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Review

Advancing Women’s Health: A Scoping Review of Pharmaceutical Therapies for Female Sexual Dysfunction

1
College of Human Medicine, Michigan State University, East Lansing, MI 49503, USA
2
School of Medicine, Wayne State University, Detroit, MI 48201, USA
3
Department of Urology, Wayne State University, Detroit, MI 48201, USA
*
Author to whom correspondence should be addressed.
Sexes 2025, 6(3), 38; https://doi.org/10.3390/sexes6030038
Submission received: 18 March 2025 / Revised: 28 June 2025 / Accepted: 9 July 2025 / Published: 11 July 2025
(This article belongs to the Section Women's Health and Gynecology)

Abstract

Background: Female Sexual Dysfunction (FSD) encompasses a range of conditions that can profoundly impact quality of life and intimate relationships. The primary classifications of FSD include female sexual interest and arousal disorder (FSIAD), genitopelvic pain and penetration disorder (GPPPD), female orgasmic disorder (FOD), and substance or medication-induced sexual dysfunction (SM-ISD). Despite its prevalence, FSD is often underdiagnosed and undertreated. Objectives: This scoping review follows Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guidelines to evaluate the existing literature on both U.S. Food and Drug Administration (FDA)-approved and off-label pharmacotherapies for FSD by study type, outcomes, and limitations. Eligibility Criteria: Eligible studies comprised randomized controlled trials (RCTs), systematic reviews, and cohort studies involving adult women (≥18 years) with any subtype of FSD. These studies assessed pharmacologic interventions against a comparator and reported at least one treatment efficacy outcome. Studies outside this scope were excluded. Sources of Evidence: A 25-year literature search was conducted using PubMed/MEDLINE, the Cochrane Library, reference lists of relevant articles, academic handbooks, and targeted journals. Charting Methods: Three independent reviewers screened and extracted data. Risk of bias was assessed using the Cochrane Risk of Bias Tool. Findings were organized into summary tables and categorized by pharmaceutical agent, pertinent study information, outcomes, and limitations. Results: A total of 44 human-based pharmacologic studies met inclusion criteria. FDA-approved agents were the most thoroughly studied pharmacotherapies. Hormonal, topical, and adjunctive agents demonstrated less robust evidence. Heterogeneity in outcome measures and inadequate long-term data were common limitations. Conclusions: Pharmacologic treatment for FSD shows promise but requires further research. Individualized, multifaceted care is essential for optimizing FSD outcomes.

1. Introduction

Sexual dysfunction is defined as a persistent impairment in sexual interest, arousal, ability to achieve orgasm, and sexual pain, and it can significantly impact a patient’s quality of life and potential reproductive capacity [1,2]. Historically, research and treatment advances for sexual dysfunction have been directed toward male erectile dysfunction, despite the condition affecting both male and female patients. This emphasis has inadvertently led to a critical gap in understanding and addressing female sexual dysfunction (FSD).
FSD is a highly prevalent condition affecting almost 41% of premenopausal and 50% of postmenopausal women [3,4]. Despite its widespread occurrence, many women do not seek treatment, generally due to primary barriers such as lack of knowledge, emotional and psychological factors, socio-cultural stigma, and reduced access to specialized care [5,6]. Additionally, healthcare providers report inadequate treatment options in managing patients with FSD [7]. FSD is therefore an underdiagnosed and undertreated condition, highlighting the need for recognition, expanded research, and improved treatment strategies.
The Diagnostic and Statistical Manual of Mental Disorders (DSM-5) provides the most comprehensive diagnostic criteria for FSD. It represents a shift in clinical thinking that moves away from the traditional, linear model of the sexual response cycle and attempts to be less gendered in the criteria for sexual dysfunctions [8,9]. The disorders of FSD present with distinct yet overlapping symptoms, adding complexity to the diagnosis and treatment of FSD. Symptoms must be present for at least 6 months, cause significant personal distress, and cannot be attributed to relationship conflict, cultural or religious beliefs, known medical conditions, or other probable causes. Symptoms should be elucidated through a comprehensive gynecologic and urologic history and are defined by intensity and onset (Table 1).
Classifications of FSD in the DSM-5 include the following:
  • Female sexual interest and arousal disorder (FSIAD);
  • Genitopelvic pain and penetration disorder (GPPPD);
  • Female orgasmic disorder (FOD);
  • Substance or medication-induced sexual dysfunction (SM-ISD).
Table 1. Evaluation considerations for FSD.
Table 1. Evaluation considerations for FSD.
History [10]Assessment [11,12]Diagnostics [11,12]
Intrapersonal: Medical history, contributing health conditions, medication list, psychological health
Interpersonal: Sexual history, relationship dynamics, partner-related factors
Sociocultural: Culture, religious beliefs, personal values, attitudes on sexuality
General appearance
Abdominal exam
Genital inspection
Vulvoscopy
Microbiological: Vaginal pH, cotton swab, microscopy
Hormonal: Estradiol, follicle-stimulating hormone (FSH), free androgen index, total and free testosterone, sex hormone-binding globulin (SHBG), prolactin
Metabolic: Thyroid function, lipid profile, serum glucose
Nutritional: Serum ferritin
FSIAD is a relatively new term used to describe a reduction in sexual interest, arousal, or sensation leading to significant distress. By replacing the previous diagnoses of hypoactive sexual desire disorder and female sexual arousal disorder, FSIAD exists as a more comprehensive diagnosis, given that reduced sexual interest and decreased sexual pleasure often occur simultaneously rather than independently of each other [13]. It is frequently underdiagnosed and undertreated due to its complex nature, sociocultural barriers, and limited clinician understanding of treatment options.
GPPPD is a newly defined condition offering a diagnosis for patients experiencing pain during sexual intercourse that is distinct from dyspareunia, vaginismus, or vulvodynia [14]. The most common subset of this disorder is genitourinary syndrome of menopause (GSM), characterized by vulvovaginal atrophy (VVA) symptoms that result from a hypoestrogenic state [15].
FOD is associated with difficulty experiencing sexual pleasure or orgasm in the presence of significant stimulation. It is a clinically distinct diagnosis from FSIAD, as patients are interested in sexual arousal but are unable to achieve sexual pleasure through clitoral stimulation or vaginal penetration [13]. While factors such as anxiety surrounding pregnancy, cultural beliefs, nerve damage, and medications can contribute to a patient’s inability to achieve sexual pleasure, these are risk factors rather than driving causes.
SM-ISD is the fourth subtype of FSD, caused by substance use or a medication side effect. Symptoms typically resolve upon discontinuation. However, provider awareness of this condition is essential to prevent medication non-compliance [13].
For a summary of the diagnostic criteria for each of the disorders of FSD, see Table 2.
Table 2. Diagnostic criteria for disorders of FSD.
Table 2. Diagnostic criteria for disorders of FSD.
DisorderSymptomsExclusionsEvaluation
FSIAD [13]At least 3 required:
1. Absent or reduced sexual interest
2. Limited or no thoughts about sexual activity
3. Decreased initiation of sexual activity
4. Reduced pleasure during sexual encounters
5. Decreased sensation during intercourse
Not attributed to relationship conflict, cultural or religious beliefs, medications, or known medical conditionsRequires extensive personal, gynecological, and urologic history
GPPPD [13]At least 1 required:
1. Persistent difficulties with vaginal penetration during intercourse
2. Vulvovaginal or pelvic pain during vaginal intercourse
3. Fear or anxiety prior to or during vaginal penetration
4. Significant tensing of the pelvic floor muscles during attempted vaginal penetration
Not attributed to partner violence, relationship stress, or a non-sexual mental health conditionRequires extensive physical and psychological history
FOD [13]At least 1 required:
1. Delay or absence of orgasm during all or almost all instances of sexual activity
2. Reduced orgasmic sensations during all or almost all instances of sexual activity
Not attributed to relationship factors, life stressors, medical conditions, or a non-sexual mental health condition Requires effective history-taking to explore medical, psychological, and interpersonal factors
SM-ISD [13]Severe impairment in sexual function, manifesting in proximity to exposure to the following:
1. A substance or medication known to cause such effects
2. Pharmacotherapy withdrawal
Not attributed to a previously-mentioned sexual dysfunctionRequires adequate review of a patient’s medication and substance use to determine timing of symptoms and rule out other potential causes
While recognition and diagnosis of FSD has increased, treatment options are still in development. Traditionally, patient education and behavioral therapies have been the mainstay of treatment, grounded in the understanding that psychological and relational factors often contribute to sexual dysfunction. However, many women do not respond adequately to these approaches, prefer medical treatment, or face barriers such as time, stigma, or lack of access to trained providers. Thus, pharmacotherapy is becoming an increasingly prominent component of care for these patients. Pharmacologic agents potentially offer practical, widely accessible, and biologically targeted approaches to addressing the hormonal, neurological, and vascular components of FSD. Although various agents have been investigated, pharmacologic strategies that target the personalized nature of FSD remain largely underdeveloped.
This scoping review builds upon previous work to evaluate the current body of literature on FSD pharmacotherapies [8]. We assess both U.S. Food and Drug Administration (FDA)-approved and off-label FSD agents by study type, outcomes, and limitations, as well as by mechanism of action, dosing, and side effects. By integrating clinical trial data, treatment guidelines, and emerging research, we support a more personalized and evidence-based approach to FSD management.

