How is pain associated with pelvic mesh implants measured? Refinement of the construct and a scoping review of current assessment tools
BMC Women's Health volume 22, Article number: 396 (2022)
Recommendations for the management of pain related to pelvic mesh implants are still under development. One limitation that has impeded progress in this area is that mesh-related pain has not been consistently defined or measured. Here, we reviewed the ways in which pain associated with pelvic mesh implants has been measured, and mapped the ways in which these existing measures capture the construct.
First, we reviewed existing accounts of the pain associated with pelvic mesh implants to develop a multifaceted construct definition, which includes aspects related to pain intensity, timing, body location, phenomenological qualities, impact/interference with daily living, and patient expectations and beliefs. Next, we reviewed the ways that the construct has been measured in the extant literature.
Within 333 eligible studies, 28 different assessments of pain associated with pelvic mesh were identified, and 61% of studies reported using more than one measurement tool. Questionnaire measures included measures designed to assess urological and/or pelvic symptoms, generic measures and unvalidated measures. We did not identify any validated questionnaire measures designed to assess pain associated with pelvic mesh implants. The phenomenological, location, and expectation/belief components of the construct were not captured well by the identified questionnaire measures, and there is no evidence that any of the identified measures have appropriate psychometric properties for the assessment of pain related to pelvic mesh implants.
We recommend further qualitative research regarding women’s experiences of pelvic mesh-related pain assessment, and the development of a condition-specific patient reported outcome measure.
Research indicates between 6 to 12% of women who have undergone pelvic mesh surgery experienced complications directly related to the mesh implant [1,2,3], although the true number of cases remains unknown . Documented complications include mesh exposure , mesh erosion [6, 7], injury to the bladder [5, 7], urinary retention , dyspareunia [6, 7, 9, 10], and pain [9,10,11,12,13].
A proportion of patients experience de novo chronic pelvic pain in the absence of abnormal mesh placement, mesh extrusion or erosion [12, 14, 15]. Chronic pain (i.e., lasting > 3 months) following pelvic mesh surgery has been estimated to occur in up to 30% of women [5, 16, 17], and prevalence estimates between 3 and 13% have been reported for de novo post-surgical pain [18,19,20,21]. However, it has been acknowledged that the prevalence of pain following pelvic mesh surgery has not been reliably estimated to date [4, 14, 16, 22], and recommendations for the management of mesh-related pain are still being developed [4, 14, 16, 22,23,24]. In some instances, mesh implants have been removed with pain as the primary indication (e.g., [9, 12]). Of those who underwent removal surgery for the primary indication of pain, symptom improvement or resolution was reported for between 45 and 86% of patients [9, 11,12,13, 25], while an estimated 9% reported no change, and an estimated 14% reported a worsening of symptoms . However, further research on this topic is necessary , particularly regarding the longevity of pain resolution after mesh removal .
A key limitation that has impeded the progress of research on this topic is that the construct (i.e., “pain associated with pelvic mesh implants”) has not been consistently defined or measured. This, in turn, contributes to difficulties in estimating and comparing pain outcomes (e.g., for different implants, patient groups, or treatments). In the present work we sought to examine these issues by: (1) developing a working conceptualisation of what is meant by ‘pain associated with pelvic mesh implants’; (2) ascertaining the ways in which pain associated with pelvic mesh implants has been measured and quantified in published research; (3) mapping the ways in which these existing measures capture the construct, and; (4) reviewing evidence of psychometric properties of the included measures in samples of women with pelvic mesh implants. We addressed the first aim (development of a working conceptualisation of pain associated with pelvic mesh implants) via a narrative review of theoretical papers and qualitative accounts of pain associated with pelvic mesh implants. We addressed the second aim via a systematic scoping review, and we addressed the third and fourth aims via an in-depth review, which assessed the degree of coverage each measure provided of the construct, and evidence of the psychometric properties in samples of women with pelvic mesh implants.
More specifically, the aim of the initial narrative review was to identify components of the construct (i.e., ‘pain associated with pelvic mesh implants’) that should be considered when evaluating instruments that have been utilised to quantify pain associated with pelvic mesh implants. Given that a key theme from the Cumberledge report was that the patient voice was dismissed , the narrative review primarily focused on qualitative accounts of pain associated with pelvic mesh implants. Meanwhile, the aim of the scoping review was to identify the ways that pain associated with pelvic mesh implants has been measured in published research to date. Prior to conducting the search, we confirmed that no systematic or scoping reviews have been conducted on the same topic via a search of Medline, Embase, and Cochrane Database of Systematic Reviews. We used the scoping review framework developed by Peters and colleagues  to guide the scoping review. This method was chosen because it was particularly suitable for addressing our topic (i.e., the identification and assessment of assessments of pain associated with pelvic mesh implants used in clinical practice that have been described in published literature). Finally, we conducted a further in-depth review of the measures identified in the systematised search, mapping: (1) the extent to which each measure covers the breadth of the construct, and (2) evidence of the psychometric properties of each measure in samples of patients who have a pelvic mesh implant.
Narrative review procedure
We searched for qualitative accounts of pain experiences from patients with pelvic mesh implants that have been published in peer-reviewed journals, and descriptions/definitions of pain associated with pelvic mesh implants that have been outlined in peer-reviewed journal articles. This search was generalised to publications that included any experiences of pain associated with pelvic mesh implants, and we did not distinguish between pain induced by abnormal mesh placement or abnormal evolution and pain with normal mesh placement and normal evolution . The study authors (which include a consultant urologist, a consultant in pain medicine, and two cognitive neuroscientists with expertise in multisensory bodily representations), then reviewed and amalgamated the key findings to generate a working definition of the construct. In addition, we sought feedback on the method and results from a patient and public involvement (PPI) panel of ten women with pain related to pelvic mesh implants.
Scoping review procedure
Types of participants
The participants of interest for this study were adult women (aged 18 years or older) with a pelvic mesh implant or undergoing a surgery for a pelvic mesh implant.
Studies with at least one reported assessment of pain associated with a pelvic mesh in adult women (aged 18 years or older). Questionnaires used in the studies had to be in English language.
The context for this review was healthcare settings with adult female patients undergoing any procedures or treatment associated with a pelvic mesh implant.
The review considered both experimental and epidemiological study designs, including randomised controlled trials, non-randomised controlled trials, quasi-experimental, before and after studies, prospective and retrospective cohort studies, case-studies, case–control studies, and analytical cross-sectional studies. To limit duplication and irrelevant material, exclusion criteria included articles in languages other than English, published abstracts, reviews or meta-analyses, commentaries, editorials, book chapters, and dissertations, studies examining men, children aged younger than 18 years, studies focusing on a pathology or procedure not listed in the search terms above, and studies that did not report an assessment of pain. Due to large volume of literature identified in preliminary searches, we did not conduct further searches for unpublished studies, clinical trial registries, or grey literature such as government reports, as this was unlikely to result in additional evidence in relation to our goal.
A two-step search strategy was utilised. The first step was an initial limited search of PubMed to explore the suitability of the search terms. Following this initial search, we analysed the text contained in the title and abstracts of retrieved papers. A second search was performed in December 2020, using PubMed, EMBASE, and Scopus. For each database, we searched article titles, abstracts and keywords using the following combination of search terms: (("Vaginal mesh" OR colporrhaphy OR "pelvic mesh" OR "pelvic floor reconstruct*" OR sacrocolpopexy OR sacropexy OR sacrohysteropexy OR "transvaginal mesh repair" OR "transobturator tape" OR "transvaginal tape") AND (pain* OR dyspareunia OR discomfort OR heaviness) AND (questionnaire* OR scale* OR rating* OR rated OR instrument* OR inventory OR inventories OR index OR score*) NOT (prostate OR men OR male OR "inguinal hernia" OR "femoral hernia" OR "umbilical hernia" OR breast OR cancer OR Schizophrenia OR child* OR adolescent* OR infant*)). We also manually applied search filters within each database to limit the records to English journal articles published in the last ten years, with human samples. Due to constraints on time and funding, articles were manually screened by J.T. for duplicates and for inclusion and exclusion criteria for final study selection (see Fig. 1). N.T. also screened a random 10% of the articles, and there were no discrepancies between the judgements of the two authors.
