Author Correction: Oral micronized progesterone for perimenopausal night sweats and hot flushes a Phase III Canada-wide randomized placebo-controlled 4 month trial
Prior JC et al., 2024 Scientific Reports Open Access
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Prior JC et al., 2024 Scientific Reports Open Access
Prior JC et al., 2023 CMAJ Open Access
We agree with Lega and colleagues[1][1] that menopausal hormone therapy (MHT) has been shown in randomized controlled trials (RCTs) to be effective and safe for treating problematic vasomotor symptoms related to menopause. We also agree that treating menopausal vasomotor symptoms is important to
Prior JC et al., 2023 Sci Rep Open Access
This study tested progesterone for perimenopausal hot flush ± night sweat (vasomotor symptom, VMS) treatment. It was a double-blind, randomized trial of 300 mg oral micronized progesterone@bedtime versus placebo for 3-months (m) after a 1-m untreated baseline during 2012/1-2017/4. We randomized untreated, non-depressed, screenand baseline-eligible by VMS, perimenopausal women (with flow within 1-year), ages 35-58 (n = 189). Participants aged 50 (± SD = 4.6) were mostly White, educated, minimally overweight with 63% in late perimenopause; 93% participated remotely. The 1° outcome was 3rd-m VMS Score difference. Participants recorded VMS number and intensity (0-4 scale)/24 h on a VMS Calendar. Randomization required VMS (intensity 2-4/4) of sufficient frequency and/or ≥ 2/week night sweat awakenings. Baseline total VMS Score (SD) was 12.2 (11.3) without assignment difference. Third-m VMS Score did not differ by therapy (Rate Difference - 1.51). However, the 95% CI [- 3.97, 0.95] P = 0.222, did not exclude 3, a minimal clinically important difference. Women perceived progesterone caused decreased night sweats (P = 0.023) and improved sleep quality (P = 0.005); it decreased perimenopause-related life interference (P = 0.017) without increased depression. No serious adverse events occurred. Perimenopausal night sweats ± hot flushes are variable; this RCT was underpowered but could not exclude a minimal clinically important VMS benefit. Perceived night sweats and sleep quality significantly improved.
Yang YB et al., 2020 Osteoporos Int
Sclerostin, a natural hormone made in bone, suppresses bone formation. Sclerostin is also decreased by estrogen. Progesterone, estrogen's menstrual partner, stimulates bone formation. It is unclear whether progesterone influences sclerostin. This study showed that progesterone did not change sclerostin using serum remaining from a randomized progesterone hot flush therapy trial. Progesterone and sclerostin are both endogenous hormones acting through osteoblast-origin cells and promote or suppress bone formation, respectively. Estradiol suppresses sclerostin, but progesterone, its menstrual cycle partner hormone, has unclear sclerostin relationships. We postulated that progesterone therapy would influence serum sclerostin levels. We obtained sclerostin levels for an ethics-approved post hoc analysis. Fasting sclerostin was measured in all remaining sera from a previous 12-week randomized controlled trial (RCT) of oral micronized progesterone (progesterone) for menopausal (> 1 year after last flow) vasomotor symptoms (VMS). Women in the RCT took 300 mg progesterone at bedtime or placebo (1:1) in a trial showing progesterone significantly decreased VMS. Participants were healthy menopausal, primarily Caucasian (91.2%) community-dwelling women (± SD), 55.2 ± 4.6 years old with BMI 24.9 ± 2.9 kg/m(2). The baseline sclerostin level in 60 women was 28.41 ± 10.47 pmol/L. Baseline sclerostin was not correlated with the run-in VMS score (r = 0.143, P = 0.294). Paired baseline and 12-week RCT data for 52 women showed serum sclerostin levels did not change related to experimental therapy (P = 0.504). Changes in final sclerostin values adjusted for baseline were progesterone (- 1.07 ± 7.96 pmol/L) and placebo (- 2.64 ± 8.70 pmol/L). In observational data (n = 60), baseline sclerostin levels correlated with the General Framingham Cardiovascular (CVD) Risk score (r = - 0.398, P = 0.003) and self-reported health by SF-36 quality of life instrument (QoL, r = - 0.331, P = 0.016). Physiological oral micronized progesterone did not stimulate nor suppress serum sclerostin levels based on post hoc analysis of RCT data. Exploratory results, however, showed sclerostin negatively correlated with CVD risk and QoL. ClinicalTrials.gov #NCT0146469.
Prior JC et al., 2018 Int J Environ Res Public Health Open Access
Approximately 33% of normal-length (21⁻35 days) cycles have subclinical ovulatory disturbances and lack sufficient progesterone, although their normal length ensures enough estrogen. Subclinical ovulatory disturbances are related to significant premenopausal spine bone loss (-0.86%/year). Molimina, non-distressing premenstrual experiences, may detect ovulation within normal-length cycles. This prospective study assessed the relationship between molimina and ovulation. After 1-cycle of daily diary and first morning urine collections, women answered the Molimina Question (MQ): "Can you tell by the way you feel that your period is coming?" and were invited to share (a) predictive premenstrual experience(s). A 3-fold increase in follicular-luteal pregnanediol levels confirmed ovulation. In 610 spontaneously menstruating women (not on hormonal contraception, mean age 31.5 ± 5.3, menarche age 12.7 ± 1.5, cycle length [CL] 29 days, MQ positive in 89%), reported premenstrual experiences which included negative moods (62%), cramps (48%), bloating (39%), and front (26%) or axillary (25%) breast tenderness. Of 432 women with pregnanediol-documented cycles, 398 (92%) were ovulatory (CL: 29 ± 5) and 34 (8%) had ovulatory disturbances (CL: 32 ± 14). Women with/without ovulatory cycles were similar in parity, body mass index, smoking, dietary restraint and the MQ; ovulatory-disturbed cycles were longer. Molimina did not confirm ovulation. A non-invasive, inexpensive ovulation indicator is needed to prevent osteoporosis.