2. Materials and Methods

A comprehensive search for pharmacotherapy for FSD was conducted in accordance with Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guidelines. This review protocol was not pre-registered. The search strategy included a combination of keywords, specifically “female sexual dysfunction”, “female sexual interest and arousal disorder”, “FSIAD”, “genitopelvic pain and penetration disorder”, “GPPPD”, “female orgasmic disorder”, “FOD”, “substance or medication-induced sexual dysfunction”, and “SM-ISD”. These terms were combined with treatment-related keywords including “pharmacotherapy”, “drug therapy”, “treatment”, and “pharmacologic treatment”. Filters and limitations applied to searches included (1) studies published in English; (2) human participants; (3) publication date range from 1 January 2000 to 1 March 2025; (4) randomized controlled trials (RCTs), systematic reviews, and meta-analyses; and (5) studies with available full-text articles. The date of the last search was March 1, 2025.
Data were gathered from the following sources: (1) PubMed/MEDLINE for peer-reviewed literature on FSD and pharmacologic interventions; (2) the Cochrane Library for systematic reviews and evidence-based guidance; (3) reference lists of included articles, systematic reviews, and meta-analyses; (4) academic handbooks and clinical guidelines, including the Diagnostic and Statistical Manual of Mental Disorders, Fifth Edition (DSM-5) and the Handbook of Social Sciences and Global Public Health; and (5) manual searches of journals including The Journal of Sexual Medicine, Sexual Medicine Reviews, Obstetrics & Gynecology, BMC Women’s Health, and Mayo Clinic Proceedings.
Inclusion and exclusion criteria were defined by all authors prior to screening. Studies were eligible if they met the following criteria: (1) randomized controlled trial (RCT), meta-analysis, systematic review, or cohort study published in a peer-reviewed journal; (2) comprised adult women (≥ 18 years) diagnosed with any form of FSD, including but not limited to FSIAD, FOD, GPPPD, and SM-ISD; (3) evaluated pharmacological treatments targeting FSD symptoms; (4) included a comparator such as placebo, no treatment, or another pharmacologic agent; and (5) reported at least one measurable outcome related to treatment efficacy. Exclusion criteria included non-pharmacologic interventions, studies focused solely on male sexual dysfunction, observational studies, case reports, editorials, letters, and conference abstracts without full data, as well as animal or in vitro studies, non-English publications, and articles without full-text access.
To determine study eligibility, three independent reviewers screened titles and abstracts for relevance, followed by a full-text screening against the predefined inclusion and exclusion criteria. Discrepancies during this phase were resolved through discussion. Studies that met eligibility criteria underwent independent data extraction by the same reviewers using a standardized data collecting form. The primary outcome was pharmacotherapy efficacy, measured by a change in sexual function using validated tools or indices. All results that were relevant to this domain were included. A variety of effect measures were extracted from included articles: scores from standardized questionnaires and scales, clinical or physiological measures, statistical effect measures, and subjective or self-reported outcomes. Additional variables extracted were study design, participant characteristics, intervention and comparator details, and risk of bias. No assumptions were made about missing or unclear information. A formal appraisal tool was not used. Risk of bias was assessed using the Cochrane Risk of Bias Tool. Each study was independently evaluated by the three reviewers, with discrepancies resolved through discussion. As a final step, all sources were evaluated by a board-certified urologist to confirm study eligibility and clinical relevance. No automation tools were used in the search or screening process.