Data extraction focused on the names of assessments for pain associated with pelvic mesh implants. This review adhered to PRISMA guidelines for reporting Scoping reviews. Once the questionnaires were identified from the included studies, their development and validation studies were procured for further data extraction. Key information extracted included: domains assessed, number of items, structure of the measure, response scale type, and evidence of psychometric properties in samples of women with a pelvic mesh implant.
In-depth review of identified measures
To allow meaningful descriptive analyses and identification of research gaps, the identified pain assessments were mapped according to the components of the construct (i.e., pain associated with pelvic mesh implants) that were delineated in Table 1. We also used descriptive characteristics to portray the number of times each measure has been used within the dataset. For non-questionnaire measures (physical exam/patient report), we documented whether this was used as an exclusive measure, or whether this was supplementary to one of the other identified measures. We also documented the total number of studies using more than one of the measures. The conceptual review was undertaken by J.T. The remaining authors reviewed the method and findings.
We examined existing evidence of the psychometric properties for each of the identified questionnaire measures in samples with pelvic mesh implants. We limited the psychometric appraisal to aspects of reliability (internal consistency and test–retest reliability) and validity (convergent validity, minimally important clinical difference, and responsiveness). Internal consistency reliability refers to the extent to which items on a measure all tap the same construct. For the measures in this review, internal consistency was estimated using Cronbach’s α coefficient, (values ≥ 0.80 have been deemed as acceptable; [34, 35]. Test–retest reliability refers to the level of agreement between scores from the same measure at two separate timepoints. In the studies included within this review, test–retest reliability was typically reported using intraclass correlation coefficients (ICCs), with higher values indicative of greater reliability [36, 37]. Convergent validity refers to the extent to which scores on a measure are correlated with scores on other theoretically similar constructs (i.e., whether they are capturing the same construct . Minimally important difference and responsiveness are related indices; responsiveness refers to a measure’s ability to detect changes in a respondent’s condition, and minimally important difference refers to the lowest change in score required to reflect a meaningful change in patient condition. Minimally important change can be estimated in numerous ways, including anchor-based and distribution-based methods, with a combined approach recommended . The psychometric review was undertaken by J.T. The remaining authors reviewed the method and findings.
Narrative review outcomes: definition of the construct
As described in Sect. 2.1, we integrated existing qualitative and theoretical accounts of the pain associated with pelvic mesh implants, which this informed the development of a multidimensional construct definition, with feedback from a PPI panel. The key findings from the narrative review are summarised in Table 1. Altogether, we suggest that pain associated with pelvic mesh implants is a multifaceted construct, with six key components: (1) timing, which includes the onset, duration, and frequency of pain in relation to pelvic mesh implantation; (2) the sensory intensity of pain (i.e., the subjective characterisation of how strongly pain is felt); (3) the bodily location of pain (i.e., where in the body the pain is felt); (4) other phenomenological qualities of pain (i.e., how pain feels, including affective-motivational aspects such as how unpleasant pain feels; see ); (5) the extent to which pain or protective behaviours impact upon or interfere with aspects of daily living; and, (6) patient expectations and beliefs, which include a priori expectations about the surgery and the mesh implant, as well as post-surgical beliefs about the predominant origin or cause of the patient’s pain, and the future nature of the patient’s pain. The impact/interference component (5) can be further categorised into four sub-components that may be affected by pain: physical functioning, sexual functioning/relationships, emotional functioning/mental health, and quality of life.
Summary of the questionnaire measures identified
The search led to the identification of 333 eligible studies that have reported pain associated with pelvic mesh implants (see Fig. 1; the data extraction process for the full search results and screened findings are available here: https://figshare.com/s/88d23a55f7cad5833856). Within the 333 articles, 28 different assessments of pain associated with pelvic mesh were identified, as summarised in Table 2, and 204 studies (61%) reported using more than one measurement tool. We grouped “Physical exam/oral report” as one category, and also grouped “novel measure/measure with no psychometric validation” as one category. Questionnaire measures were reported independently if we were able to identify at least one published psychometric evaluation of the measure in any sample (including samples without a pelvic mesh implant).
The identified measures can be broadly grouped into three categories: measures designed to assess urological and or/pelvic symptoms, generic measures (including measures validated across numerous other pain disorders), and unvalidated measures (including novel measures, or novel adaptations of measures).
Questionnaire measures designed to assess urological and/or pelvic symptoms
The Bristol female lower urinary tract symptoms questionnaire (BFLUTS)
The BFLUTS is a 34-item questionnaire measure that was designed to characterise symptoms in the female lower urinary tract, particularly urinary incontinence . The BFLUTS has three sections: symptom severity (19 items), sexual function (4 items), and quality of life (11 items). Items pertaining specifically to pain include questions regarding burning sensation during urination, bladder pain, pain or discomfort because of a dry vagina, and pain during sexual intercourse. Most items are divided into two, with the first section quantifying the severity of the symptom and the second section quantifying the extent to which the symptom causes “bother”. A scored short form (the BFLUTS-SF, 19 items) was developed more recently , where summed scores can be computed separately for urinary symptoms (which has three factors: incontinence, voiding, and filling), sexual functional, and quality of life. In the BFLUTS-SF, only one of the items pertaining to pain was retained, specifically the question regarding frequency of bladder pain.
The electronic personal assessment questionnaire—pelvic floor (ePAQ-PF)
The ePAQ-PF a 132-item web-based questionnaire that was designed to enhance patient communication regarding pelvic floor disorders [42, 43]. The ePAQ-PF assesses the frequency and impact of pelvic floor symptoms across four domains: urinary (35 items), bowel (33 items), vaginal (22 items), and sexual (28 items) [42, 44]. Screening questions at the beginning of each questionnaire domain are used to streamline the items, so that not all respondents will be presented with the full item set. Within the four ePAQ-PF dimensions, there are 19 scored domains, three of which are focused on pain (‘pain’ within the urinary dimension; ‘pain and sensation’ within the vaginal dimension; and ‘dyspareunia’ within the sexual dimension ). Symptom items are scored between 0 (indicating best health status) and 3 (indicating worst health status). Each domain is scored by dividing the sum of all item scores by the total possible item score, multiplied by 100. The result is a score between 0 and 100, where 100 indicates the worst possible health status . When a symptom item is affirmed, impact items are presented to examine the extent to which the symptom causes “bother”. Bother responses are scored on a four-point scale ranging from 0 (not a problem) to 3 (a serious problem). The largest bother score from any symptom in the domain is presented at the overall bother score for the domain, so that the total bother score ranges from 0 to 3. Finally, the ePAQ-PF includes a free-text question, which allows respondents to communicate the outcomes that they hope to achieve from any help, advice or treatment given .
The female genitourinary pain index (fGUPI)
The 15-item fGUPI was developed by modifying the National Institutes of Health Chronic Prostatitis Symptom Index so that it could be used to assess interstitial cystitis or painful bladder syndrome in women . Male-specific items were adjusted so that they could capture symptoms that have commonly been reported in women with interstitial cystitis or painful bladder syndrome, including pain at the entrance to the vagina, pain in the vagina, pain in the urethra, and pain during or after sexual intercourse. The fGUPI is divided into three subscales: pain (10 items), urinary symptoms (2 items), and quality of life (3 items), and response scales vary across items, including binary yes/no responses to indicate the presence of pain in various locations (e.g., vagina, urethra) or accompanying various actions (e.g., during urination or sexual intercourse), a numeric rating scale to indicate the pain intensity, and Likert scales to indicate pain frequency. Total fGUPI scores are calculated by summing responses from all items, and range from 0 (indicative of no symptoms/pain) to 45 (indicative of severe symptoms/pain).