Prior JC et al., 2016 Geburtshilfe Frauenheilkd Open Access
Although a fragility fracture family history (FFFH+) has repeatedly been shown to be associated with lower bone mineral density (BMD), its relationship to human BMD change is unclear. Animal research, however, documented that different purebred strains within rodent species have wide ranges in rates of bone acquisition during growth as well as in change post-ovariectomy. Our objective was to compare the rate of premenopausal spinal trabecular BMD change between women with and without a general family history of fragility fracture. Participants and methodsHealthy premenopausal community women participated in prospective observational studies at two academic medical research centres: Vancouver, Canada (n = 66) and Munich, Germany (n = 20). The primary outcome was annual spinal BMD change, measured by quantitative computed tomography (QCT). The two studies employed similar methodologies for assessing QCT and FFFH. Volunteer community participants had a mean age of 36.0 (SD, 6.9) years, body mass index 22.5 (2.4) and baseline QCT of 150.2 (22.5) mg/cm3 trabecular bone. The rates of BMD change were similar in both cities: - 3.5 (5.1)/year Vancouver, - 2.0 (3.4)/year Munich (95 % CI of difference: - 3.9, 0.9). Over a third of the women (31 of the 86, 36 %) reported FFFH+. Those with and without a FFFH were similar in demographics, nutrition, exercise, menstrual cycle and luteal phase lengths and physiological measures (serum calcium, osteocalcin and estradiol). However, women with FFFH+ lost trabecular BMD more rapidly: FFFH+, - 4.9 (5.0), FFFH-, - 2.2 (4.4) mg/cm3/year (95 % CI diff - 0.7 to - 4.8, F1.83 = 7.88, p = 0.006). FFFH+ explained 7.7 % of the variance in QCT volumetric trabecular spinal bone change/year in these healthy premenopausal women. This study shows for the first time that having a history of a fragility fracture in a family member is associated with a greater rate of premenopausal spinal trabecular bone loss.
Prior JC et al., 2014 PLoS One Open Access
Progesterone is effective treatment for hot flushes/night sweats. The cardiovascular effects of progesterone therapy are unknown but evidence suggests that premenopausal normal estradiol with also normal progesterone levels may provide later cardiovascular protection. We compared the effects of progesterone to placebo on endothelial function, weight, blood pressure, metabolism, lipids, inflammation and coagulation. We conducted a randomized, double-blind, 3-month placebo-controlled trial of progesterone (300 mg daily) among 133 healthy postmenopausal women in Vancouver, Canada from 2003-2009. Endothelial function by venous occlusion plethysmography was a planned primary outcome. Enrolled women were 1-11 y since last menstruation, not using hormones (for >6 months), non-smoking, without diabetes, hypertension, heart disease or their medications. Randomized (1∶1) women (55 ± 4 years, body mass index 25 ± 3) initially had normal blood pressure, fasting lipid, glucose and electrocardiogram results. Endothelial function (% forearm blood flow above saline) was not changed with progesterone (487 ± 189%, n = 18) compared with placebo (408 ± 278%, n = 16) (95% CI diff [-74 to 232], P = 0.30). Progesterone (n = 65) and placebo (n = 47) groups had similar changes in systolic and diastolic blood pressure, resting heart rate, weight, body mass index, waist circumference, total cholesterol, low-density lipoprotein cholesterol and triglyceride levels. High-density lipoprotein was lower (-0.14 mmol/L, P = 0.001) on progesterone compared with placebo. Fasting glucose, hs-C-reactive protein, albumin and D-dimer changes were all comparable to placebo. Framingham General Cardiovascular Risk Profile scores were initially low and remained low with progesterone therapy and not statistically different from placebo. Results indicate that progesterone has short-term cardiovascular safety. Endothelial function, weight, blood pressure, waist circumference, inflammation and coagulation were unchanged as were lipids except for HDL-C. The statistically significant decrease in HDL-C levels was not clinically important (based on lack of Cardiovascular Risk Profile change). ClinicalTrials.gov NCT00152438.