3. Results

The PRISMA flow diagram (Figure 1) below outlines the study selection process. Initially, 1054 records were identified through databases (n = 999) and registers (n = 55). Duplicate data were excluded, and the most appropriate sources were identified. A total of 44 original, human-based pharmacologic studies with sufficient data quality were included in the final review.
Findings from the included studies were organized into summary tables and categorized according to the following domains: (1) study design; (2) type of FSD; (3) pharmaceutical agent; (4) number of participants and/or articles cited; (5) presence of a control group; (6) variable(s) measured; (7) results; and (8) limitations. Additional data were extracted from the included studies and supplemented with information from new sources. These data were compiled into tables summarizing the (1) type of intervention; (2) pharmaceutical agent; (3) mechanism of action; (4) recommended dosage; and (5) reported side effects.
The following tables present the most relevant studies found on FSD pharmacotherapies, grouped by RCTs, review articles, and cohort studies (n = 44).
Table 3. Summary of RCTs.
Table 3. Summary of RCTs.
ReferenceType of FSDPharmaceutical AgentNumber of ParticipantsControl GroupVariable(s) MeasuredResultsLimitations
Katz et al., 2013 [16]FSIADFlibanserin (Addyi)1087 premenopausal womenPlaceboFemale Sexual Function Index (FSFI)+1 (SD = 0.3) FSFI desire vs. +0.7 (SD = 0.3) in controlRestricted to heterosexual women with partners
Thorp et al., 2012 [17]FSIADFlibanserin (Addyi)1581 premenopausal womenPlaceboSatisfying sexual eventsStatistically significant increase with 100 mg flibanserinRestricted to heterosexual women with partners
DeRogatis et al., 2012 [18]FSIADFlibanserin (Addyi)880 premenopausal womenPlaceboSatisfying sexual events1.6 encounters vs. 0.8, p < 0.05Restricted to heterosexual women with partners
Simon et al., 2019 [19]FSIADBremelanotide (Vyleesi)272 premenopausal women PlaceboFSFI,
Female Sexual Distress Scale (FSDS)
FSFI: +0.77 (0.54–1 95% CI) in placebo, vs. +1.3 (0.98–1.62, 95% CI); +0.7 (0.42–0.98 95% CI) in placebo, vs. +1.25 (0.93–1.56 95% CI), no significant difference in FSDS between armsHigh dropout rate
Kingsberg et al., 2019 [20]FSIADBremelanotide (Vyleesi)2449 premenopausal womenPlaceboFSFI, FSDSFSFI +0.35 (p < 0.01),
FSDS −0.33 (p < 0.01)
High dropout rate
Fooladi et al., 2014 [21]FSIADTopical testosterone44 pre- and postmenopausal womenPlaceboSatisfying sexual events, Sabbatsberg Sexual Self-Rating Scale (SSS)No significant difference in SSS, significant increase in satisfying eventsInsufficient recruitment
Davis et al., 2013 [22]FSIADEstradiol valerate (non-androgenic)191 premenopausal womenEthinyl estradiol (androgenic)FSFIDesire and arousal increased 5.9 vs. 5.7 points, p < 0.001No placebo arm
Nijland et al., 2008 [23]FSIADTibolone403 postmenopausal womenTopical estradiolFSFI, FSDSFSFI improved significantly vs. estradiol, p < 0.025No placebo
Dasgupta et al., 2004 [24]FSIADSildenafil citrate (Viagra)19 women with multiple sclerosisPlaceboSFQLubrication and sensation improvedSmall cohort, select population
Johnson et al., 2024 [25]FSIADTopical sildenafil 200 premenopausal womenPlaceboSexual Function Questionnaire (SFQ), arousal+2 SFQ arousal (SD = 0.62) vs. +0.08 (SD = 0.71) demonstrating moderate improvementUnderpowered with respect to comorbidity subsets
Safarinejad, 2010 [26]FSIADBupropion218 premenopausal womenPlaceboFSFIAll domains showed statistically significant improvementsSelect cohort of antidepressant users
Caruso et al., 2004 [27]FSIADApomorphine50 premenopausal womenPlaceboPersonal Experiences Questionnaire (PEQ)Statistically significant improvement, 3 mg dose significantly better than 2 mg (<0.05)Small cohort
Bechara et al., 2004 [28]FSIADApomorphine24 pre- and postmenopausal womenPlaceboSubjective surveyStatistically significant improvement over placeboNo validated instruments, subjective responses
Rubio-Aurioles et al., 2002 [29]FSIADPhentolamine vaginal or oral41 postmenopausal womenPlaceboVaginal plethysmography and questionnaireStatistically significant benefit with vaginal and oral phentolamineNo validated measurements, small cohort
Muin et al., 2015 [30]FSIADOxytocin30 pre- and postmenopausal womenWashout and crossoverFSFI, Sexual Quality of Life-Female (SQOL-F), FSDS, Sexual Interest and Desire Inventory-Female (SIDI-F)No statistically significant improvement over placeboSmall cohort, heterogeneous population
Labrie et al., 2015 [31]GPPPDDehydroepiandrosterone (DHEA) (Intrarosa)482 postmenopausal womenPlaceboFSFITotal score, desire, arousal, lubrication, orgasm, satisfaction, pain improved over placebo by 41.3% (p = 0.0006), 49% (p = 0.011), 56.8% (p = 0.002), 36.1% (p = 0.0005), 33% (p = 0.05), 48.3% (p = 0.001), and 39.2% (p = 0.001), respectivelyCohort selected for dyspareunia as opposed to sexual dysfunction
Labrie et al., 2019 [32]GPPPDDHEA (Intrarosa)482 postmenopausal womenPlaceboFSFIVaginal pH decreased over placebo, sexual pain −1.42 over placebo (p < 0.01)Cohort selected for dyspareunia as opposed to sexual dysfunction
Constantine et al., 2015 [33]GPPPDOspemifene919 postmenopausal womenPlaceboFSFIImproved pain domain scores, p < 0.05FSFI improvement not primary outcome
Goetsch et al., 2015 [34]GPPPDLidocaine46 menopausal cancer survivorsPlaceboSFQ, FSDSSFQ pain score decreased 15.5 points, p < 0.01Select population, may not be broadly applicable
Abbreviations: FSFI, Female Sexual Function Index; FSDS, Female Sexual Distress Scale; SFQ, Sexual Function Questionnaire; PEQ, Personal Experiences Questionnaire; SQOL-F, Sexual Quality of Life-Female; SIDI-F, Sexual Interest and Desire Index-Female; SSS, Sabbatsberg Sexual Self-Rating Scale.
Table 4. Summary of review articles.
Table 4. Summary of review articles.
ReferenceType of FSDPharmaceutical AgentArticles CitedVariable(s) MeasuredResultsLimitations
Goldstein et al., 2017 [35]FSIADFlibanserin (Addyi)3 (1548 participants)Sexual desire, sexually-related distress, number of satisfying sexual events in premenopausal womenStatistically significant improvements in sexual desire and satisfaction, decreased sexually-related stress. Sexual desire improvement reported by 54–58% vs. placebo (40–48%). Similar efficacy and safety results for postmenopausal womenShort duration of use 8-week discontinuation threshold
Simon et al., 2019 [36]FSIADFlibanserin (Addyi)3 (2465 participants)Satisfying sexual eventsMean 2.1 +/− 0.14 vs. 1.2 +/− 0.11 satisfying eventsRestricted to heterosexual women with partners
Achilli et al., 2017 [37]FSIADTestosterone7 (3035 participants)Profile of Female Sexual Function (PFSF)-desire domain, Personal Distress Scale (PDS). Satisfying sexual episodes, sexual activity, orgasm, and adverse eventsStatistically significant increase in PFSF desire domain scores (MD = 6.09, p < 0.00001) and decrease in PDS scores (MD = −8.15, p < 0.00001). Statistically significant increase in frequency of satisfying sexual events (MD = 0.9, p < 0.00001), sexual activity (MD = 0.96, p < 0.0001), orgasms (MD = 1.16, p < 0.00001), and sexual desire (MD = 6.09, p < 0.00001). Increase in acne (RR = 1.14) and hair growth (RR = 1.56) androgenic side effects; no significant increases in other side effects or adverse eventsLack of long-term safety data, heterogeneity in estrogen use and progestin co-intervention
Reis & Abdo 2014 [38]FSIADTestosterone20 (5561 participants)No standard scales300 mcg testosterone increased desire, satisfaction and orgasm in a majority of studiesNo consistent measurement instruments
Lara et al., 2023 [39]FSIAD, GPPPDEstrogen36 (23,299 participants)Sexual function composite scoreSlight improvement in sexual function among symptomatic or early postmenopausal women (MD = 0.50, CI: 0.04–0.96, 3 studies). Little to no effect (SMD = 0.64, CI: −0.12–1.4, 6 studies) in long-term postmenopausal women or those not selected based on symptoms. Pooled data: modest overall benefit in sexual function (MD = 0.60, CI: 0.16–1.04, 9 studies)Heterogeneity across studies, multiple outcomes rated as very low- or low-quality evidence, 19 studies received commercial funding
Cappelletti & Warren, 2015 [40]FSIADEstrogen and testosterone20 (3196 participants)PFSF, SSS, self-reported scalesAndrogens alone did not increase desire. Estrogens alone with increased estradiol levels showed increased desireHeterogeneity of studies
Formoso et al., 2016 [41]FSIAD, GPPPDTibolone (Livial)46 (19,976 participants)Vasomotor symptoms, bleeding, and long-term safetyStatistically significant reduction in vasomotor symptoms (35–45% tibolone vs. 67% placebo). Less effective compared to combined menopausal hormonal therapy (MHT) (35–45% tibolone vs. 7% MHT)Risk of bias due to pharmaceutical company funding or limited funding disclosures
Martins et al., 2024 [42]FSIADSildenafil citrate (Viagra)6 (1188 participants)FSFI, SFQ, Female Intervention Efficacy Index (FIEI), Golombok–Rust Inventory of Sexual Satisfaction (GRISS). Orgasm latency, clitoral sensitivityStatistically significant improvements in sexual satisfaction, arousal, orgasm, lubrication, and desire (4 studies). No significant efficacious findings (2 studies)Variable hormonal therapy status use and dosing regimen, 3 studies received industry funding
Brown et al., 2009 [43]FSIADSildenafil citrate (Viagra)12 (780 participants)FSFI Possible positive effect of sildenafil on symptomsSmall sample sizes, articles not comprehensive
Razali et al., 2022 [44]FSIADBupropion11 (961 participants)Overall sexual function, sexual desire, arousal, lubrication, orgasm, satisfaction, pain, pleasure, frequency, fantasy, partner response, distress, tolerabilityStatistically significant improvement in overall sexual function (7 studies). More effective by 2.8x than placebo for sexual desire (pooled OR = 2.845, CI: 0.215–5.475, p = 0.034). Additional improvements in arousal, orgasm, satisfaction, pleasure, and frequencyVariability in study design (6 RCTs, 5 uncontrolled time-series), short durations (4–16 weeks)
Wexler et al., 2023 [45]FSIAD3,4-methylenedioxymethamphetamine
(MDMA)
6Sexual desire, arousal, lubrication, orgasm, and pleasureIncreased sexual desire (4 studies). Improved arousal and lubrication (3 studies). Orgasm was often delayed but reported as more intense and pleasurable. Mixed evidence for arousal and lubricationLargely qualitative findings, small number of studies, overall heterogeneity
Caira-Chuqinevra et al., 2024 [46]FSIADVisnadine2 (96 participants)FSFI total and domain, FSDS. Satisfaction, clitoral blood flow, and tolerabilityStatistically significant increase in total FSFI scores. FSFI arousal domain improved in 1 RCTSmall number of RCTs and sample sizes; methodological variability (daily vs. on-demand applications)
Cieri-Hutcherson et al., 2021 [47]FSIADL-arginine7 (717 participants)FSFI total and domain. Vaginal pulse amplitude (VPA), oxidative stress, vaginal dryness, menopause symptomsStatistically significant improvement in FSFI total score or in multiple domains (6 studies). Significant increase in VPA (1 study)Small sample sizes, some studies lacked individual L-arginine monotherapy arm
La Rosa et al., 2019 [48]GPPPDDHEA (Intrarosa)2Vaginal pH, dryness, FSFIDHEA doses of 6.5 mg intravaginally improves sexual function domain scores and vaginal parameters (pH, dryness, cell proliferation)Small number of studies
Buzzaccarin et al., 2021 [49]GPPPDHyaluronic acid (HA)17 (1441 participants)FSFI, FSDS, Patient-Reported Outcomes Measurement Information System (PROMIS)- sexual function. Vaginal dryness, itching, burning, dyspareunia, pH levelsSignificant improvement in FSFI scores across most studies. Some studies showed improvements in FSDS and PROMIS sexual function scores. Majority of studies demonstrated significant symptom relief (vaginal dryness, itching, burning, dyspareunia, and pH levels)Heterogeneity in study design, interventions, and outcomes measured
Parenti et al., 2023 [50]GPPPDBotulinum toxin A (BoNT-A)22 (1127 participants)MixedSignificant improvements in symptoms of vaginismus, dyspareunia, and chronic pelvic pain Studies had different definitions, variables, and administration techniques; heterogeneous study types and lack of meta-analysis
Mardiyan Kurniawati et al., 2024 [51]GPPPDPlatelet-rich plasma (PRP) injections15 (600 participants)FSFI, Female Sexual Distress Scale-Revised (FSDS-R), Genital Self-Image Scale (GSIS), Vaginal Health Index (VHI)Statistically significant improvements in FSFI, FSDS-R, FGSIS, and VHI scoresHeterogeneous study types and lack of meta-analysis
Dankova et al., 2023 [52]GPPPDPRP injections12 (327 participants)FSFI, FSDS, VHIStatistically significant improvement in FSFI, FSDS, and VHI scoresHeterogeneity in PRP administration protocols; high risk of bias in RCT
Ragucci & Culhane, 2003 [53]FSIAD, GPPPDBupropion, L-arginine, estrogen sildenafil, phentolamine10 (428 participants)No standard scalesBest success rates when pharmaceuticals used on physiological symptoms and psychological therapy used on emotional causesNo consistent measurement instruments
Abbreviations: PFSF, Profile of Female Sexual Function; PDS, Personal Distress Scale; FIEI, Female Intervention Efficacy Index; GRISS, Golombok–Rust Inventory of Sexual Satisfaction; PROMIS, Patient-Reported Outcomes Measurement Information System; FSDS-R, Female Sexual Distress Scale- Revised; GSIS, Genital Self-Image Scale; VHI, Vaginal Health Index; VPA, vaginal pulse amplitude.
Table 5. Summary of cohort studies.
Table 5. Summary of cohort studies.
ReferenceType of FSDPharmaceutical AgentNumber of ParticipantsControl GroupVariable(s) MeasuredResultsLimitations
Steinberg et al., 2005 [54]GPPPDCapsaicin52None (retrospective chart review) Kaufman touch test (vulvar pain), Marinoff dyspareunia scale (intercourse pain)Significant improvement in Kaufman Touch Test scores (pre: 13.2 +/− 4.9 to post: 4.8 +/− 3.8, p < 0.001) and Marinoff dyspareunia scores (p < 0.001)Retrospective design, no control group
Levesque et al., 2017 [55]GPPPDCapsaicin patch60None (prospective cohort)Patient Global Impression of Change (PGIC)24% reported significant improvementNo control group
Bertolasi et al., 2009 [56]GPPPDBoNT-A39None (prospective cohort)FSFI, pain scale63% reported pain free intercourse, dyspareunia improvedNo control group
Serati et al., 2015 [57]GPPPDEstrogen and HA31Estrogen vs. HAFSFI, pain scaleBoth treatments effective, vaginal estrogen may be significantly more effectiveNo control group
Abbreviations: PGIC, Patient Global Impression of Change.

