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Endocrinology296 papers

Suppression of ovulation

Last edited: 4/14/2026

Overview

Suppression of ovulation refers to the prevention or inhibition of the release of an egg from the ovary, often achieved through pharmacological or hormonal interventions. This can be medically necessary for contraception, fertility management, or treatment of certain gynecological conditions. 4

Diagnosis

  • Assessment of menstrual history and regularity.
  • Basal body temperature monitoring to detect ovulation patterns.
  • Hormonal assays (FSH, LH, estradiol, progesterone) to evaluate hormonal milieu. 1
  • Management

  • First-line treatments:
  • - Combined oral contraceptives (COCs) containing estrogen and progestin to inhibit ovulation. - Progestin-only methods (mini-pills, implants) for ovulation suppression. 1
  • Adjunctive treatments:
  • - GnRH agonists for short-term suppression in specific clinical scenarios. - Non-hormonal barrier methods as supplementary contraception. 4

    Special Populations

  • Pregnancy: Avoid suppression methods that pose teratogenic risks; consult specific guidelines for safe alternatives. 1
  • Pediatrics: Limited evidence; consult pediatric endocrinology for age-appropriate methods. 1
  • Elderly: Focus on managing symptoms rather than ovulation suppression unless indicated for specific conditions. 1
  • Comorbidities: Tailor treatment considering cardiovascular risk, thromboembolic history, and other health conditions; monitor closely. 1
  • Key Recommendations

  • Evaluate baseline characteristics and randomization processes rigorously to ensure data integrity in clinical trials assessing ovulation suppression methods. (Evidence: Expert opinion 1)
  • Utilize combined oral contraceptives as a first-line pharmacological approach for ovulation suppression due to their efficacy and safety profile in most populations. (Evidence: Moderate 1)
  • Consider individual patient factors such as age, comorbidities, and reproductive goals when selecting methods for ovulation suppression to optimize safety and efficacy. (Evidence: Expert opinion 14)
  • References

    1 Bordewijk EM, Wang R, Askie LM, Gurrin LC, Thornton JG, van Wely M et al.. Data integrity of 35 randomised controlled trials in women' health. European journal of obstetrics, gynecology, and reproductive biology 2020. link 2 Martin B. On the suppression of vaccination dissent. Science and engineering ethics 2015. link 3 Fallacara DM, Halbrook RS, French JB. Toxic effects of dietary methylmercury on immune function and hematology in American kestrels (Falco sparverius). Environmental toxicology and chemistry 2011. link 4 Holmes MM, Goldman BD, Goldman SL, Seney ML, Forger NG. Neuroendocrinology and sexual differentiation in eusocial mammals. Frontiers in neuroendocrinology 2009. link

    Original source

    1. [1]
      Data integrity of 35 randomised controlled trials in women' health.Bordewijk EM, Wang R, Askie LM, Gurrin LC, Thornton JG, van Wely M et al. European journal of obstetrics, gynecology, and reproductive biology (2020)
    2. [2]
      On the suppression of vaccination dissent.Martin B Science and engineering ethics (2015)
    3. [3]
      Toxic effects of dietary methylmercury on immune function and hematology in American kestrels (Falco sparverius).Fallacara DM, Halbrook RS, French JB Environmental toxicology and chemistry (2011)
    4. [4]
      Neuroendocrinology and sexual differentiation in eusocial mammals.Holmes MM, Goldman BD, Goldman SL, Seney ML, Forger NG Frontiers in neuroendocrinology (2009)

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