Li D et al., 2013 Epidemiol Rev
Subclinical ovulatory disturbances (anovulation or short luteal phases within normal-length menstrual cycles) indicate lower progesterone-to-estrogen levels. Given that progesterone plays a bone formation role, subclinical ovulatory disturbances may be associated with bone loss or less than expected bone gain. Our purpose was to perform a meta-analysis of prospective studies in healthy premenopausal women to determine the overall relationship of subclinical ovulatory disturbances to change in bone mineral density. Two reviewers independently identified from serial literature searches 6 studies meeting inclusion criteria: a 2-year study in 114 young adult women, 2006-2009, Vancouver, Canada; a 2-year study in 189 premenopausal women, 2000-2005, Toronto, Canada; a single-cycle study in 14 young women, 1996-1997, Melbourne, Australia; an 18-month study in 53 women, 1990-1995, Santa Clara, California; a 4-year study in 27 women, 1988-1995, Vancouver, Canada; and a 1-year study in 66 women, 1985-1988, Vancouver, Canada. This meta-analysis included a combined sample size of 473 observations in 436 premenopausal women studied over 1-4 years and aged 14-47 years. The percentage of women with ovulatory disturbances varied significantly from 13% to 82%. Women with more frequent ovulatory disturbances had more negative percentage changes in spine bone mineral density (weighted mean difference = -0.86; P = 0.040) for random-effects analysis. There was significant heterogeneity among these 6 studies (I(2) = 80%). In summary, these data show that regularly menstruating women with more frequent ovulatory disturbances experience more negative changes in bone (approximately -0.9% per year). These cycles with silent estrogen/progesterone imbalance may be clinically important.
Sathi P et al., 2012 Clin Endocrinol (Oxf)
Thyroid hormones and progesterone both influence core temperature, metabolism and are crucial during pregnancy. Our objective was to discover whether progesterone therapy caused changes in thyroid physiology compared with placebo. Post hoc analysis from a randomized (1:1) placebo-controlled 12-week trial of oral micronized progesterone (Progesterone, 300 mg/d at bedtime) for hot flushes (vasomotor symptoms, VMS) conducted in an academic medical centre. Postmenopausal euthyroid, healthy (without cardiovascular diseases or risks) women, 1-11 years since last flow on no thyroid or ovarian hormone therapy with VMS participated. Primary outcomes were final and 12-week changes in TSH, FreeT3 and FreeT4 on progesterone vs placebo. Women with thyroid data (69 of 133 in original trial) were randomized to progesterone (n = 39) or placebo (n = 30)-baseline thyroid values were normal. There were no VMS-thyroid interactions-VMS Score (number × intensity) did not correlate with TSH, FreeT3 or FreeT4 (Spearman's rank correlations: -0.03 to -0.19, respectively; all P > 0.15). At 12 weeks on progesterone, TSH levels tended to be lower (1.7 mU) than on placebo (2.2), P = 0.06; FreeT4 levels were higher (16.4 pmol/l) than on placebo (15.3), P = 0.02. FreeT3 was unchanged throughout. Analysis of covariance showed a significant increase in FreeT4 on progesterone (+2.5 pmol/l; 1.9-3.0) vs on placebo (+1.7; 1.1-2.4) with 95% CI of difference = 0.8 pmol/l [0.0, 1.6], P = 0.04. Progesterone caused a significant FreeT4 increase that was discovered during this randomized controlled VMS trial. The clinical importance of this increased FreeT4 level remains to be documented. Registered at ClinialTrials.gov#NCT00152438.
Prior JC et al., 2012 Gynecol Endocrinol
A controlled trial recently showed that oral micronized progesterone (Progesterone, 300 mg at h.s. daily) was effective for vasomotor symptoms (VMS) in 133 healthy early postmenopausal women. Here, we present subgroup data in women with severe VMS (50 VMS of moderate-severe intensity/wk) and also 1-mo withdrawal study outcomes. Women with severe VMS (n = 46) resembled the full cohort but experienced 10 VMS/d of 3 of 4 intensity. On therapy, the progesterone VMS number (#) decreased significantly more than placebo # to 5.5/day (d) versus 8/d (ANCOVA -2.0 95% CI: -3.5 to -0.4). Just after trial mid-point, a withdrawal substudy (D/C) was added--56 women were invited and 34 (61%) took part (progesterone 17; placebo 17). Those in the D/C cohort resembled the whole cohort. On stopping, VMS gradually increased--at D/C week 4, on progesterone, VMS daily # reached 78% and significantly less than baseline (-3.0 to -0.8) but placebo VMS # did not differ from run-in. In summary, progesterone is effective for severe VMS and does not cause a rebound increase in VMS when stopped. That progesterone may be used alone for severe VMS and unlike estrogen does not appear to cause a withdrawal rebound increases VMS treatment options.
Hitchcock CL et al., 2012 Menopause
The aim of this study was to evaluate the associations between vasomotor symptoms ([VMS] hot flushes or flashes and night sweats) and markers of cardiovascular risk. Healthy postmenopausal women in a randomized controlled trial of progesterone for VMS recorded VMS frequency in the Daily Menopause Diary for 28 days at baseline. Accepted risks for cardiovascular disease were measured: body mass index (BMI), waist circumference (WC), waist-to-height ratio (WHtR), blood pressure (BP), endothelial function by venous occlusion plethysmography, fasting lipids, glucose, high-sensitivity C-reactive protein, albumin, and D-dimer. Relationships between risk variables and VMS frequency (24 h, day and night) were assessed by univariate and multivariate robust regressions with adjustment for age and WHtR. Data were available for 145 healthy, nonsmoking women without heart disease, hypertension, or diabetes who were 1 to 11 years past their final menstruation and were aged 43 to 65 years, with a mean (SD) BMI of 25.0 (2.9) kg/m and WC of 79.1 (7.1) cm. Anthropometric variables (BMI, WC, and WHtR) were significantly negatively associated with total (24-h day) VMS frequency and with day VMS but not with night VMS frequency. Systolic BP decreased with greater 24-hour VMS frequency, and both systolic and diastolic BPs were inversely related to day but not night VMS frequency. Albumin was positively associated with night VMS frequency but not with day or 24-hour VMS frequency. Other variables showed little association with VMS frequency. Hot flushes, but not night sweats, were associated with lower cardiovascular risk factors in these healthy postmenopausal women. Future research should differentiate night sweats from hot flushes.