3.1. FDA-Approved

Flibanserin (Addyi) and bremelanotide are the only FDA-approved medications to treat the sexual interest component of FSIAD in premenopausal women. There is a substantial body of literature that supports flibanserin’s effectiveness for FSIAD symptoms, leading to its approval in 2015. Three clinical trials (the VIOLET, DAISY, and BEGONIA trials) demonstrated increased self-reported sexual desire rates for premenopausal women on flibanserin (54–58%) compared to placebo (40–48%) [16,17,18] (Table 3). A 2019 analysis pooled results from these studies, consisting of 2465 premenopausal women with hypoactive sexual desire disorder taking flibanserin or placebo over 28 days. Participants reported a significant increase in the number of satisfying sexual experiences (p < 0.001), as well as improvement in FSFI and FSDS scores (Table 4). Flibanserin was initially rejected for FDA approval twice before being accepted, largely due to safety concerns, specifically risks of hypotension, syncope, and sedation, which worsened with alcohol consumption [58]. These risks, however, do not appear to be significantly worse than comparable central nervous system agents, such as bupropion and paroxetine, which are much more widely prescribed. Furthermore, the alcohol challenge that established these risks may not represent a typical pattern of consumption [35].
Bremelanotide (Vyleesi) is the second FDA-approved medication for hypoactive sexual desire disorder, and is administered as an injectable. It significantly improved FSFI (+1.25 to +1.30) and FSDS scores (−1.4 to −1.7) for premenopausal women with FSIAD compared to placebo (+0.70 to +0.77; −0.9, respectively) in two phase III trials [20] (Table 3). An open-label extension assessing long-term safety and efficacy of bremelanotide reported that after 52 weeks, participants initially on bremelanotide showed greater increases in FSFI scores (+1.25 to +1.30 points) and decrease in FSDS scores (−1.4 to −1.7 points) compared to those previously on placebo (+0.70 to +0.77 points and −0.9 points, respectively) [19] (Table 3).
DHEA (Intrarosa) is an FDA-approved treatment for GSM, which is the most common cause of GPPPD disorder in postmenopausal women. Studies have found that DHEA helps lower vaginal pH and enhances vaginal appearance by 86% to 121% more than placebo [31,32] (Table 3). A Phase III trial showed improvements in objective GSM measures and a reduction in pain during sexual activity with this therapy [48] (Table 4).
Ospemifene is FDA-approved for dyspareunia related to GSM. Phase III trials on ospemifene indicated improved self-reported VVA symptoms in postmenopausal women, along with positive physical changes (an increase in vaginal superficial cells, decrease in vaginal basal cells, and reduction in vaginal pH) [33] (Table 3). There are relatively few studies on its use, however, and both ospemifene and DHEA treat symptomatic vaginal dryness and dyspareunia without addressing sexual desire or psychological causes.