Female sexual function index (FSFI)
The 19-item FSFI was developed to measure the multidimensional nature of female sexual function in women across wide age range, including post-menopausal women . Specifically, sexual function is assessed across six domains: desire (2 items), subjective arousal (4 items), lubrication (4 items), orgasm (3 items), satisfaction (3 items), and (3 items). Items pertaining to specifically to pain include questions regarding the frequency and level of pain or discomfort during or following vaginal penetration. For all items, responses are given on 6-point Likert scales ranging from 0 to 5. Scores for each domain are computed by multiplying the sum of scores on the domain by a weighted factor for each domain (e.g., total pain score = [Item 17 + 18 + 19] × 0.4), with domain scores ranging from 0 to 6 . Global FSFI scores are computed by summing the scores from each domain.
International consultation on incontinence questionnaire-vaginal symptoms (ICIQ-VS)
The 14-item ICIQ-VS was designed to assess the symptoms and impact of pelvic organ prolapse in adult women across primary and secondary care settings . The ICIQ-VS comprises two factors: vaginal symptoms (9 items) and sexual matters (4 items), as well as a single item assessing the extent to which vaginal symptoms interfere with overall quality of life. Items pertaining to specifically to pain include questions regarding dragging pain in the lower abdomen, soreness in the vagina, and feeling that the vagina is too dry or tight. Items are responded to using 4 and 5-point Likert scales ranging from 0 to 3 or 4. Each item is also accompanied by a 10-point numeric rating scale which is used to quantify the degree of “bother” caused by the symptom. Scores on the Vaginal Symptoms subscale range from 0–53, with higher scores indicating greater symptomology. Scores on the Sexual Matters subscale range from 0 to 58, with higher scores indicating greater degree of impact on sexual function. Notably, Item 9 (“vagina too tight”) is not included in the scoring system, but remains within the questionnaire to detect for over-narrowing of the vagina following surgical interventions .
The king’s health questionnaire (KHQ)
The 32-item KHQ was designed as a disease-specific QOL measure for women who experience urinary incontinence . The questionnaire has three sections: a symptom severity Sect. (11 items), a general health and incontinence impact Sect. (2 items), and a QOL Sect. (19 items). The QOL section is further divided into seven domains, to examine whether the respondent’s “bladder problem” causes role limitations, physical limitations, social limitations, personal relationships, emotional problems, sleep/energy disturbance, and an index of strategies used to for coping with symptom severity. One item within the symptom severity index pertains specifically to “bladder pain”. Items are responded to using Likert scales that range from 3-point anchors (the symptom severity index anchors range from A little to A lot) to 4-point anchors (the QOL index anchors range from Not at all to A lot, with the additional option to indicate Not applicable for items related to personal relationships). Scores from the items in each domain are converted so that each domain score ranges from 0 (best possible health status) to 100 (worst possible health status), with a global score calculable across domains . The symptom severity section can also be scored, with total scores ranging from 0 (best possible health status) to 30 (worst possible health status) .
The pelvic floor distress inventory (PFDI; or the short form PFDI-20)
The 46-item PFDI was designed to assess the level of distress caused by symptoms for women with pelvic floor dysfunction . Disorders of the pelvic floor include several interrelated conditions, such as pelvic organ prolapse, urinary incontinence, faecal incontinence and voiding dysfunction . The PFDI has three scales: the Urinary Distress Inventory (UDI, 28 items), the Pelvic Organ Prolapse Distress Inventory (POPDI, 16 items), and the Colorectal-anal Distress Inventory (CRADI, 17 items). A short form of the PFDI (the PFDI-20) was developed to reduce participant burden [52, 53], and this version was most commonly identified in our systematic search. The PFDI-20 maintains the structure of the full PFDI but has fewer items (UDI: 6 items, POPDI: 6 items, CRADI: 8 items). Four PFDI-20 items pertain specifically to pain, examining: pressure in the lower abdomen (POPDI-6), heaviness or dullness in the pelvic area (POPDI-6), pain when passing stools (CRADI-8), and pain or discomfort in the lower abdomen or genital region (UDI-6). Additional items pertaining to pain in the full PFDI examine pelvic discomfort during exertion (POPDI), pain in the abdomen or lower back when straining (POPDI, CRADI), pain or burning when urinating, or as the bladder fills (UDI), and abdominal pain prior to bowel movements.
PFDI-20 items are rated for the degree to which the symptom causes bother on a 5-point Likert scale ranging from 0 (not applicable), to 1 (not at all), to 4 (quite a bit). Summary scores for each scale are obtained by computing the mean of all items on the scale and multiplying this value by 25; possible scores range from 0 (best possible health state) to 100 (worst possible health state). A PFDI-20 summary score is obtained by summing the scores from the UDI-6, POPDI-6, and CRADI-8; possible scores range from 0 (best possible health state) to 300 (worst possible health state).
The pelvic floor impact questionnaire (PFIQ; or the short form PFIQ-7)
The 93-item PFIQ was developed alongside the PFDI to quantify the impact that pelvic floor disorders have on quality of life including assessment of physical, emotional, and social limitations . Like the PFDI, the PFIQ has three scales: the Urinary Impact Questionnaire (UIQ, 31 items), the Pelvic Organ Prolapse Impact Questionnaire (POPIQ, 31 items), and the Colorectal-Anal Impact Questionnaire (CRAIQ, 31 items). None of the PFIQ items directly reference pain. Rather, the items examine if “symptoms or conditions” related to the bladder or urine (UIQ), bowel or rectum (CRAIQ), and vagina or pelvis affect aspects of daily life (the ability to do household chores such as cooking, housecleaning, and laundry). Accordingly, the PFIQ can encompass pain if it is relevant to the respondent.
A short form of the PFIQ (the PFIQ-7) was developed to reduce participant burden [52, 53], and this version was most commonly identified in our systematic search. The PFIQ-7 maintains the structure of the full PFIQ but has fewer items (UIQ-7: 7 items, POPIQ-7: 7 items, CRAIQ-7: 7 items). PFIQ-7 items are rated on a 4-point Likert scale ranging from 0 (not at all) to 3 (quite a bit). Summary scores for each scale are obtained by computing the mean of all items on the scale and multiplying this value by (100/3); possible scores range from 0 (best possible health state) to 100 (worst possible health state). A PFIQ-7 summary score is obtained by summing the scores from the UIQ-7, POPIQ-7 and CRAIQ-7; possible scores range from 0 (best possible health state) to 300 (worst possible health state).
The pelvic organ prolapse–urinary incontinence sexual function questionnaire (PISQ; or the short form PISQ-12, or revised PISQ-IR)
The 31-item PISQ was designed to evaluated sexual function in women with pelvic organ prolapse or urinary incontinence . The PISQ has three domains: Physical (15 items), Behavioural/Emotive (10 items), and Partner Related (6 items). A short form of the PISQ (the PISQ-12, 12 items) was developed to reduce participant burden , and this version was the most commonly identified in our systematic search. The PISQ-12 reflects the content of the PISQ factors, but has fewer items and is unidimensional . More recently, the International Urogynaecology Association revised the PISQ (the PISQ-IR, 42 items) to make it suitable for sexually active and inactive women . One item from the PISQ-12 and the PISQ-IR pertains to pain (“Do you feel pain during sexual intercourse?”). There are no additional items directly referencing pain in the full PISQ, but three items reference avoidance of sexual intercourse due to vaginal “tightness” or “dryness”.
PISQ-12 items are rated on a 5-point Likert scale, ranging from 0 (never) to 4 (always). Scores can be reported as the summed total of the 12 items, or on an item basis . In our strategic search, Item 5 from the PISQ-12 (“Do you feel pain during sexual intercourse?”) was commonly reported as an indication of dyspareunia.
The pelvic organ prolapse symptom score (POP-SS)
The 8-item POP-SS [56, 57] was designed to concisely capture the presence and extent of key pelvic organ prolapse symptoms. Three POP-SS items pertain to pain, examining the presence of: an uncomfortable feeling or pain in the vagina which is worse when standing; heaviness or a dragging feeling in the lower abdomen; and heaviness or a dragging feeling in the lower back. POP-SS items are rated on a 5-point Likert scale ranging from 0 (never) to 4 (all of the time), and scores are computed by summing scores from the first seven items. The final item (Item 8) is used to indicate which of the previous items causes the most “bother” and is not included in total POP-SS scores.