Hitchcock CL et al., 2012 Menopause
The aim of this study was to compare oral micronized progesterone (progesterone) with placebo as therapy for postmenopausal hot flushes and night sweats (vasomotor symptoms [VMS]). Healthy volunteer community women 1 to 10 years since final menstruation were recruited for a randomized double-blind placebo-controlled trial of progesterone (300 mg daily at bedtime) between 2003 and 2009 and were screened for clinical, physical, or laboratory evidence of cardiovascular risks (nonsmoking, moderate body mass index [<35 kg/m], normal lipids, electrocardiogram, nondiabetic). Women recorded daily frequency and severity (1-4) of VMS in the Daily Menopause Diary during run-in (4 wk) and intervention (12 wk). Average daily VMS score (day frequency × day severity + night frequency × night severity) during final 28 therapy days was the primary outcome, analyzed by therapy, with run-in score as covariate. Randomized participants were 133 healthy community women with VMS, ages 44 to 62 years, with a mean (SD) VMS score of 17.0 (10.4) at run-in (VMS frequency 6.8 [3.2] episodes/d). Women were randomized to progesterone (n = 75) or placebo (n = 58); analysis included all with VMS data at run-in and on therapy (n = 68 and 46, respectively). The VMS scores of women taking progesterone were better than placebo (mean adjusted difference, -4.3 (95% CI, -6.6 to -1.9), with mean reductions of 10.0 (95% CI, -12.0 to -8.1) and 4.4 (95% CI, -6.6 to -2.2) in the progesterone and placebo arms, respectively. Discontinuation with adverse events was 9% (progesterone, 8; placebo, 4), with no serious cases. Oral micronized progesterone is effective for treatment of hot flushes and night sweats in healthy women early in postmenopause.
Langsetmo L et al., 2012 Bone Open Access
Physical activity (PA) is an important modifiable risk factor for both bone mineral density (BMD) and body mass index (BMI). However, BMI is itself strongly predictive of BMD. Our aim was to determine the association between PA and BMD, with consideration of BMI as a potential mediating factor. The Canadian Multicentre Osteoporosis Study (CaMos) is a population-based prospective cohort study of Canadian women and men. PA was determined from interviewer-administered questionnaires at baseline and Year 5 and summarized as daily energy expenditure in total metabolic equivalents of the task multiplied by minutes/day (MET*m/d). Height, weight, and total hip and lumbar spine BMD were measured at baseline and Year 5. General linear models assessed relationships between PA and BMD, both cross-sectionally (baseline PA with baseline BMD) and longitudinally (average PA and change in PA with change in BMD). BMI was considered as a mediating factor. Potential confounders included age, center, education, caffeine intake, alcohol exposure, smoking history, history of weight-cycling, age at menarche, past use of oral contraceptives, history of >3 months missed menstruation, menopausal status, and antiresorptive use, as relevant. The study included 2855 men and 6442 women. PA was inversely associated with BMI at baseline, and an increase in PA between baseline and Year 5 was associated with a decrease in BMI, with 0.41 (95% CI: 0.22, 0.60) kg/m(2) loss per 1000 MET*m/d increase (in men) and 0.40 (95% CI: 0.23, 0.57) kg/m(2) loss per 1000 MET*m/d increase (in women). BMI was strongly associated with BMD, both cross-sectionally and longitudinally. However, increased PA was associated with a small increase in total hip BMD, 0.004 (95% CI: 0.000-0.008) g/cm(2) per 1000 MET*m/d (in men) and 0.003 (95% CI: 0.000-0.007) g/cm(2) per 1000 MET*m/d (in women). Average PA was associated with an increase in lumbar spine BMD in women, but not in men; it was not associated with change in total hip BMD in either sex. Increased PA is associated with an increase in BMD and a concomitant decrease in BMI. These findings suggest that population-level interventions to increase PA would favorably impact bone and other health outcomes.
White CP et al., 2011 Obstet Gynecol Int Open Access
We report menstrual and mid-cycle patterns of self-reported "fluid retention" in 765 menstrual cycles in 62 healthy women. Self-reported "fluid retention," commonly described as bloating, is one element of the clinical assessment and diagnosis of premenstrual symptoms. These daily diary data were collected as part of an observational prospective one-year study of bone changes in healthy women of differing exercise characteristics. Ovulation was documented by quantitative basal temperature analysis, and serum estradiol and progesterone levels were available from initial and final cycles. Fluid retention scores (on a 0-4 scale) peaked on the first day of menstrual flow (mean ± 0.9 ± 0.1), were lowest during the mid-follicular period, and gradually increased from 0.22 ± 0.05 to 0.50 ± 0.09 over the 11 days surrounding ovulation. Mid-cycle, but not premenstrual, fluid scores tended to be lower in anovulatory cycles (ANOVA P = 0.065), and scores were higher around menstruation than at midcycle (P < 0.0001). Neither estradiol nor progesterone levels were significantly associated with fluid retention scores. The peak day of average fluid retention was the first day of flow. There were no significant differences in women's self-perceived fluid retention between ovulatory and anovulatory cycles.