3.2. Hormonal

Testosterone is a conventional and longstanding approach to treating FSIAD in postmenopausal women. It is well studied, and the body of literature on testosterone includes best practice guidelines and a global position statement on its use [59]. Multiple RCTs have demonstrated that testosterone moderately increases sexual desire and activity in postmenopausal women, both with and without concurrent estrogen supplementation [38,40] (Table 4). A 2017 meta-analysis yielded similar results to the trials for postmenopausal women taking 300 μg of testosterone over the course of six months, while also noting a significant increase in the number of orgasms and decrease in personal distress [37] (Table 4).
Estrogen is a well-studied therapy for both FSIAD and GPPPD. A 2023 review evaluated the effects of hormonal therapy on sexual function composite scores in 36 studies. Treatments included estrogen alone, estrogen with progestogens, synthetic steroids, selective estrogen reuptake modulators (SERMs), and SERMs with estrogen. Estrogen monotherapy was associated with a slight improvement in sexual function among symptomatic or early postmenopausal women (MD = 0.50, CI: 0.04–0.96, three studies). Estrogen had little to no effect (MD = 0.64, CI: −0.12–1.41, six studies) in women who have been postmenopausal for a longer duration or were not selected based on symptoms (unselected postmenopausal). Pooled data suggested a modest overall benefit in sexual function (MD = 0.60, CI: 0.16–1.04, nine studies). The effects of other hormonal therapies (estrogen with progestogens, synthetic steroids, SERMs, and SERMs with estrogen) on symptomatic or early postmenopausal women and unselected postmenopausal women remain uncertain due to low-quality evidence [39] (Table 4). Estrogens have also been directly compared to androgens. At supraphysiological levels, testosterone appears to enhance sexual desire when combined with low-dose estrogen. However, this synergistic effect is not observed at physiologic testosterone levels [40] (Table 4).
Tibolone (Livial) is used worldwide to treat postmenopausal women with FSIAD and GSM. In a systematic review of 46 trials with nearly 20,000 women, tibolone was found to be more effective than placebo in reducing the prevalence of vasomotor symptoms (35–45% tibolone vs. 67% placebo) but less effective than combined menopausal hormonal therapy (MHT) (35–45% tibolone vs. 7% MHT) [41] (Table 4). Despite its benefits, tibolone has been discontinued in the US due to a concern for elevated stroke risk.

3.3. Non-Hormonal

Sildenafil citrate (Viagra) is an off-label treatment for FSIAD, and there are mixed findings on its sexual function effects. In a 2024 review of six RCTs on premenopausal and postmenopausal women with FSD, four trials noted a significant improvement in female sexual response, while two did not find any association. The review specifically notes that the multifactorial nature of FSD limits the nature and applicability of these results. In addition, there is limited generalizability with these results given that the studies mostly included generally healthy women [42] (Table 4). Recent studies suggest that topical sildenafil may be a viable treatment option for FSIAD. A phase IIb RCT in 2024 reported that premenopausal women with FSIAD using sildenafil cream for 12 weeks had significant score increases in the Arousal Sensation section of the SFQ (mean = 2.03) compared with placebo (mean = 0.08) and a greater average improvement in the SFQ28 Desire and Orgasm section. Participants also experienced a significant decrease in FSDS scores [25] (Table 3).
Bupropion was originally developed as an alternative to traditional antidepressants with significant side effect profiles, but it was later found to have beneficial sexual side effects. A 2022 review with 11 studies observed a significant improvement in sexual arousal, vaginal lubrication, orgasm quality, and sexual satisfaction with bupropion. A meta-regression following this review reported that the variation in symptomatic improvement with bupropion was attributable to dosing [44] (Table 4). Trials of bupropion to treat SM-ISD, specifically sexual dysfunction brought on by antidepressants, have also shown positive effects [26] (Table 3). Because of the potential for severe side effects, providers should obtain an extensive medical, psychiatric, and medication history prior to considering this agent for FSIAD [60].
Apomorphine is a common medication used in Parkinson’s disease management. In a placebo-controlled study investigating the efficacy of sublingual apomorphine in FSD, apomorphine showed statistically significant improvement in sexual desire with 3 mg dosing. In addition, results indicated that female patients may benefit more from daily apomorphine, given its short half-life and rapid clearance [27] (Table 3). A second small trial showed subjective but significant benefit in sexual desire [28] (Table 3).
Phentolamine mesylate primarily treats hypertension, hypertensive emergency, and pheochromocytomas. It has limited data supporting it as a treatment for FSD. A 2002 clinical trial investigated the effects of phentolamine in 41 postmenopausal women with FSIAD, who were enrolled in one of the four treatment arms: 5 mg vaginal solution, 40 mg vaginal solution, oral 40 mg, or placebo. Quantitative results were based on vaginal photoplethysmography, and qualitative measures were assessed using a subjective questionnaire. The results showed statistically significant results amongst postmenopausal women using hormone replacement therapy. Physiological readings were improved in the 40 mg vaginal solution group and subjective measures noted improvement in arousal in both the 40 mg oral and 40 mg vaginal solution arms [29] (Table 3).
Oxytocin is an endogenous hormone known for its role in childbirth, breastfeeding, and pain relief, but which also has effects on sexual desire and arousal. A 2015 randomized trial investigated the effects of long-term intranasal oxytocin on sexual dysfunction in pre- and post-menopausal women over 22 weeks. While both oxytocin and placebo groups showed improvements in FSFI, FSDS, F-SQOL, sexual activity record (SAR), Hamilton depression scale (HDS), and sexual interest and desire index (SIDI) scores, oxytocin did not demonstrate a statistically significant advantage over placebo in any category. Improvements observed were likely due to factors other than oxytocin use [30] (Table 3).