The pelvic pain and urgency/frequency patient symptom scale (PUF)
The 11-item PUF was designed to capture key symptoms of interstitial cystitis, including pelvic pain, decreased sexual functioning, and urinary urgency and frequency . Seven PUF items assess symptoms, and four items assess the degree of bother caused by symptoms. Items pertaining to pain include assessments of pain frequency in the bladder or pelvis (including vagina, lower abdomen, and urethra), pain intensity, and the frequency of pain during or after sexual intercourse. Two items also examine the degree of “bother” caused by the pain. Most items are rated on a 4-point Likert scale, ranging from 0 (never) to 3 (always). “Symptom” and “bother” scores are computed by summing the scores from each item set, and a total score is computed by summing scores from the total item set. Possible scores range from 0 (best possible health state) to 35 (worst possible health state).
The prolapse quality of life questionnaire (P-QOL)
The P-QOL was designed to assess the severity of pelvic organ prolapse symptoms, and their impact on quality of life . The P-QOL is divided into two sections. The first section examines the severity of urinary, vaginal and colorectal symptoms (18 items). This section also includes two questions regarding general health and quality of life. The second Sect. (18 items) examines the extent to which pelvic organ prolapse symptoms limit quality of life domains, including role limitations (2 items), physical and social limitations (4 items), impact on relationships (3 items), emotional impact (3 items), impact upon sleep and energy (2 items), and any severity measures employed to ease symptoms (4 items). Items pertaining to pain include assessment of heaviness or a dragging feeling from the vagina or lower abdomen; discomfort in the vagina which is worse when standing and relieved by lying down; lower backache which worsens with vaginal discomfort; and, pain or discomfort due to the prolapse.
P-QOL items are responded to using a 4-point Likert scale, ranging from none to a lot, with the option to indicate not applicable for the relationship items. Digesu, Khullar, and colleagues  (see also ) state that scores in each domain range between 0 (good quality of life) and 100 (greatly impaired quality of life).
Generic questionnaire measures
The brief pain inventory (BPI)
The BPI is a 15-item questionnaire measure that was designed to assess the pain experiences of clinical groups; however, it is now used widely . The measure divides pain experience into two components: pain severity and interference. The severity index has a numeric rating scale, and respondents are asked to quantify the target pain as it was experienced at its “worst”, “least”, “on average” over the previous 24 h. Respondents are also asked to quantify the severity of pain experienced in the present moment. The severity index can be scored as a mean of the four items [62,63,64]. The interference index has an 11-point numeric rating scale, and respondents are asked to quantify the extent to which pain interferes with seven aspects of functioning, which include relationships, enjoyment of life, mood/emotional state, sleep, walking, work, and general activity . The BPI also includes a bodily map where respondents mark locations where pain is experienced, and the location where the “worst” pain is experienced; a preliminary screening question examining whether the respondent has experienced pain on the day of completion; and additional questions about the extent of relief provided by medication or other treatment. These items are not typically reported in the BPI scores .
The EQ-5D-5L is a generic measure of health-related quality of life . The first section of the measure comprises five items, each covering a different domain (mobility, self-care, usual activities, anxiety/depression). For each item, participants indicate one of five response levels to reflect their present health state, where 1 indicates no problem and 5 indicates extreme problems (e.g., pain: 1 = No pain discomfort, 5 = I have extreme pain or discomfort). To ensure that each dimension is reflected in the final score, a 5-digit code is used to reflect the respondent’s health state, which each number corresponding to the response from each of the five dimensions (e.g., 1-1-3-2-2) . It is also possible to assign each health state a summary index score based on national standard value sets for each the health state (e.g., ). Health state index scores generally range from 0 (where 0 is the value of a health state equivalent to dead) to 1 (the value of full health). In the second section of the ED-5D-5L, a visual analogue scale (VAS) is used to quantify the respondent’s subjective overall health rating, with scores ranging from 0 (worst health you can imagine) to 100 (best health you can imagine).
The McGill pain questionnaire (MPQ)
The MPQ  is a multidimensional pain questionnaire that was designed to facilitate communication regarding perceptual aspects of pain experience between patients and clinicians . The questionnaire is comprised of 78 descriptors, which are grouped into word sets of two to six words, according to indications of pain intensity (e.g., word set 2: ‘shooting’ indicates more pain than ‘flashing’, which, in turn, indicates more pain than ‘jumping’). The word sets fall into four overarching categories: sensory (10 word sets), affective (5 word sets), evaluative (1 word set), and miscellaneous (4 word sets). Three indices can be computed from this : (1) The number of words chosen; (2) the position of the word in each set indicates a ranked value (e.g., ‘jumping’ = 1, ‘flashing’ = 2, ‘shooting’ = 3), and pain rating indices are computed by summing the ranked values for all selected words in each category; and (3) the total score is computed by summing all ranked values.
The MPQ also includes a present pain intensity scale, which ranges from 0 (no pain) to 5 (excruciating) with descriptors for duration and frequency (e.g., ‘brief’, ‘rhythmic’, ‘constant’). Finally, the MPQ includes a body map presented from ventral and dorsal planes, so that pain distribution can be mapped with markers for internal and external locations.
The numeric rating scale (NRS) for pain
The NRS for pain is a widely-used single-item measure of pain intensity in adults (for a related overview, see ). Although many iterations of the NRS have been reported previously , the vast majority of studies identified in our systematic search used an 11-point NRS, which was presented verbally. In terms of scoring, zero typically represents “no pain”, and the number ten typically represents “pain as bad as you can imagine”/“worst pain imaginable”.
The pain catastrophizing scale (PCS)
The PCS is a 13-item measure of catastrophising (i.e., “an exaggerated negative mental set brought to bear during actual or anticipated painful experience” : p.52), that was designed for use in clinical and non-clinical populations . As such, it is primarily a measure of pain-related thoughts and beliefs (e.g., “When I am in pain it’s terrible and I think it’s never going to get any better”). The PCS has a higher-order factor structure, whereby the global construct (general catastrophising) is measured by three related dimensions: rumination (4 items), magnification (3 items), and helplessness (6 items) . Each PCS item is rated on a 5-point scale, which ranges from 0 (not at all) to 4 (all the time). The PCS total score is computed by summing scores from all 13 items, with possible scores ranging from 0 to 52. Subscale scores are computed by summing responses from the items on each subscale.
The patient global impression of improvement (PGI)
The PGI is a single-item measure of the respondent’s subjective global impression of improvement, which was used with reference to the respondent’s change in condition before and after surgery in the studies identified in our systematic search (e.g., “What best describes how your post-operative condition is now, compared to how it was before you had surgery?”). Accordingly, the PGI does not directly pertain to pain, but might encompass pain if relevant to the respondent. The PGI has seven response categories, ranging from 1 (very much better), to 7 (very much worse) .
The short-form health survey (SF-36; or the abridged SF-12)
The SF-36 is a generic measure of health-related quality of life . The SF-36 is comprised of 36 items, which examine components of physical health (four subdomains) and mental health (four subdomains) . The physical health subdomains include physical functioning (10 items), role limitations due to physical health (4 items), bodily pain (2 items), and general health perceptions (5 items). The mental health subdomains include energy/fatigue (4 items), role limitations due to emotional problems (3 items), social functioning (2 items), and general mental health perceptions (5 items). The SF-36 also includes an additional health transition item (which asks the respondent to compare their current health state to their health state one year ago) which is not included in SF-36 summary scores. The two pain items examine the intensity of pain experienced and the extent to which pain interfered normal work over the preceding four-week period. A 12-item short-form of the SF-36 (the SF-12) contains only the pain interference item [76, 77].
SF-36 items are responded to using Likert scales with a varying number of degrees, with the majority use a 5-point response scale. Scoring the SF-36 is a complex process, involving the transformation and aggregation of raw scores. Final SF-36 scores can be computed for the eight subscales and two summary scales, ranging from 0 (poorest health state) to 100 (best health state) . Scores can then be interpreted against standardised population norms .