Kalyan S et al., 2011 Journal of Gynecologic Surgery
The aim of this study was to provide a clinical reference for the acute postoperative changes to lipids and inflammation following premenopausal hysterectomy with bilateral oophorectomy and compare them to normal reference values. The study design was a planned secondary analysis of data from a randomized double-blind trial comparing the effectiveness of two different hormone therapies for preventing post-oophorectomy bone loss and controlling vasomotor symptoms. These data were obtained on hospital discharge before randomization to treatment. Premenopausal women scheduled for a hysterectomy with bilateral oophorectomy for benign reasons were identified from preoperative lists and approached, prior to hospital discharge, to participate in this study. Postoperative data were compared with premenopausal reference intervals using Z scores. Thirty-three (33) women (mean age 45 ± 4.8 years) were studied an average of 7 days postsurgery. Hemoglobin, albumin, testosterone, and high-density lipoprotein values were decreased in comparison to the normal mean, having Z scores of −3.0, −2.5, −2.4, and −1.7, respectively. C-reactive protein levels were quite significantly elevated (Z score = 20.3). The high levels of inflammation and abnormal lipids postsurgical menopause are important considerations for physicians when planning subsequent treatment and care. (J GYNECOL SURG 27:9)
Prior JC et al., 2011 Front Biosci (Schol Ed)
Perimenopause, rather than a time of declining estrogen, is characterized by three major hormonal changes that may begin in regularly menstruating women in their mid-thirties: erratically higher estradiol levels, decreased progesterone levels (in normally ovulatory, short luteal phase or anovulatory cycles), and disturbed ovarian-pituitary-hypothalamic feedback relationships. Recent data show that approximately a third of all perimenopausal cycles have a major surge in estradiol occurring de novo during the luteal phase. This phenomenon, named "luteal out of phase (LOOP)" event, may explain a large proportion of symptoms and signs for symptomatic perimenopausal women. Large urinary hormone data-sets from women studied yearly over a number of years in the Study of Women Across the Nation (SWAN) and in the Tremin data will eventually provide a more clear prospective understanding of within-woman hormonal changes. Predicting menopause proximity with FSH or Inhibin B levels is documented to be ineffective. Anti-Mullerian hormone levels may prove predictive. Finally, there is an urgent need to change perimenopause understandings, language and therapies used for midlife women's symptoms to reflect these hormonal changes.
Kalyan S et al., 2010 Pharmacotherapy
To compare the cardiovascular and metabolic effects of medroxyprogesterone acetate (MPA) with those of conjugated equine estrogen (CEE) as single-hormone therapies in women who underwent hysterectomy with bilateral ovariectomy. Secondary analysis of a 12-month, double-blind, randomized, parallel-therapy trial. Four teaching hospitals and one community hospital in Vancouver, Canada. Thirty-three healthy women who underwent premenopausal hysterectomy with bilateral ovariectomy. Subjects received either MPA 10 mg/day (18 women) or CEE 0.6 mg/day (15 women) for 12 months, started immediately after hysterectomy with bilateral ovariectomy. MAIN Lipid profiles (high-density lipoprotein cholesterol [HDL], total cholesterol, apolipoprotein B, and triglyceride levels), homeostatic measures (hemoglobin A(1c) and fasting blood glucose level), hormone levels (free and bioavailable testosterone, cortisol, sex hormone-binding globulin [SHBG], and dehydroepiandrosterone sulfate), inflammatory markers (C-reactive protein [CRP] and serum albumin levels), and anthropometric measures (body mass index [BMI], truncal fat, and total body fat) were assessed over the 12-month period. After 12 months, the women assigned to MPA had lesser increases in BMI (p=0.04), triglyceride (p=0.003), HDL (p<0.0005), SHBG (p<0.0005), total testosterone (p=0.003), and CRP values (p=0.01) and higher serum albumin levels (p<0.0005) compared with the women receiving CEE. Therapy with CEE, but not MPA, after surgical menopause appears to predispose healthy women to low-grade inflammation, as evidenced by its independent associations with elevated CRP and reduced albumin levels. In women treated with MPA, the favorable levels of inflammatory markers, BMI, and triglyceride levels need to be confirmed in larger controlled trials, as progesterone therapy may provide a safe and effective alternative to estrogen for vasomotor symptoms in women with surgical menopause.