3.4. Topical/Local Agents

Capsaicin has been investigated as a treatment for vulvar vestibulitis syndrome (VVS) and chronic pelvic pain. A retrospective chart review evaluated the use of 0.025% capsaicin cream applied daily for 20 min over 12 weeks in patients with VVS. The study found a significant reduction in discomfort, allowing for increased frequency of vaginal intercourse, with 95% of patients engaging in intercourse post-treatment compared to 62% before treatment [54] (Table 5). Another study examined the use of a high-concentration (8%) capsaicin patch (Qutenza) in patients with chronic pelvic, perineal, and gluteal neuralgia. The patch was applied for 60 min every three months, with pre- and post-application cooling measures to minimize burning sensations. The study reported a significant improvement in pain for 24% of patients, with a mean pain reduction of 58% [55] (Table 5). Despite promising results, both studies had small sample sizes and non-randomized designs.
Lidocaine as a local anesthetic has naturally also been tested for use in GPPPD. In a 12-week RCT involving 133 women with vulvodynia, oral desipramine and topical 5% lidocaine buffered in Moisturel lotion, whether used as monotherapy or in combination, failed to significantly reduce pain compared to placebo. Participants were instructed to apply the cream lightly over the painful region four times daily. Results indicated that lidocaine provided only a 20% improvement in pain scores, which was not significantly different from placebo, highlighting its minimal efficacy in managing vulvodynia [25] (Table 3). Results from a smaller trial of cancer survivors did show more benefit, but the population is small and highly selected [34] (Table 3).
Hyaluronic acid (HA) is a promising non-hormonal treatment option for VVA and dyspareunia. The current literature highlights its effectiveness in reducing symptoms such as vaginal estrogen dryness, irritation, burning, and pain during intercourse. Treatment guidelines suggest that HA can be used as an alternative to estrogen therapy, particularly for patients with contraindications to hormonal treatments. A small 2015 cohort study compared HA to vaginal estrogen and noted that both were effective, although vaginal estrogen seemed more effective than HA [57] (Table 5). Research remains inconclusive due to significant study heterogeneity, variations in administration methods, and a lack of standardized protocols [49] (Table 4).

3.5. Other

Botulinum toxin (BoNT-A) has been explored as a treatment for FSD. A systematic review of 22 studies found BoNT-A to be effective in improving dyspareunia, chronic pelvic pain, and vaginismus. Doses, dilutions, administration techniques, and sedation methods varied. Most studies administered a single injection, though some repeated doses if symptoms persisted. The lack of standardized dosing, administration, and follow-up limits comparability between studies [50] (Table 4).
Platelet-rich plasma (PRP) injections are a possible treatment modality for FSD, although the mechanism of action is unclear. One systematic review of 15 studies examined the use of PRP for pelvic floor disorders, and the results indicated effectiveness in management, but more research is needed to determine optimal dosing [51] (Table 4). Another review with 12 studies investigated PRP for FSD and stress urinary incontinence, suggesting beneficial effects on FSFI and VHI scores [52] (Table 4). The current body of research remains limited by methodological inconsistencies, small sample sizes, and a lack of RCTs.
MDMA, commonly known as “ecstasy,” is a synthetic psychoactive compound with stimulant and entactogenic properties. While MDMA is widely used recreationally, a systematic review suggests that MDMA may improve aspects of female sexual function. Findings indicate that MDMA increases sexual desire in women, with studies reporting enhanced libido, lubrication, and increased pleasure intensity. However, due to the mixed nature of the limited available studies, more information is needed to determine if the therapeutic advantages are greater than the potential adverse effects [45] (Table 4).
Visnadine, a compound derived from the Ammi visnaga plant, is a vasodilator and has possible therapeutic uses in a similar fashion to sildenafil in the treatment of FSD. In a systematic review of randomized clinical trials, visnadine demonstrated potential efficacy in improving arousal, lubrication, orgasm, and overall sexual satisfaction. While only two randomized controls were analyzed, the results indicated that on-demand use of visnadine before sexual activity resulted in greater improvements in sexual function compared to daily application. Treatment guidelines remain inconclusive due to the limited number of studies, small sample sizes, and methodological variability, though findings suggest both daily and on-demand applications may be beneficial [46] (Table 4).
L-arginine, a naturally occurring amino acid, has been suggested as a treatment for FSIAD. L-arginine is available under the trade names ArginMax, Lady Prelox, Ristela, and Stronvivo. In addition to L-arginine, these products have varying compositions of other natural products, vitamins, and minerals such as L-citrulline, ginkgo biloba, Korean ginseng, damiana leaf, French maritime pine bark extract, rose hip extract, zinc, and magnesium. However, only ArginMax and Lady Prelox have published research supporting their efficacy. Although there has never been a study that has studied the effect of L-arginine alone as a monotherapy, these combination products have been shown to significantly improve sexual function in both pre- and post-menopausal women with FSD. Despite these promising findings, further high-quality research is needed, particularly well-powered RCTs that evaluate L-arginine as a standalone treatment, to better understand its specific role in female sexual function [47] (Table 4).
Additional data were extracted from the included studies (n = 44) and new sources to group treatments for FSIAD and GPPPD by mechanism of action, recommended dosage, and side effects (Table 6 and Table 7).