The visual analogue scale for pain (VAS)
The VAS for pain is a graphical single-item measure of pain intensity in adults (for a related overview, see ). The VAS is comprised of a horizontal or vertical line—usually of a standardised 100 mm length—anchored by two opposing pain intensity descriptors (e.g., “no pain” versus “worst pain imaginable”). Although many iterations of the VAS have been reported previously , most studies identified in our systematic search collapsed the continuous measure to an 11-point scoring system where zero typically represented “no pain”, and the number ten typically represented “pain as bad as you can imagine”/ “worst pain imaginable”. A minority of studies scored the VAS using a range from 0 to 100 mm.
The Wong–Baker FACES scale (WBS)
The WBS was developed to facilitate assessments of pain intensity in children . The WBS is a single-item, 6-point ordinal scale, ranging from 0 (no hurt) to 5 (hurts worst). Each scale point is accompanied by an illustration of a face, which is pictured smiling at point 0, and crying at point 5 .
Unvalidated questionnaire measures
Many of the measures identified in our systematic search have not been psychometrically examined in women with pelvic mesh implants but had been evaluated in other samples (see Table 2). However, we also identified 28 studies using measures or adapted measures that have not been psychometrically evaluated in any samples to-date. Notable examples include Izett-Kay and colleagues , who designed a novel questionnaire to examine patient-reported mesh complications requiring the removal of the mesh after a laparoscopic mesh sacrohysteropexy procedure for pelvic organ prolapse. The questionnaire probed the nature and timing of symptoms that led to the diagnosis of a mesh-associated complication. Items referencing pain include an item assessing why the mesh was removed, where respondents can indicate that this was due to chronic pain. Another item examines the problems caused by the mesh complication, where respondents can indicate pain on physical examination, pain during sexual intercourse, pain during physical or daily activities, or pain that is characterised in another way (among other symptoms). In addition, the questionnaire includes an item probing whether the responded is currently under the care of a pain specialist due to mesh-related complications.
In another notable example, Brown and colleagues  developed a novel questionnaire to examine knowledge and perceptions of vaginal mesh surgery in women presenting as new patients in a urogynaecology clinic. Within the questionnaire, one item probed whether the respondent had heard that “mesh can cause pain, including with sex”, among other listed complications. The questionnaire also included items probing the extent to which the respondent is concerned about possible surgery with mesh, and the extent to which the respondent would avoid surgery using mesh, based on their current knowledge and perceptions.
Meanwhile, rather than develop a novel questionnaire, Brown  adapted the International Consultation on Incontinence Questionnaire-Lower Urinary Tract Symptoms. Specifically, Brown  substituted the term “urinary problem” for “mesh problem”, to gather data on the extent to which mesh-related symptoms interfered with the everyday lives of seven women with pelvic mesh complications. These data were gathered alongside qualitative interviews (see Table 1).
Finally, nine studies identified in our systematic search reported using the NSF-9. The NSF-9 a 9-item questionnaire that examines multiple aspects of sexual functioning, including sexual desire, frequency of sexual activity, lubrication, orgasm, and sexual satisfaction . One item (Item 8) pertains specifically to pain: “During the past month, how often have you experienced pain in your genitals before, during, or after sexual contact? (Pain = pain, itching, burning, etc.)”. The severity of symptoms is quantified using a five-point Likert scale. The NSF-9 was originally developed in Dutch , but has since been translated into English . However, we could not find any psychometric evaluations of the English translation to date, and psychometric data for the Dutch version could not be obtained.
Table 2 summarises the components of pain associated with pelvic mesh implants that are covered by the measures identified in the systematic review. Notably, the collapsed 11-point VAS for Pain (which was utilised in the largest number of studies in our systematised search) covers only one component of the construct: pain intensity. By contrast, the fGUPI —reported in one study—appears to provide the broadest coverage of the components, with five of the six components covered. Of all the components, the impact/interference component was covered by the greatest number of measures, with 19 measures covering at least one of the four subcomponents (physical functioning, sexual functioning/relationships, emotional functioning/mental health, and other aspects pertaining to quality of life) and six measures covering all four subcomponents. The timing and intensity components were also covered fairly well, with 16 measures covering each of the components.
Conversely, the patient expectations/beliefs component was only covered by one instrument: the PCS , which also fails to fully encapsulate beliefs or expectations regarding pelvic mesh implants specifically. Nevertheless, within the measures which were novel or lacking in psychometric data, Brown and colleagues  developed a questionnaire focused specifically on beliefs and expectations about pelvic mesh implants, and these items may hold promise in tapping this component of pain associated with pelvic mesh implants in future work.
The phenomenological qualities component was covered by eight measures. Of these, the MPQ provides the strongest coverage of the component, with 78 different descriptors included within the questionnaire which cover both sensory-discriminative and affective-motivational aspects of pain. Common phenomenological qualities covered by the other questionnaires included sensations of burning, dragging pain, and heaviness (e.g., BFLUTS, fGUPI, ICIQ-VS, PFDI, POP-SS, and P-QOL). These qualities appear to map fairly well onto the phenomenological qualities that have been frequently reported by women with pain associated with pelvic mesh implants (see Table 1), but perhaps miss sensations related to the feeling of a foreign object inside the body (e.g., . In terms of affective-motivational aspects of pain, the BFLUTS, ePAQ-PF, ICIQ-VS, PUF and P-QOL all include questions on the extent to which one’s symptoms cause “bother”, and both the FSFI and PISQ reference avoidance of sexual intercourse due to pain (the FSFI) or due to vaginal “tightness” or “dryness” (the PISQ).
Finally, the location component was covered by 13 measures, however there was some disparity between the bodily locations included in the measures and the bodily locations that have been frequently reported by women with pain associated with pelvic mesh implants (see Table 1). Locations that are particularly important to the construct include the vaginal area, the pelvic area, the buttocks, groin, hips, leg, lower back, and the incision site (see Table 1). However, the majority of the measures identified that mention bodily locations concentrate on the vagina, bladder, lower abdomen and pelvis (e.g., the BFLUTS, fGUPI, FSFI, ICIQ-VS, KHQ, PFDI, and PISQ; see Sect. 3.1.). The symptom severity section of the P-QOL and the POP-SS are very slightly more comprehensive in terms of location, in that some items pertain to the lower back. Notable exceptions to this include the BPI and the MPQ, which both include full body maps which are used to note the locations of pain.
Table 3 summarises the evidence of psychometric properties for the questionnaire measures in samples that have included women with pelvic mesh implants. It is notable that none of the measures in this group were specifically designed to capture outcomes from pelvic mesh procedures (see Sect. 3.1), with the majority of the identified measures having been designed to assess symptoms of pelvic organ prolapse, urinary incontinence, or as generic outcome measures (e.g., EQ-5D-5L, SF-36).
Overall, there was limited evidence of psychometric evaluation in samples of women with pelvic mesh implants. Of all the measures identified, the PFDI-20, PFIQ-7, POP-SS, and PISQ-12 appear to have appropriate properties for use in samples of women with pelvic mesh implants. However, it should be noted that the investigations of the psychometric properties for each of these measures (the PFDI-20, PFIQ-7, POP-SS and PISQ-12) has been focused on the overall change in pelvic organ prolapse or urinary incontinence symptoms following pelvic mesh implant surgery. To our knowledge there are no studies specifically examining the psychometric properties of these measures in women with pain associated with a pelvic mesh implant. Therefore, it is unclear at present whether any of the measures included in this review are psychometrically appropriate for the assessment of pain related to pelvic mesh implants.
The aim of this review was to examine ways in which pain associated with pelvic mesh implants has been measured to date, with a specific focus on the questionnaire measures that have been utilised. Overall, we identified 28 different assessments of pain associated with pelvic mesh implants, and 61% of the included studies used more than one measurement tool. The questionnaire measures that we identified were grouped into three categories: measures designed to assess urological and or/pelvic symptoms, generic measures (including measures validated across numerous pain disorders), and unvalidated measures (including novel measures, or novel adaptations of measures). Crucially, we were unable to find any validated measures that were specifically designed to assess pain associated with pelvic mesh implants.
