated on the Sexual Interest Questionnaire.
                Treatment with the combination of esterified estrogens and methyltestosterone significantly increased the concentration of bioavailable testosterone and suppressed SHBG. Scores measuring sexual interest or desire and frequency of desire increased from baseline with combination treatment and were significantly greater than those achieved with esterified estrogens alone. Treatment with the combination was well tolerated.
                Increased circulating levels of unbound testosterone and suppression of SHBG provide a plausible hormonal explanation for the significantly improved sexual functioning in women receiving the combination of esterified estrogen and methyltestosterone. To compare the effect of esterified estrogens and methyltestosterone versus esterified estrogens alone on diminished sexual interest in surgically menopausal women.
                This randomized, double-blind study compared the effect of combined esterified estrogens (1.25 mg) and methyltestosterone (2.5 mg) (EE/MT) versus esterified estrogens (1.25 mg) alone (EE) for 8 weeks. Several different sexual function questionnaires were used to measure response to therapy. Changes from baseline in sexual interest/function and hormone levels were evaluated after 4 and 8 weeks of treatment.
                A total of 102 women were randomized into the study; 52 (age range, 32-61 years) to EE/MT and 50 (age range, 33-62 years) to EE. After 8 weeks, significant differences between treatments were not seen in the Changes in Sexual Functioning Questionnaire (CSFQ-F-C) sexual desire/interest subscale score, the primary efficacy variable. In contrast statistically significant between-treatment differences were found for several secondary efficacy variables including Menopausal Sexual Interest Questionnaire (MSIQ) sexual interest/desire score, CSFQ-F-C arousal/erection subscale score and Women's Health Questionnaire sexual functioning subscale score. The mean serum concentration of bioavailable and free testosterone significantly increased, approximately doubling between baseline and the end of the study in patients receiving EE/MT, with a significant (P < 0.001) between-treatment difference. The mean serum concentration of sex hormone-binding globulin significantly decreased to less than one third of the pretreatment levels in patients receiving EE/MT (P < 0.001). Both treatments were well tolerated.
                The mixed results seen with the different sexual function questionnaires may be due to the CSFQ-F-C's lack of specificity for this population. Increased levels of bioavailable and free testosterone paralleled the improved MSIQ item scores. Both the EE and EE/MT treatments were well tolerated. To test the efficacy of hormone replacement therapy (HRT) and dietary therapy, compared to dietary therapy, in lowering LDL cholesterol levels among postmenopausal women.
                A prospective parallel randomized study of sequential 17 beta-oestradiol and norethisterone acetate or placebo for 48 weeks.
                A University outpatient lipid clinic.
                A total of 76 postmenopausal women, aged 43-60 years, with LDL cholesterol levels > or = 4.2 mmol 1-1, treated with a lipid-lowering diet.
                Levels of lipids, lipoproteins, apolipoproteins, fibrinogen and glucose tolerance.
                Adherence to the diet was similar in both groups. Total and LDL cholesterol levels were reduced by 14% (95% CI, 11-17%) and 19% (95% CI, 14-23%), respectively, in the HRT group vs. 3% (95% CI, 0-7%) and 5% (95% CI, 0-11%) in the diet group. HRT reduced the levels of apolipoprotein B and lipoprotein(a). Levels of HDL cholesterol, HDL2, HDL3, triglycerides, lipoprotein populations and apolipoproteins AI and AII remained unchanged. No adverse effects on glucose tolerance or on fibrinogen levels were observed. The reduction in LDL cholesterol was positively correlated with initial levels of LDL cholesterol and negatively correlated with body mass index.