Marks M et al., 2010 Can Pharm J
Physicians and menstruating women often ask pharmacists for recommendations about menstrual cycle–related problems. Progesterone and medroxyprogesterone may provide physiology-based treatment, but official indications in menstruating women in Canada are minimal. To describe pharmacists' responses to vignette-based questions about the treatment of common clinical problems in menstruating women and review evidence-based therapies. A pharmacist interviewer administered an 11-item questionnaire to a random sample of community pharmacists. Questions were based on clinical vignettes in adolescent, preand perimenopausal women and related to heavy flow, polycystic ovary syndrome, premenopausal osteoporosis, perimenopausal night sweats and side effects/contraindications for estrogens and progesterone/progestins. The participation rate was 58%, including equal numbers of male and female pharmacists. Seventy-two percent indicated that they would treat menorrhagia in an anemic 13-year-old with oral contraceptives — 21% would recommend ibuprofen and 86% iron. Half recommended that a 35-year-old smoker with heavy flow and acne stop oral contraceptives, but the other 50% recommended a switch to an oral contraceptive with cyproterone. For premenopausal osteoporosis, the majority recommended calcium and vitamin D, but 53% endorsed oral contraceptives — only 7% suggested cyclic medroxyprogesterone. For night sweats, the majority recommended progesterone/progestin in a regularly menstruating 42-year-old woman. Estrogens are contraindicated with past thrombosis and/or breast cancer family history, and they could cause nausea; 50% of pharmacists also attributed these adverse effects to progesterone/progestins. Community pharmacists vary widely in their treatment choices for common preand perimenopausal women's menstrual cycle–related problems. The evidence in support of most recommendations is minimal or lacking.
Harvey AT et al., 2009 J Psychosom Obstet Gynaecol
We examined the cyclicity of negative mood relative to ovulation and ovulation disturbances in Menstrual Cycle Diary(c) data collected daily during a 1-year study of ovulation, exercise, and bone change. A validated quantitative basal temperature-based methodology was used to determine the onset of the luteal phase. 'Feeling depressed', 'feeling anxious', and 'feeling angry/frustrated' were scored on a scale of 0 (absent) to 4 (very intense). Mood scores were examined over two 15-day intervals centered on either ovulation/midpoint, or on the onset of flow. Data were available from 765 cycles of 62 healthy and initially ovulatory women with a mean age of 33.9 +/- 5.4 years. Of 739 cycles that could be classified, 532 (72%) were normally ovulatory, 185 (25%) were ovulatory with a short (<10 day) luteal phase, and 22 (3%) were anovulatory. Minor cyclic mood changes were present in both ovulatory and anovulatory menstrual cycles. In anovulatory cycles, mood tended to be more variable but less negative, with a time course that differed from that in ovulatory cycles. Mood scores did not differ based on luteal phase length or with hormone levels. Patterns and mechanisms of mood change in very symptomatic women appear to be essentially amplifications of normal experiences.
Hitchcock CL et al., 2009 Fertil Steril
Bedford JL et al., 2009 Eur J Obstet Gynecol Reprod Biol
To assess computerised least-squares analysis of quantitative basal temperature (LS-BT) against urinary pregnanediol glucuronide (PdG) as an indirect measure of ovulation, and to evaluate the stability of LS-QBT to wake-time variation. Cross-sectional study of 40 healthy, normal-weight, regularly menstruating women aged 19-34. Participants recorded basal temperature and collected first void urine daily for one complete menstrual cycle. Evidence of luteal activity (ELA), an indirect ovulation indicator, was assessed using Kassam's PdG algorithm, which identifies a sustained 3-day PdG rise, and the LS-QBT algorithm, by determining whether the temperature curve is significantly biphasic. Cycles were classified as ELA(+) or ELA(-). We explored the need to pre-screen for wake-time variations by repeating the analysis using: (A) all recorded temperatures, (B) wake-time adjusted temperatures, (C) temperatures within 2h of average wake-time, and (D) expert reviewed temperatures. Relative to PdG, classification of cycles as ELA(+) was 35 of 36 for LS-QBT methods A and B, 33 of 34 (method C) and 30 of 31 (method D). Classification of cycles as ELA(-) was 1 of 4 (methods A and B) and 0 of 3 (methods C and D). Positive predictive value was 92% for methods A-C and 91% for method D. Negative predictive value was 50% for methods A and B and 0% for methods C and D. Overall accuracy was 90% for methods A and B, 89% for method C and 88% for method D. The day of a significant temperature increase by LS-QBT and the first day of a sustained PdG rise were correlated (r=0.803, 0.741, 0.651, 0.747 for methods A-D, respectively, all p<0.001). LS-QBT showed excellent detection of ELA(+) cycles (sensitivity, positive predictive value) but poor detection of ELA(-) cycles (specificity, negative predictive value) relative to urinary PdG. Correlations between the methods and overall accuracy were good and similar for all analyses. Findings suggest that LS-QBT is robust to wake-time variability and that expert interpretation is unnecessary. This method shows promise for use as an epidemiological tool to document cyclic progesterone increase. Further validation relative to daily transvaginal ultrasound is required.
Prior JC et al., 2007 Clin Sci (Lond)
Oestrogen therapy is the gold standard treatment for hot flushes/night sweats, but it and oestrogen/progestin are not suitable for all women. MPA (medroxyprogesterone acetate) reduces hot flushes, but its effectiveness compared with oestrogen is unknown. In the present study, oral oestrogen [CEE (conjugated equine oestrogen)] and MPA were compared for their effects on hot flushes in a planned analysis of a secondary outcome for a 1-year randomized double-blind parallel group controlled trial in an urban academic medical centre. Participants were healthy menstruating women prior to hysterectomy/ovariectomy for benign disease. A total of 41 women {age, 45 (5) years [value is mean (S.D.)]} were enrolled; 38 women were included in this analysis of daily identical capsules containing CEE (0.6 mg/day) or MPA (10 mg/day). Demographic variables did not differ at baseline. Daily data provided the number of night and day flushes compared by group. The vasomotor symptom day-to-day intensity change was assessed by therapy assignment. Hot flushes/night sweats were well controlled in both groups, one occurred on average every third day and every fourth night. Mean/day daytime occurrences were 0.363 and 0.187 with CEE and MPA respectively, but were not significantly different (P=0.156). Night sweats also did not differ significantly (P=0.766). Therapies were statistically equivalent (within one event/24 h) in the control of vasomotor symptoms. Day-to-day hot flush intensity decreased with MPA and tended to remain stable with CEE (P<0.001). In conclusion, this analysis demonstrates that MPA and CEE are equivalent and effective in the control of the number of hot flushes/night sweats immediately following premenopausal ovariectomy.