4. Discussion

FSD is a highly prevalent yet underdiagnosed medical condition, and therapeutic options have been slow to evolve. Beyond the existing historical bias favoring research on male sexual dysfunction, FSD presents additional challenges in classification and diagnosis. Many women do not seek treatment for issues with sexual function, and for those who do, the diagnosis of FSD is often reliant on self-reports rather than objective measures. Moreover, the four subtypes of FSD exhibit distinct yet often overlapping symptoms. This complicates any therapy, especially pharmacotherapy, as there is rarely an underlying physiologic cause that can be targeted by a pharmaceutical agent, and symptomatic relief is often the goal of treatment.
Table 3, Table 4 and Table 5 provide a succinct overview of current pharmacotherapies for FSD grouped by RCTs, review articles, and cohort studies (n = 44). However, aside from the FDA-approved medications, no single medication has demonstrated consistent efficacy across FSD subtypes. Many of the available options have yet to explore long-term safety and efficacy data, thus it is difficult to assess the sustained impact of FSD treatments. The paucity of direct comparative studies of treatment approaches further complicates the identification of the most effective interventions. Additionally, most of the available research has focused on postmenopausal women, leaving the study of pharmacotherapy options for premenopausal populations underexplored.
Limited pharmacotherapy options are available for FOD and SM-ISD. Treatment of FOD primarily consists of psychological interventions such as cognitive, behavioral, and psychoanalytic therapy [9]. Similarly, SM-ISD is typically managed with discontinuation of the offending agent, patient education, and laboratory investigations for other potential etiologies [68]. Substances and prescription medications that could precipitate SM-ISD include alcohol, cannabis, opioids, antipsychotics, antidepressants, anticonvulsants, and antihypertensives [68,69]. A meta-analysis evaluating pharmacological treatments for antidepressant-induced sexual dysfunction specifically identified bupropion as the most effective option. However, the overall quality of evidence was low, underscoring the need for further well-designed studies to validate these findings [70].
The use of natural remedies for FSD treatment is an expanding area of research. Aphrodisiacs, including ginkgo, ginseng, maca (Lepidium meyenii), puncturevine (Tribulus terrestris), black cohosh (Cimicifuga racemosa), red clover (Trifolium pratense), chasteberry fruit (Vitex agnus-castus), zallouh (Ferula hermonis), hops (Humulus lupulus), and dong quai (Angelica sinensis), have been investigated as standalone or adjunct therapies for FSD. However, double-blind, placebo-controlled studies on the potential synergistic effects of combining natural products with pharmacotherapy for FSD remain limited [71].
Another underexplored area of FSD management involves the use of pharmacological treatments for urinary incontinence. Urinary incontinence has been linked with FSD, likely due to its psychological effects on body image, self-esteem, and sexual confidence [72]. Though few studies have directly assessed the role of anticholinergics and beta-3 adrenergic agonists on improving sexual function, these agents improve bladder control and may potentially benefit women experiencing FSD [73,74]. It is also worth noting that some women may self-manage FSD symptoms with substances perceived to enhance sexual function. Cannabis, in particular, has shown promising outcomes in observational studies but has yet to be elevated in RCTs [75].
Combination pharmacotherapy has considerable potential for FSD management. A preliminary review on hormonal therapy for FSD found that the effects of SERMs combined with estrogen on sexual function composite scores were uncertain in both symptomatic or early postmenopausal women (MD = 0.22, CI: 0.00–0.43, one study) and unselected postmenopausal women (MD = 2.79, CI 2.41–3.18, one study). Additionally, the impact of SERMs combined with estrogen remained unclear for symptomatic or early postmenopausal women (MD = 0.22, CI: 0.00–0.43, one study) and unselected postmenopausal women (MD 2.79, CI: 2.41–3.18, one study). Ultimately, these results were inconclusive due to low-quality existing evidence [39]. Combination hormonal therapies demonstrated that androgens alone did not improve desire, unlike estrogens, but androgens added to estrogen therapies did potentiate the effect of estrogen [53]. Aside from hormonal pharmacotherapies, Lorexys is a combination drug of bupropion and trazodone, which has undergone phase I and II trials to determine safety and dosage. It has been used in combination with testosterone to treat hypoactive sexual desire disorder in women; however, these trials are still preliminary in nature [76].
Non-pharmacological interventions such as cognitive-behavioral therapy (CBT), mindfulness-based cognitive therapy (MBCT), and pelvic floor physical therapy (PFPT) have also shown promise in addressing underlying contributors to FSD. Although a comprehensive review of behavioral therapies is beyond the scope of this review, potential combinatory effects with pharmacotherapies should be discussed. A 2022 state-of-the-art review recognized CBT as the most empirically-supported therapy for FSD, improving FSIAD, GPPPD, and FOD symptoms through techniques including cognitive reconstruction, sensate focus, muscle relaxation, and sex education. Moreover, a RCT comparing the efficacy of CBT and sildenafil for FSD treatment found that both interventions significantly improved sexual function, sexual satisfaction, and marital satisfaction (p < 0.001), though CBT demonstrated greater overall effectiveness [10,77]. MBCT is often used as a conjunctive or standalone therapy for FSD, with interventions aimed at enhancing awareness and acceptance of one’s thoughts and emotions. MBCT has made meaningful improvements in women experiencing FSD symptoms, including those with complex comorbid conditions such as cancer-related dysfunction, childhood sexual abuse, and spinal cord injuries [10]. PFPT has demonstrated notable therapeutic benefits in treating symptoms of GPPPD. A 2023 systematic review and meta-analysis evaluating the effects of mindfulness and PFPT on women with chronic pelvic pain noted that both treatment arms significantly reduced pain immediately after treatment (p < 0.01) and at follow-up (p < 0.00), though PFPT showed a greater positive impact on sexual function over time (p < 0.03) [78]. Despite the known benefits of non-pharmacologic interventions, very few studies have rigorously evaluated treatment with combined pharmacological and nonpharmacological therapies. This gap in research represents a missed opportunity to develop multifaceted treatment strategies that more effectively align with patients’ lived experiences and individual preferences.
Unfortunately, only a small proportion of women with sexual dysfunction end up with treatment, pharmaceutical or otherwise. Providers are often reluctant to diagnose or prescribe medications for such conditions, and patients are also often unwilling to acknowledge or treat their condition. The FDA-approved medications are relatively new, but they have not had the same rapid adoption, and concomitant financial success, that PDE5 inhibitors had with regards to erectile dysfunction [79]. These issues, as well as the gaps in the literature described, limit the utilization of these medications, despite demonstrated effectiveness.
There are several limitations to this review. The search process was limited to the most comprehensive databases, potentially missing relevant unpublished or non-peer-reviewed studies. The inclusion criteria limited reports to those published in English and excluded non-pharmacologic interventions, potentially missing important crossover studies and reports on diverse populations. The wide variety of journals publishing on this broad topic meant that not all articles were available as full-text, possibly excluding some key data. Furthermore, the potential for publication bias should be acknowledged, which may lead to an overestimation of treatment efficacy and underrepresentation of adverse effects in the literature.
Future studies should prioritize longitudinal clinical trials to strengthen the evidence base for FSD pharmacotherapies. Moreover, an integrative approach is necessary to adjust for the complexity of female sexual health. Factors including age, hormonal fluctuations, and reproductive status influence FSD, prompting further exploration into how these qualities impact care management. It is also important to evaluate the synergistic effects that pharmacologic agents may have with combination therapies in order to accurately assess interdisciplinary treatment strategies. Other directions of FSD management may entail the use of biomarkers, genetic testing, growth factor therapies, stem cell interventions, and regenerative medicine [80]. These strategies could provide a more targeted and personalized approach to FSD treatment, ultimately improving patient outcomes and expanding the scope of therapeutic possibilities.
FSD is a multifaceted condition that encompasses a broad range of conditions, and accordingly, its pharmacologic treatments are more diverse than commonly recognized. Its varied treatment mechanisms reflect the complex interplay of psychological, physiological, social, and hormonal factors in FSD, underscoring the need for individualized treatment strategies. Continued research into this field is essential for enhancing current treatment strategies and improving the health of individuals with FSD.

5. Conclusions

FSD is a broad diagnosis with varying etiologies and treatment options. FDA-approved agents are the best-studied pharmacotherapies currently available, while hormonal, topical, and adjunctive agents exhibit significant potential. This article aims to provide an up-to-date review of the current pharmaceutical interventions for FSD while emphasizing the need for further research in this realm of women’s healthcare. By adopting a comprehensive and patient-centered approach, providers can utilize this review to provide tailored treatment approaches that consider the psychological, hormonal, and social factors contributing to FSD.

Author Contributions

Conceptualization, A.I.E., S.K., L.B. and A.L.; A.I.E., S.K., L.B., and A.L.; software, not applicable; validation, A.I.E., S.K., L.B., and A.L.; formal analysis, A.I.E., S.K., L.B., and A.L.; investigation, A.I.E., S.K., L.B., and A.L.; resources, A.I.E., S.K., L.B., and A.L.; data curation, A.I.E., S.K., L.B., and A.L.; writing—original draft preparation, A.I.E., S.K., and L.B.; writing—review and editing, A.I.E., S.K., L.B., and A.L.; visualization, A.I.E., S.K., and L.B.; supervision, A.L.; project administration, A.L.; funding acquisition, not applicable. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

No new data were created or analyzed in this study. Data sharing is not applicable to this article.

Conflicts of Interest

The authors declare no conflicts of interest.