In our preliminary narrative review, we integrated existing qualitative and theoretical accounts of the pain associated with pelvic mesh implants, which this informed the development of a multidimensional construct definition. We used this construct definition to assess the comprehensiveness of the questionnaire measures identified in the scoping review. While many of the measures identified in this review provided coverage of the timing, intensity, and impact/interference components of pain associated with pelvic mesh implants, there were three components that were not captured well (i.e., the phenomenological qualities, location, and expectation/beliefs components). This is important because each of the three underrepresented components of the construct might have implications for targeting patient interventions.
First, regarding the phenomenological qualities component, a questionnaire with sufficient coverage (e.g., the expanded and revised version of the Short-form McGill Pain Questionnaire ) might enable practitioners to identify individuals with neuropathic pain and to suggest specific drug treatments. Second, the location component has important implications for pain aetiology and therapeutic interventions. For example, postoperative pain present in areas other than the location of original mesh placement could indicate mesh migration. Finally, regarding the expectations/beliefs component, there is a growing understanding that pain experiences are influenced by top-down factors such as expectations and beliefs. For example, research has indicated that when preoperative expectations for the surgical treatment of pelvic floor disorders were not met, women judged suboptimal outcomes as more serious adverse events , and this trend is reflected in the qualitative experiences of women with complications from pelvic mesh implants (see Table 1, see also [27, 29,30,31,32]). Furthermore, participants with a high level of pain catastrophisation have been found to have higher levels of pain intensity . Accordingly, formal assessment of patient expectations and beliefs is necessary for tailoring interventions, and can help to identify patients who would benefit from psychosocial interventions, such as educational or counselling sessions.
We also considered evidence of the psychometric properties of the included measures in samples of women with pelvic mesh implants. Overall, we were able to identify limited evidence indicating that the currently-available tools are appropriate for use in samples of women with pelvic mesh implants. However, the investigations of the psychometric properties were focused on the overall change in pelvic organ prolapse or urinary incontinence symptoms following pelvic mesh implant surgery. Thus, at present it is not clear whether any of the measures included in this review are psychometrically appropriate for the assessment of pain related to pelvic mesh implants.
Within the measures that are unvalidated, the work of Izett-Kay and colleagues , Brown and colleagues , and Brown and colleagues  to develop or adapt measures specifically for women with pelvic-mesh implants is promising. It is possible that items from these measures could be used to inform the development a condition-specific patient reported outcome measure (PROM) which captures the full range of components from the overall construct (i.e., pain associated with pelvic mesh implants). In particular, the questionnaire developed by Brown and Colleagues , which covered knowledge and perceptions of vaginal mesh surgery, gave the most comprehensive coverage of the expectations/beliefs component of the construct.
A condition-specific PROM would be particularly useful for patients undergoing complex pelvic surgery to remove pelvic mesh implants, who require adequate perioperative assessment and counselling. Such surgery can be complex and can, in some instances, lead to damage to surrounding organs and tissue and result in recurrent prolapse and incontinence symptoms and ongoing pain (e.g., [4, 13]). A condition-specific PROM would also be useful for future research into therapeutic interventions for pain associated with pelvic mesh implants. For example, at present there is limited research on the effectiveness of mesh removal procedures for pain associated with pelvic mesh implants, and efficacy estimates vary greatly, possibly as a function of the measurement tool that is used [9,10,11,12,13, 22, 25, 96].
One limitation of the present work is that our construct development phase relied on existing qualitative and theoretical accounts of the construct, in addition to the knowledge and experience of the authors, and feedback from a PPI panel of ten women with pain related to pelvic mesh implants. As a direction for future research, we suggest that further formal qualitative research is conducted to better understand the experiences of pain assessment and management in women with pain associated with pelvic mesh implants. This qualitative work could inform the development of a condition-specific PROM aimed at assessing mesh-related pain, or assessing the outcomes of interventions for mesh-related complications. An additional limitation of the present work is that this review only included questionnaires used in English-speaking populations, which is an additional issue to consider in future research, as participants from different cultural backgrounds might conceptualise pain associated with pelvic mesh implants differently (e.g., it is feasible that different groups may place more emphasis on one particular domain, such as impact/interference). A final limitation was that we employed a search strategy whereby one reviewer completed article screening and study selection, and a second author screened a random 10% of the articles.
Overall, we reviewed the ways in which pain associated with pelvic mesh implants has been measured to date, focusing on the questionnaire measures that have been utilised. We were unable to find any validated measures that were specifically designed to assess pain associated with pelvic mesh implants. Our conceptual review indicated that most of the existing measures provided inadequate coverage of the phenomenological qualities, location, and expectation/beliefs components of pain associated with pelvic mesh implants. Furthermore, we were able to identify limited evidence indicating that the existing measures are appropriate for use in samples of women with pelvic mesh implants. We recommend future development of a condition-specific PROM to address these issues.
Availability of data and materials
The dataset that was generated and analysed for the systematised review is available in the Figshare repository, which can be accessed here: https://figshare.com/s/88d23a55f7cad5833856.
Bristol female lower urinary tract symptoms questionnaire
Brief pain inventory
The colorectal-anal distress inventory
Colorectal-anal impact questionnaire
Electronic personal assessment questionnaire—pelvic floor
Female genitourinary pain index
Female sexual function index
Intraclass correlation coefficients
International Consultation on incontinence questionnaire-vaginal symptoms
King’s health questionnaire
McGill pain questionnaire
Numeric rating scale
Pain catastrophizing scale
Pelvic floor distress inventory
Pelvic floor impact questionnaire
Patient global impression of improvement
Pelvic organ prolapse–urinary incontinence sexual function questionnaire
Pelvic organ prolapse distress inventory
Pelvic organ prolapse impact questionnaire
Pelvic organ prolapse symptom score
Patient and public involvement
Prolapse quality of life questionnaire
Patient reported outcome measure
Pelvic pain and urgency/frequency patient symptom
Short-form health survey
Urinary distress inventory
Urinary impact questionnaire
Visual analogue scale
Wong–Baker FACES scale
Caveney M, Haddad D, Matthews C, Badlani G, Mirzazadeh M. Short-term complications associated with the use of transvaginal mesh in pelvic floor reconstructive surgery: results from a multi-institutional prospectively maintained dataset. Neurourol Urodyn. 2017;36(8):2044–8.
Funk MJ, Visco AG, Weidner AC, Pate V, Wu JM. Long-term outcomes of vaginal mesh versus native tissue repair for anterior vaginal wall prolapse. Int Urogynecol J. 2013;24(8):1279–85.
Glazener CM, Breeman S, Elders A, Hemming C, Cooper KG, Freeman RM, et al. Mesh, graft, or standard repair for women having primary transvaginal anterior or posterior compartment prolapse surgery: two parallel-group, multicentre, randomised, controlled trials (PROSPECT). Lancet. 2017;389(10067):381–92.
Cumberlege J. First do no harm: The report of the IMMDS Review. 2020. Available from: https://www.immdsreview.org.uk/Report.html
Maher C, Feiner B, Baessler K, Christmann-Schmid C, Haya N, Marjoribanks J. Transvaginal mesh or grafts compared with native tissue repair for vaginal prolapse. Cochrane Database Syst Rev. 2016;2:1645–858.
Abed H, Rahn DD, Lowenstein L, Balk EM, Clemons JL, Rogers RG, et al. Incidence and management of graft erosion, wound granulation, and dyspareunia following vaginal prolapse repair with graft materials: a systematic review. Int Urogynecol J. 2011;22(7):789–98.
Kasyan G, Abramyan K, Popov AA, Gvozdev M, Pushkar D. Mesh–related and intraoperative complications of pelvic organ prolapse repair. Cent Eur J Urol. 2014;67(3):296–301.
Chughtai B, Mao J, Buck J, Kaplan S, Sedrakyan A. Use and risks of surgical mesh for pelvic organ prolapse surgery in women in New York state: population based cohort study. BMJ. 2015;350:h2685.
Bergersen A, Price E, Callegari M, Austin E, Oduyemi O, Hsu CH, Funk JT, Twiss CO. Pain resolution and recurrent prolapse rates following vaginal mesh removal. Urology. 2021;150:134–8.