Prior JC et al., 2007 World Bank eBooks Open Access
No AccessOther Health Study28 Jun 2021Walking the TalkReimagining Primary Health Care After COVID-19Authors/Editors: World BankWorld Bankhttps://doi.org/10.1596/35842SectionsAboutPDF (22.7 MB) ToolsAdd to favoritesDownload CitationsTrack Citations ShareFacebookTwitterLinked In Abstract: The world has waited long enough for high-performing primary health care (PHC). It's time to deliver. Forty years ago, leaders embraced the promise of health for all through PHC. That vision has inspired generations. But for nearly half a century, countries have struggled to walk the talk on PHC. We have not built health systems anchored in strong PHC where they were needed most. Today, COVID-19 (coronavirus) has brought the reckoning for that shared failure—but also the chance to do the job right at last. The pandemic has shown policy makers and ordinary citizens why health systems matter and what happens when they fail. By doing so, it has also created a oncein-a-generation chance for structural health-system change. Bold reforms now can prepare health systems for future crises and bring goals like universal health coverage (UHC) within reach. PHC holds the key to these transformations. But to fulfill that promise, the walk has to finally match the talk. This report charts an agenda toward reimagined, fit-for-purpose PHC. It asks three questions about health-systems reform built around Phc: "Why?", "What?", and "How?" Since PHC has been around for decades, why write a thick report about it now? The answer is that the characteristics of high-performing PHC are exactly those that are most critical for managing the pressures coming to bear on health systems in the post-COVID world. The challenges include future infectious outbreaks and other emergent threats, but also long-term structural trends that are reshaping the environments in which systems operate in non-crisis times. This report highlights three sets of megatrends that will increasingly affect health systems in the decades ahead: demographic and epidemiological shifts; changes in technology; and citizens' evolving expectations for health care. Previous bookNext book FiguresreferencesRecommendeddetails View Published: June 2021 Copyright & Permissions Related TopicsHealth Nutrition and Population KeywordsCORONAVIRUSCOVID-19ACCOUNTABILITYHEALTH CARE REFORM PDF DownloadLoading ...
Hitchcock CL et al., 2004 Womens Health Issues
For many years, individual women and doctors have experimented with extending the duration of active oral contraceptive (OC) pills between pill-free intervals (long OC) to control menstruation. The U.S. approval of an OC with 84 active days and 7 pill-free days in 2003 has attracted considerable media attention. In this review we consider the published evidence on the effectiveness, side effects, and risks of menstrual suppression with long OC. We performed a systematic review of published literature on long OC, up to April 2003. Ten papers were located; two were randomized trials comparing long OC to standard OC; the remaining studies were single-group observational studies. Women on long OC schedules had fewer days of scheduled bleeding during days without pills but more days of unscheduled bleeding and spotting than those on standard OC. These problems were worse for women new to OC and diminished over time. Women on long OC were more likely to discontinue due to poor control of bleeding; women on standard OC were more likely to stop because of problems with headaches. Women on long OC and standard OC both showed increases in physiological factors related to clotting, with a nonsignificant tendency for those on long OC to be more affected. No studies considered the effects of long OC on breast tissue, breast density, endometrial safety, or adolescent maturation and reproductive development. No systematic data were available on the return to reproductive function and fertility after taking long OC. There were no placebo-controlled trials and no information on how long OC compares to normal, unmedicated menstrual cycles. Therefore we believe scientific evidence for safety of long OC use is presently lacking.
Hale GE et al., 2003 Climacteric
The purpose was to explore cyclicity of breast tenderness and vasomotor symptoms in menstruating mid-life women using the Daily Perimenopause Diary. Untreated mid-life women from a convenience sample completed the Daily Perimenopause Diary for clinical (n = 14) or research (n = 10) assessments. Breast tenderness, sleep disturbance and day and night vasomotor intensity were rated on a 0-4 scale with vasomotor number as a count. Daily oral temperature data were analyzed using the Quantitative Basal Temperature algorithm to assess ovulation and estimate luteal phase length. Analysis of variance tested cyclicity using the mean of three 3-day windows (during flow, at mid-cycle and premenstrually). Ninety-eight complete flow-to-flow diaries (from 24 women, mean age 47 years, cycle length 27 +/- 6.4 (standard deviation) days) were available, with quantitative temperature data for 60 cycles in 16 women. Of assessed cycles, 90% were ovulatory; 25% had luteal phases < 10 days. Breast tenderness was maximal in the premenstrual window overall (p < 0.0001) and in the ovulatory subset. Night sweats were maximal premenstrually (p = 0.0035) except in anovulatory cycles. Daytime flushes were not cyclic (p = 0.1333) except in ovulatory cycles (p = 0.031). Daily Perimenopause Diaries from mid-life women show premenstrual increases in breast tenderness and night sweats.