Abbreviations

The following abbreviations are used in this manuscript:
BoNT-ABotulinum toxin A
CBTCognitive–behavioral therapy
DHEADehydroepiandrosterone
FIEIFemale Intervention Efficacy Index
F-SQOLFemale Sexual Quality of Life
FODFemale orgasmic disorder
FSDFemale sexual dysfunction
FSDSFemale Sexual Distress Scale
FSFIFemale Sexual Function Index
FSIADFemale sexual interest and arousal disorder
GPPPDGenitopelvic pain and penetration disorder
GRISSGolombok–Rust Inventory of Sexual Satisfaction
GSISGenital Self-Image Scale
GSMGenitourinary syndrome of menopause
HAHyaluronic acid
HDSHamilton Depression Scale
MBCTMindfulness-based cognitive therapy
MDMA3,4-methylenedioxymethamphetamine
MHTMenopausal hormonal therapy
PEQPersonal Experiences Questionnaire
PFPTPelvic floor physical therapy
PFSFProfile of Female Sexual Function
PGICPatient Global Impression of Change
PRISMAPreferred Reporting Items for Systematic Reviews and Meta-Analyses
PROMISPatient-Reported Outcomes Measurement Information System
PRPPlatelet-rich plasma
RCTsRandomized controlled trials
SARSexual activity record
SERMsSelective estrogen reuptake modulators
SFQSexual Function Questionnaire
SIDI-FSexual Interest and Desire Index-Female
SM-ISDSubstance or medication-induced sexual dysfunction
SQOL-FSexual Quality of Life-Female
SSSSabbatsberg Sexual Self-Rating Scale
VHIVaginal Health Index
VPAVaginal pulse amplitude
VVAVulvovaginal atrophy
VVSVulvar vestibulitis syndrome

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Figure 1. PRISMA flow diagram outlining the study selection process.
Figure 1. PRISMA flow diagram outlining the study selection process.
Sexes 06 00038 g001
Table 6. Overview of FSIAD pharmacotherapies by mechanism, dosage, and side effects.
Table 6. Overview of FSIAD pharmacotherapies by mechanism, dosage, and side effects.
Type of FSIAD InterventionPharmaceutical AgentMechanism of ActionRecommended DosageSide Effects
FDA-approvedFlibanserin (Addyi) [9,35,61]Serotonin 1A (5-HT1A) and 2A (5-HT2A) agonist100 mg orally once a day at bedtimeDizziness and somnolence. The FDA recommends waiting at least 2 h before consuming alcohol
Bremelanotide (Vyleesi) [9,61]Melanocortin 4 receptor (MC4R) agonist, increasing dopamine levels1.75 mg subcutaneously once per 24 h period. Monthly maximum of 8 dosesNausea. Use cautiously in cases of cardiovascular disease
Hormonal Testosterone [9,26,61]Direct androgenic activity, conversion to estrogen via aromatase, enhancing estradiol in the brain5 mg transdermally once a day. Dose may be gradually increased to 10 mg dailyHirsutism
Estrogen [40,62]Enhances sexual desire in the CNS and increases vaginal lubrication locallyVarying doses transdermally or orallyRisk of thromboembolic events with oral treatment
Tibolone (Livial) [39,41,63]Regulates tissue-specific estrogenic, progestogenic, and androgenic effects through its metabolites. Increases VPA at baseline and following erotic stimulation1.25–2.5 mg orally once a dayRisk of stroke in postmenopausal women with vertebral fractures. Not recommended until age of natural menopause
Non-hormonalSildenafil citrate (Viagra) [42,64]Phosphodiesterase 5 (PDE5) inhibitor, increasing blood flow to erectile tissueVarying doses orallyHeadaches, flushing, visual changes
Bupropion [44,60]Norepinephrine–dopamine reuptake inhibitor (NDRI) 150 mg orally once a dayHypertension, tachycardia, insomnia, tremor, drug–drug interactions, lower seizure threshold, worsened suicidal ideation
Apomorphine [27]Nonselective dopamine 1 (D1) and dopamine 2 (D2) receptor agonist. Triggers nitric oxide-mediated vasodilation of clitoral tissue3 mg orally once a dayNausea, vomiting, dizziness
Phentolamine mesylate [27]Alpha-adrenergic receptor antagonist, improving clitoral tissue blood flow40 mg orally or in a vaginal solutionShortness of breath, rhinitis, chest pain, headache
Oxytocin [30]Endogenous hypothalamic hormone32 IU of synthetic oxytocin intranasally. Recommendation of 4 puffs/nostril at least 50 min before intercourse, twice weeklyEpistaxis, rhinorrhea, headache
Topical/localSildenafil citrate (Viagra) [25,42]PDE5 inhibitor increasing blood flow to erectile tissueTopical cream, 3.6%No significant adverse events noted
OtherMDMA [45,65,66] Increases release of serotonin, dopamine, and norepinephrine in the brainVarying dosesAnxiety, nausea, jaw tightness, non-cardiac chest discomfort, fatigue, neurotransmitter imbalance
Visnadine [46]Inhibits L-type calcium channels to increase genital blood flowTwo puffs to the vulvar area Warmth, itching, bleeding
L-arginine-containing products [47]Precursor to nitric oxide, increasing blood flow to erectile tissueVarying dosesMinor gastric disturbances, heavier menstrual bleeding, headaches
Table 7. Overview of GPPPD pharmacotherapies by mechanism, dosage, and side effects.
Table 7. Overview of GPPPD pharmacotherapies by mechanism, dosage, and side effects.
Type of GPPPD InterventionPharmaceutical AgentMechanism of ActionRecommended DosageSide Effects
FDA-approvedDHEA (Intrarosa) [9,48]Precursor to estradiol and testosterone6.5 mg intravaginallyVaginal discharge
Ospemifene [9,63]Selective estrogen receptor modulator (SERM) on vaginal epithelium60 mg orally once daily. FDA recommends that patients with a uterus take ospemifene alongside a progestinHot flashes
HormonalEstrogen [40,62]Enhances sexual desire in the CNS and increases vaginal lubrication Varying doses transdermally or orallyRisk of thromboembolic events with oral treatment
Tibolone (Livial)
[39,41,63]
Regulates tissue-specific estrogenic, progestogenic, and androgenic effects through its metabolites. Increases VPA at baseline and following erotic stimulation1.25–2.5 mg orally once a dayRisk of stroke in postmenopausal women with vertebral fractures
Topical/localCapsaicin [54,55]Selective TRPV1 receptor agonist, desensitizing nociceptive neurons0.025% capsaicin cream or 8% transdermal patchBurning sensation
Lidocaine [67]Inhibits sodium channels in nociceptors, blocking peripheral nerve transmissionTopical cream, 5%No significant adverse events noted
HA [49]Hydrophilic glycosaminoglycan, maintaining tissue hydration and elasticityVariable doses and administration techniques Mild irritation, localized infection
OtherBoNT-A [50]Inhibits acetylcholine release for temporary muscle relaxation. Blocks substance P to reduce painVarying doses, dilutions, and administration techniquesUrinary incontinence, constipation, and fecal incontinence
PRP injections [51,52]Growth factors that stimulate angiogenesis, collagen production, and neural regeneration2 mL of PRP injected into the distal anterior vaginal wall monthly for three monthsMinimal side effects; rare cases of transient pain or urinary symptoms
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Elanjian, A.I.; Kammo, S.; Braman, L.; Liaw, A. Advancing Women’s Health: A Scoping Review of Pharmaceutical Therapies for Female Sexual Dysfunction. Sexes 2025, 6, 38. https://doi.org/10.3390/sexes6030038

AMA Style

Elanjian AI, Kammo S, Braman L, Liaw A. Advancing Women’s Health: A Scoping Review of Pharmaceutical Therapies for Female Sexual Dysfunction. Sexes. 2025; 6(3):38. https://doi.org/10.3390/sexes6030038

Chicago/Turabian Style

Elanjian, Alissa I., Sesilia Kammo, Lyndsey Braman, and Aron Liaw. 2025. "Advancing Women’s Health: A Scoping Review of Pharmaceutical Therapies for Female Sexual Dysfunction" Sexes 6, no. 3: 38. https://doi.org/10.3390/sexes6030038

APA Style

Elanjian, A. I., Kammo, S., Braman, L., & Liaw, A. (2025). Advancing Women’s Health: A Scoping Review of Pharmaceutical Therapies for Female Sexual Dysfunction. Sexes, 6(3), 38. https://doi.org/10.3390/sexes6030038

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