                HRT is effective in reducing elevated LDL cholesterol levels, and should be considered in the treatment of hyperlipidaemic postmenopausal women, in addition to dietary therapy. Several preparations of testosterone and its esters are being investigated alone or in combination with other gonadotropin-suppressing agents as possible antifertility agents for men. We studied the effectiveness of 7 alpha-methyl-19-nortestosterone (MENT) as an antispermatogenic agent in men. MENT has been shown to be more potent than testosterone and to be resistant to 5 alpha-reduction. For sustained delivery of MENT, we used a system consisting of ethylene vinyl acetate implants containing MENT acetate (Ac), administered subdermally. Thirty-five normal volunteers were recruited in 3 clinics and were randomly assigned to 1 of 3 doses: 1 (12 men), 2 (11 men), or 4 (12 men) MENT Ac implants. The initial average in vitro release rate of MENT Ac from each implant was approximately 400 micro g/day. Implants were inserted subdermally in the medial aspect of the upper arm under local anesthesia. The duration of treatment was initially designed to be 6 months. However, in 2 clinics the duration of treatment was extended to 9 months for the 2-implant group and to 12 months for the 4-implant group. Dose-related increases in serum MENT levels and decreases in testosterone, LH, and FSH levels were observed. Effects on sperm counts were also dose related. None of the subjects in the 1-implant group exhibited oligozoospermia (sperm count, <3 million/ml). Four subjects in the 2-implant group became oligozoospermic, 2 of whom reached azoospermia. Eight subjects in the 4-implant group reached azoospermia, with 1 exhibiting oligozoospermia, whereas 2 were nonresponders. Side effects generally seen with androgen administration, such as increases in erythrocyte count, hematocrit, and hemoglobin and a decrease in SHBG, were also seen in this study and were reversible. Changes in lipid parameters were moderate and transient. Liver enzymes showed small changes. This study demonstrates that MENT Ac, when administered in a sustained release fashion via subdermal implants, can inhibit spermatogenesis over a prolonged period after a single administration and has the potential to be used as a male contraceptive. Otherwise healthy surgically menopausal women who had been receiving either an intramuscular estrogen-androgen (E-A) combined preparation or estrogen alone (E) long-term had more positive moods than an untreated control group (CON) coincident with their higher levels of circulating estradiol (E2). Women who received both E2 and testosterone (T) felt more composed, elated, and energetic than those who were given E alone. These findings confirm that mood covaries with circulating estradiol levels in generally healthy, nondepressed women. Possible mechanisms of action of the sex steroids on affect are discussed. To investigate the efficacy of esterified estrogens alone and combined with oral androgen on sexual function and menopausal symptoms in postmenopausal women.
                Twenty postmenopausal women dissatisfied with their estrogen or estrogen-progestin therapy volunteered to enter a double-blind, randomized trial in which they received either oral esterified estrogens or esterified estrogens + androgen for eight weeks after a single-blind, placebo, lead-in period. Sexual function was assessed with a questionnaire used in the Yale midlife survey, and plasma levels of estradiol, estrone, sex hormone binding globulin (SHBG) and beta-endorphin were measured at two- to four-week intervals.
                Estrogen-androgen therapy significantly improved sexual sensation and desire after four and eight weeks of double-blind treatment in comparison to previous estrogen therapy and postplacebo baseline assessments. Plasma levels of estradiol and estrone increased significantly in all patients as compared to the postplacebo baseline and decreased in comparison to circulating estrogen concentrations on previous therapy. Relative proportions of free and bound steroid hormone exhibited contrasting shifts during estrogen and estrogen-androgen therapy. SHBG increased in the estrogen group and decreased in the estrogen-androgen group, leading to lower amounts of free androgens during estrogen therapy and increased free androgen levels during estrogen-androgen therapy. Since proportions of free (bioavailable) ovarian steroids would correlate inversely with plasma protein binding capacity, the beneficial effects of oral estrogen-androgen therapy on sexual sensation and desire may be due either to the administered androgen or to the increased availability of endogenous and exogenous androgens, particularly in the central nervous system.