Geller EJ, Babb E, Nackley AG, Zolnoun D. Incidence and risk factors for pelvic pain after mesh Implant surgery for the treatment of pelvic floor disorders. J Minim Invasive Gynecol. 2017;24(1):67–73.
Crosby EC, Abernethy M, Berger MB, DeLancey JO, Fenner DE, Morgan DM. Symptom resolution after operative management of complications from transvaginal mesh. Obstet Gynecol. 2014;123(1):134.
Hou JC, Alhalabi F, Lemack GE, Zimmern PE. Outcome of transvaginal mesh and tape removed for pain only. J Urol. 2014;192(3):856–60.
Rogo-Gupta L, Grisales T, Huynh L, Rodríguez LV, Raz S. Symptom improvement after prolapse and incontinence graft removal in a case series of 306 patients. Female Pelvic Med Reconstr Surg. 2015;21(6):319–24.
Bautrant E, Cervigni M, Del Moral E, de Vicente JMG, Usandizaga R, Levesque A, et al. Pain pathway and management of pain complications after surgical vaginal meshes implantation for prolapse and incontinence. J Gynecol Obstet Hum Reprod. 2020;49(7):101742.
Buechel M, Tarr ME, Walters MD. Vaginal apical pain after sacrocolpopexy in absence of vaginal mesh erosion: a case series. Female Pelvic Med Reconstr Surg. 2016;22(1):e8-10.
Gyang AN, Feranec JB, Patel RC, Lamvu GM. Managing chronic pelvic pain following reconstructive pelvic surgery with transvaginal mesh. Int Urogynecol J. 2014;25(3):313–8.
Sentilhes L, Berthier A, Sergent F, Verspyck E, Descamps P, Marpeau L. Sexual function in women before and after transvaginal mesh repair for pelvic organ prolapse. Int Urogynaecol J. 2008;19(6):763–72.
Culligan PJ, Littman PM, Salamon CG, Priestley JL, Shariati A. Evaluation of a transvaginal mesh delivery system for the correction of pelvic organ prolapse: Subjective and objective findings at least 1 year after surgery. Am J Obstet Gynecol. 2010;203(5):506-e1.
Milani AL, Hinoul P, Gauld JM, Sikirica V, van Drie D, Cosson M, et al. Trocar-guided mesh repair of vaginal prolapse using partially absorbable mesh: 1-year outcomes. Am J Obstet Gynecol. 2011;204(1):74-e1.
Withagen MI, Milani AL, den Boon J, Vervest HA, Vierhout ME. Trocar-guided mesh compared with conventional vaginal repair in recurrent prolapse: a randomized controlled trial. Obstet Gynecol. 2011;117(2):242–50.
Withagen MI, Vierhout ME, Hendriks JC, Kluivers KB, Milani AL. Risk factors for exposure, pain, and dyspareunia after tension-free vaginal mesh procedure. Obstet Gynecol. 2011;118(3):629–36.
Lee D, Chang J, Zimmern PE. Iatrogenic pelvic pain: Surgical and mesh complications. Phys Med Rehabil Clin. 2017;28(3):603–19.
National Health Service (NHS). Mesh working group. 2018. Available from. https://www.england.nhs.uk/mesh/
Toozs-Hobson P, Cardozo L, Hillard T. Managing pain after synthetic mesh implants in pelvic surgery. Eur J Obestet Gynecol Reprod Biol. 2019;234:49–52.
Jong K, Popat S, Christie A, Zimmern PE. Is pain relief after vaginal mesh and/or sling removal durable long term? Int Urogynaecol J. 2018;29(6):859–64.
Fillingim RB, Loeser JD, Baron R, Edwards RR. Assessment of chronic pain: domains, methods, and mechanisms. J Pain. 2016;17(9S):T10–20.
Brown JL. The experiences of seven women living with pelvic surgical mesh complications. Int Urogynecol J. 2020;31:823–9.
Cadish LA, Hacker MR, Modest AM, Rogers KJ, Dessie S, Elkadry EA. Characterization of pain after inside-out transobturator midurethral sling. Female Pelvic Med Reconstr Surg. 2014;20(2):99–103.
Dunn GE, Hansen BL, Egger MJ, Nygaard I, Sanchez-Birkhead AC, Hsu Y, et al. Changed women: the long-term impact of vaginal mesh complications. Female Pelvic Med Reconstr Surg. 2014;20(3):131–6.
Izett-Kay ML, Lumb C, Cartwright R, Kupelian AS, Cutner AS, Jackson S, et al. “What research was carried out on this vaginal mesh?” Health related concerns in women following mesh augmented prolapse surgery: a thematic analysis. BJOG. 2020;128(1):131–9.
Roos AM, Thakar R, Sultan AH, de Leeuw JW, Paulus AT. The impact of pelvic floor surgery on female sexual function: a mixed quantitative and qualitative study. BJOG. 2014;121(1):92–101.
Uberoi P, Lee W, Lucioni A, Kobashi KC, Berry DL, Lee UJ. Listening to Women: a qualitative analysis of experiences after complications from mesh mid-urethral sling surgery. Urology. 2020;148:106–12.
Peters MDJ, Godfrey C, McInerney P, Munn Z, Tricco AC, Khalil H. Chapter 11: Scoping Reviews (2020 version). In: Aromataris E, Munn Z, editors. JBI Manual for Evidence Synthesis. Adelaide: JBI; 2020.
Lance CE, Butts MM, Michels LC. The sources of four commonly reported cutoff criteria: What did they really say? Organ Res Methods. 2006;9(2):202–20.
Nunnally JC. Psychometric Theory. 2nd ed. New York: McGraw-Hill; 1978.
Charter RA, Feldt LS. Meaning of reliability in terms of correct and incorrect clinical decisions: the art of decision making is still alive. J Clin Exp Neuropsychol. 2001;23(4):530–7.
Shrout PE. Measurement reliability and agreement in psychiatry. Stat Methods Med Res. 1998;7(3):301–17.
Carlson KD, Herdman AO. Understanding the impact of convergent validity on research results. Organ Res Methods. 2012;15(1):17–32.
Revicki D, Hays RD, Cella D, Sloan J. Recommended methods for determining responsiveness and minimally important differences for patient-reported outcomes. J Clin Epidemiol. 2008;61(2):102–9.
Jackson S, Donovan J, Brookes S, Eckford S, Swithinbank L, Abrams P. The Bristol Female Lower Urinary Tract Symptoms questionnaire: development and psychometric testing. Br J Urol. 1996;77(6):805–12.
Brookes ST, Donovan JL, Wright M, Jackson S, Abrams P. A scored form of the Bristol Female Lower Urinary Tract Symptoms questionnaire: data from a randomized controlled trial of surgery for women with stress incontinence. Am J Obstet Gynecol. 2004;191(1):73–82.
Jones GL, Radley SC, Lumb J, Jha S. Electronic pelvic floor symptoms assessment: tests of data quality of ePAQ-PF. Int Urogynaecol J. 2008;19:1337–47.
McCooty S, Latthe P. Electronic Pelvic Floor Assessment Questionnaire: A systematic review. BJN. 2014;23(8):S32–7.
Radley SC, Jones GL, Tanguy EA, Stevens VG, Nelson C, Mathers NJ. Computer interviewing in urogynaecology: concept, development and psychometric testing of an electronic pelvic floor assessment questionnaire in primary and secondary care. BJOG. 2006;113(2):231–8.
Gray T, Strickland S, Poorana S, Li W, Campbell P, Jones G, et al. What are the concerns and goals of women attending a urogynaecology clinic? Content analysis of free-test data from an electronic pelvic floor assessment questionnaire (ePAQ-PF). Int Urogynaecol J. 2019;30:33–41.
Clemens JQ, Calhoun EA, Litwin MS, McNaughton-Collins M, Kusek JW, Crowley EM, et al. Validation of a modified National Institutes of Health chronic prostatitis symptom index to assess genitourinary pain in both men and women. Urology. 2009;74(5):983–7.