Prior JC et al., 2001 J Bone Miner Res
To the Editor: In their recent article, "Characterization of Perimenopausal Bone Loss," Recker and colleagues present unique longitudinal bone mineral density (BMD) and hormonal data.1 We acknowledge the work involved in recruiting, motivating, and continuing to follow 75 women each for an average of 8 years. The data from this study are an important contribution to our knowledge of bone changes through the natural perimenopausal transition. Unfortunately, these authors have chosen to reduce the complex endocrinological and physiological changes of perimenopause2 to one idea—"estrogen deprivation." Our first concern is that "estrogen deprivation" or "depletion" is not an adequate concept with which to explain the rapid bone loss during perimenopause. The author's own data show that 50% of spinal BMD loss has occurred by 6 months before the final menstrual period at which time estradiol levels are not lower than in the so called "estrogen replete" group. In this study, perimenopausal bone loss appears to begin approximately 3 years before the final menstrual flow, which is about the time when menstrual cycles become irregular.3 Several other studies also show accelerated rates of perimenopausal bone loss.2, 4, 5 During these later phases of perimenopause, estradiol levels can be very high and certainly are not consistently low.2, 6, 7 If estradiol levels are not low in perimenopause, how can we explain the rapid bone loss? First, estradiol levels vary widely.2 Perhaps, acute drops in estradiol levels (often from abnormally high values) cause increased bone resorption much like that which has been shown to occur within seven days of premenopausal ovariectomy.8 A second possibility is that perimenopause causes psychosocial stress.9 Social stress coupled with high estradiol levels in men have been experimentally shown to cause increased cortisol levels10 that are known to be negative for bone. Finally, ovulatory changes that increase as women progress through perimenopause,11 are associated with accelerated cancellous bone loss, despite normal estradiol levels and regular cycles in premenopausal women.12 Replacement of luteal phases with cyclic progestin in a double-blind randomized study in premenopausal women with abnormal cycles caused an important positive change in spinal BMD.13 As a mechanism to allow use of all of their data, the authors labeled "estrogen replete" those women who continued to menstruate as well as those who started hormone therapy before menopause. It seems odd to us to combine data from three women who have undergone ovariectomy and seven women on exogenous hormone therapy with 10 preor perimenopausal women. The estrogen deprivation hypothesis has led the authors to overlook important physiological differences within this group. We request that the data for the 10 untreated preor perimenopausal women be provided and that we be told whether or not they continued to menstruate regularly. In women's life cycle, low levels of estrogen are as natural for menopausal women as for toddlers. To label menopause as a hormone deficiency condition is to ignore the normal hormonal pattern of women's lives. Recker and colleagues suggest that "hormone replacement therapy" should "begin as early as 2 years before the last menstrual period." Although we acknowledge that vasomotor symptoms commonly begin in perimenopause and have a very negative impact on quality of life, we suggest that progesterone would be a more appropriate therapy. Progesterone is truly low at this phase of perimenopause11 and is effective for night sweats/hot flushes. We fear that prescription of estrogen to women in late perimenopause may have negative consequences in both the short and the long-term. In the short term, it may exacerbate symptoms such as breast tenderness, headaches, and fluid retention. In the long term, having experienced side effects from estrogen treatment these women may refuse it when they are menopausal, a time when it has the potential to be valuable therapy. In summary, this important study is flawed because it relies on a clearly inadequate "estrogen deprivation" concept as the sole explanation for differences found in the prospective data from midlife women.
Hitchcock CL et al., 1999
Is Menstruation Obsolete? argues that regular monthly bleeding is not the “natural” state of women, and that it actually places them at risk of several medical conditions of varying severity. The authors maintain that while menstruation may be culturally significant, it is not medically meaningful. Moreover, they propose that suppressing menstruation has remarkable health advantages. Because of cultural changes, shorter durations of breast feeding, and birth control, the reproductive patterns of modern women no longer resemble that of their Stone age ancestors. Women have moved from the age of incessant reproduction to the age of incessant menstruation. Consequently, they often suffer from clinical disorders related to menstruation: anemia, endometriosis, and PMS, just to name a few. The authors encourage readers to recognize what has gone previously unnoticed that this monthly discomfort is simply not obligatory. They present compelling evidence that the suppression of menstruation is a viable option for women today, and that it can be easily attained through the use of birth control pills. In fact, they reveal that contraceptive manufacturers, knowing that many women equate menstruation with femininity and that without monthly bleeding would fear that they were pregnant, engineered pill dosage regimens to ensure the continuation of their cycles. Indeed, throughout history societies have assigned menstruation powerful meaning, and Is Menstruation Obsolete? presents a fascinating history of how menstruation inspired doctors to try therapeutic bleeding for a variety of ailments, and how this therapy remained dominant in Western medicine until the early 20th century. Is Menstruation Obsolete? offers women a fresh view of menstruation, providing them with the information they need to make progressive choices about their health. This is a message whose time has come.
Petit MA et al., 1998 J Clin Endocrinol Metab