                Sexual desire, satisfaction and frequency in postmenopausal women taking hormonal therapy were improved significantly by combined estrogen-androgen therapy but not by estrogen or estrogen-progestin therapy. Sexual function improved with estrogen-androgen therapy even though circulating estrogen levels were lower than those measured during previous estrogen therapy. This leads to the conclusion that androgens play a pivotal role in sexual function but that estrogens are not a significant factor determining levels of sexual drive and enjoyment. Hormonally induced azoospermia induced by weekly im injections of testosterone enanthate provides effective and reversible male contraception, but more practical regimens are needed. Given our previous findings that six 200-mg pellets implanted subdermally produced more stable, physiological T levels and reduced the delivered T dose by more than 50% while maintaining equally effective suppression of sperm output with fewer metabolic side-effects than weekly 200-mg testosterone enanthate injections, we sought in this study to determine 1) whether further dose-sparing could be achieved by lower testosterone doses while maintaining efficacy and 2) the efficacy of adding a depot progestin to a suboptimally suppressive depot testosterone dose as a model depot progestin/androgen combination male contraceptive. Healthy volunteers were randomized into groups (n = 10) who received either of two lower T doses (two or four 200-mg T pellets) or four 200-mg T pellets plus a single im injection of 300 mg depot medroxyprogesterone acetate (DMPA). Two T pellets (400 mg, 3 mg/day) had a negligible effect on sperm output. Four T pellets (800 mg, 6 mg/day) suppressed sperm output between the second to fourth postimplant months; output returned to normal by the seventh postimplant month, although only 4 of 10 men became azoospermic or severely oligozoospermic (< 3 mol/L/mL). The addition of a depot progestin markedly increased the extent, but not the rate, of sperm output suppression, with 9 of 10 becoming azoospermic and 10 of 10 becoming severely oligozoospermic. There were no serious adverse effects during the study. Plasma total and free testosterone levels remained within the eugonadal range at all times with each treatment. Plasma epitestosterone was suppressed by all 3 regimens, consistent with a dose-dependent inhibition of endogenous Leydig cell steroidogenesis. Plasma LH and FSH measured by a two-site immunoassay were suppressed in a dose-dependent fashion by T and further suppressed by the addition of DMPA. Sex hormone-binding globulin levels were decreased by DMPA, but not by either T dose. Prostate-specific antigen and lipids (total, low or high density lipoprotein cholesterol, and triglycerides) were not significantly changed in any group. Thus, a depot testosterone preparation with zero order release must be delivered at between 6-9 mg/day to provide optimal (but not uniform) efficacy at inducing azoospermia. The addition of a single depot dose of a progestin to a suboptimal testosterone dose (6 mg/day) markedly enhances the extent, but not the rate, of spermatogenic suppression, with negligible biochemical androgenic side-effects. These findings provide a basis for the use of a progestin/androgen combination depot for hormonal male contraception. Suppression of spermatogenesis to azoospermia is the goal of hormonal male contraception based on T combined with gestagens. The combination of the long-acting T, ester testosterone undecanoate (TU), with norethisterone (NET) enanthate (E) showed high efficacy. In the present study, we tested the validity of this approach by varying the NET dose and mode of application. The aim of the study was to achieve high rates of suppression of spermatogenesis as reflected by sperm counts, monitor gonadotropins as well as other hormones, and evaluate any possible side effects. In a phase II clinical trial, groups of normal volunteers received: 1000 mg TU im at wk 2, 6, 12, and 18 combined with 200 mg NETE im at wk 0, 6, 12, and 18 (group I); 1000 mg TU im and 400 mg NETE im at wk 0, 6, 12, and 18 (group II); and 1000 mg TU im at wk 0, 6, 12, and 18 with daily oral NET acetate (NETA) from wk 0 to 24 (group III). In all groups marked suppression of gonadotropins resulted in a significant decrease of spermatogenesis and azoospermia in 13/14, 11/12, and 12/14 men in groups I to III, respectively. The remaining men all had less than 1 million sperm/ml. Reversible side effects included increase in body weight, erythrocytes, hemoglobin, and hematocrit and decrease in high-density lipoprotein cholesterol and alkaline phosphatase in all groups and increase in liver enzymes in the oral NETA group. This study documents the high efficacy of TU in combination with NET and confirms that this dose and mode of application (1000 mg TU im every 6 wk plus 400 mg NETE im every 6 wk or plus 10 mg daily oral NETA) is as effective as the previously reported regimen containing 1000 mg TU + 200 mg NETE im every 6 wk. The contraceptive efficacy of this combination of TU and NETE should be evaluated in further clinical trials. The question of whether estrogen replacement therapy (ERT) is beneficial to cognitive functioning in postmenopausal women has become controversial in the past several years. Early studies suggested that ERT improved cognitive functioning and decreased the risk of Alzheimer's disease, but recent studies have failed to find any benefit. However, studies have varied in terms of the age of participants, the estrogen preparation used, whether progesterone is administered concurrently, and the study design. The present study used a randomized, placebo-controlled design and a transdermal estrogen preparation composed of 17-beta estradiol. A neuropsychological battery was administered at baseline and after completion of the 10-week trial, and test scores were grouped into four composite scores using psychometric techniques. Baseline to follow-up change was analyzed using multiple regression techniques. Results indicate that while little overall beneficial effect of estrogen was found, years since menopause was significantly related to change in executive functioning in the estrogen but not the placebo group, such that more recently postmenopausal women demonstrated greater positive change than older women. Body mass index, a gross estimate of circulating estrogen, was significantly positively related to change in attentional and psychomotor processes regardless of treatment group, and to a weaker extent, verbal memory, but only in the estrogen-treated group. These results suggest that reproductive events and levels of endogenous estrogen are related to the clinical response to ERT, but larger studies with longer follow-up periods are needed to determine the strength of these effects. To assess the effect of tibolone on endometrial safety, plasma estradiol concentrations, lipid metabolism and climacteric symptoms in comparison to sequential conjugated equine estrogens and medroxyprogesterone acetate in postmenopausal women.
                In a randomised, open-label, 6-cycle, group-comparative study, the effects on the aforementioned parameters were studied with tibolone 2.5 mg/day (N = 13) continuously, and with conjugated equine estrogens 0.625 mg/day continuously, combined with medroxyprogesterone acetate 5 mg/day (N = 11) (CEE/MPA) sequentially, during 12 days of each 28-day cycle. Within-group statistical analysis was performed with Student's t-test for paired samples, whereas between-group statistics were performed using the Student's t-test for independent groups.
                Cytological evaluation revealed no endometrial stimulation in either group. In the tibolone group, there were no effects on estradiol levels, whereas in the CEE/MPA group, an increase in total and non-SHBG-bound estradiol plasma levels was reported. In the tibolone group, there were significant decreases in plasma total cholesterol, triglycerides, HDL-cholesterol and VLDL-cholesterol, whereas no significant changes in LDL-cholesterol and IDL-cholesterol were reported. In the CEE/MPA group there were significant decreases in plasma total cholesterol, HDL-cholesterol and LDL-cholesterol, whereas there were no significant changes in triglycerides, IDL-cholesterol and VLDL-cholesterol. Climacteric symptoms, particularly vasomotor episodes, decreased similarly in both groups.
                Both tibolone and CEE/MPA were safe with respect to effects on the endometrium and both treatments induced changes in the plasma profiles of certain lipid and lipoprotein parameters. However, the overall clinical implications of these changes are unknown. Finally, both regimens were equally effective in the treatment of climacteric symptoms.
There is good evidence that adding testosterone to HT has a beneficial effect on sexual function in post-menopausal women. However, the combined therapy is associated with a higher incidence of hair growth and acne and a reduction in HDL cholesterol. These adverse events may differ by the different doses and route of testosterone administration. There is insufficient evidence to determine the effect of testosterone in long term use.