Rosen C, Brown J, Heiman S, Leiblum C, Meston R, Shabsigh D, Ferguson D, D’Agostino R. The Female Sexual Function Index (FSFI): a multidimensional self-report instrument for the assessment of female sexual function. J Sex Marital Ther. 2000;26(2):191–208.
Price N, Jackson SR, Avery K, Brookes ST, Abrams P. Development and psychometric evaluation of the ICIQ Vaginal Symptoms Questionnaire: the ICIQ-VS. BJOG. 2006;113:700–12.
Kelleher CJ, Cardozo LD, Khullar V, Salvatore S. A new questionnaire to assess the quality of life of urinary incontinent women. BJOG. 1997;104(12):1374–9.
Hebbar S, Pandey H, Chawla A. Understanding King’s Health Questionnaire (KHQ) in assessment of female urinary incontinence. Int J Res Med Sci. 2015;3(3):531–8.
Barber MD, Kuchibhatla MN, Pieper CF, Bump RC. Psychometric evaluation of 2 comprehensive condition-specific quality of life instruments for women with pelvic floor disorders. Am J Obstet Gynecol. 2001;185(6):1388–95.
Barber MD, Walters M, Bump R. Short forms of two condition specific quality-of-life questionnaires for women with pelvic floor disorders (PFDI-20 and PFIQ-7). Am J Obstet Gynecol. 2005;193(1):103–13.
Barber MD, Chen Z, Lukacz E, Markland A, Wai C, Brubaker L, et al. Further validation of the short form versions of the pelvic floor Distress Inventory (PFDI) and pelvic floor impact questionnaire (PFIQ). Neurourol Urodyn. 2011;30:541–6.
Rogers RG, Coates KW, Kammerer-Doak D, Khalsa S, Qualls C. A short form of the Pelvic Organ Prolapse/Urinary Incontinence Sexual Questionnaire (PISQ-12). Int Urogynaecol J. 2003;14(3):164–8.
Rogers RG, Rockwood TH, Constantine ML, Thakar R, Kammerer-Doak DN, Pauls RN, et al. A new measure of sexual function in women with pelvic floor disorders (PFD): The Pelvic Organ Prolapse/Incontinence Sexual Questionnaire, IUGA-Revised (PISQ-IR). Int Urogynaecol J. 2013;24(7):1091–103.
Hagen S, Glazener C, Sinclair L, Stark D, Bugge C. Psychometric properties of the Pelvic Organ Prolapse Symptom Score. BJOG. 2009;116(1):25–31.
Hagen S, Glazener C, Cook J, Herbison P, Toozs-Hobson P. Further properties of the pelvic organ prolapse symptom score: minimally important change and test-retest reliability. Neurourol Urodyn. 2010;29(6):1055–6.
Parsons CL, Dell J, Stanford EJ, Bullen M, Kahn BS, Waxell T, et al. Increased prevalence of interstitial cystitis: previously unrecognized urologic and gynecologic cases identified using a new symptom questionnaire and intravesical potassium sensitivity. Urology. 2002;60(4):573–8.
Digesu GA, Khullar V, Cardozo L, Robinson D, Salvatore S. PQOL: A validated questionnaire to assess the symptoms and quality of life of women with urogenital prolapse. Int Urogynecol J. 2005;16:176–81.
Digesu GA, Chaliha C, Salvatore S, Hutchins A, Khullar V. The relationship of vaginal prolapse severity to symptoms and quality of life. BJOG. 2005;112(7):971–6.
Cleeland CS. The Brief Pain Inventory: User guide. 2009. Available from: www.mdanderson.org/pdf/bpilong.pdf
Dworkin RH, Turk DC, Farrar JT, Haythornthwaite JA, Jensen MP, Katz NP, et al. Core outcome measures for chronic pain clinical trials: IMMPACT recommendations. Pain. 2005;113(1):9–19.
Dworkin RH, Turk DC, Wyrwich KW, Beaton D, Cleeland CS, Farrar JT, et al. Interpreting the clinical importance of treatment outcomes in chronic pain clinical trials: IMMPACT recommendations. J Pain. 2008;9(2):105–21.
Turk DC, Dworkin RH, Burke LB, Gershon R, Rothman M, Scott J, et al. Developing patient-reported outcome measures for pain clinical trials: IMMPACT recommendations. Pain. 2006;125(3):208–15.
Herdman M, Gudex C, Lloyd A, Janssen M, Kind P, Parkin D, et al. Development and preliminary testing of the new five-level version of EQ-5D (EQ-5D-5L). Qual Life Res. 2011;20(10):1727–36.
EuroQol Research Foundation. EQ-5D-5L User Guide, 2019. 2019. Available from: https://euroqol.org/publications/user-guides.
Devlin NJ, Shah KK, Feng Y, Mulhern B, van Hout B. Valuing health-related quality of life: An EQ-5D-5L value set for England. Health Econ. 2018;27(1):7–22.
Melzack R. The McGill Pain Questionnaire: major properties and scoring methods. Pain. 1975;1(3):277–99.
Katz J, Melzack R. The McGill Pain Questionnaire: Development, psychometric properties, and usefulness of the long form, short-form, and short-form-2. In: Turk D, Melzack R, editors. Handbook of Pain Assessment. 3rd ed. New York: Guilford Press; 2011. p. 45–66.
Hawker GA, Mian S, Kendzerska T, French M. Measures of adult pain. Arthritis Care Res. 2011;63(11):s240–52.
Sullivan MJ, Thorn B, Haythornthwaite JA, Keefe F, Martin M, Bradley LA, et al. Theoretical perspectives on the relation between catastrophizing and pain. Clin J Pain. 2001;17(1):52–64.
Sullivan MJL, Bishop SR, Pivik J. The pain catastrophizing scale: development and validation. Psychol Assess. 1995;7(4):524–32.
Osman A, Barrios FX, Gutierrez PM, Kopper BA, Merrifield T, Grittmann L. The Pain Catastrophizing Scale: further psychometric evaluation with adult samples. J Behav Med. 2000;23(4):351–65.
Yalcin I, Bump RC. Validation of two global impression questionnaires for incontinence. Am J Obstet Gynaecol. 2004;189:98–101.
Ware JE. SF-36 Health Survey update. Spine. 2000;25(24):3130–9.
Jenkinson C, Layte R, Jenkinson D, Lawrence K, Petersen S, Paice C, et al. A shorter form health survey: Can the SF-12 replicate results from the SF-36 in longitudinal studies? J Public Health. 1997;19(2):179–86.
Ware J Jr, Kosinski M, Keller SD. A 12-Item Short-Form Health Survey: construction of scales and preliminary tests of reliability and validity. Med Care. 1996;34(3):220–33.
Garra G, Singer AJ, Taira BR, Chohan J, Cardoz H, Chisena E. Validation of the Wong–Baker FACES pain rating scale in pediatric emergency department patients. Acad Emerg Med. 2010;17(1):50–4.
Brown LK, Fenner DE, Berger MB, DeLancey JO, Morgan DM, Patel DA, Schimpf MO. Defining patient knowledge and perceptions of vaginal mesh surgery. Female Pelvic Med Reconstr Surg. 2013;19(5):282–7.
Francken AB, Van de Wiel HBM, Van Driel MF, Schultz WW. What importance do women attribute to the size of the penis? Eur urol. 2002;42(5):426–31.
Vroege JA. Negen vragen over het seksueel functioneren (NSF). Samenstelling van een korte vragenlijst voor gebruik in farmacologische studies. Vakgroep Psychiatrie, Rijksuniversiteit. Leiden: Leiden; 1996.
Farthmann J, Mengel M, Henne B, Grebe M, Watermann D, Kaufhold J. Improvement of pelvic floor-related quality of life and sexual function after vaginal mesh implantation for cystocele: Primary endpoint of a prospective multicentre trial. Arch Gynecol Obstet. 2016;294(1):115–21.
Ramaseshan AS, Tunitsky-Bitton E, O’Sullivan DM, Reagan KL, Steinberg AC. Predictive factors of postdischarge narcotic use after female pelvic reconstructive surgery. Female Pelvic Med Reconstr Surg. 2019;25(2):e18–22.
Jones GL, Radley SC, Lumb J, Farkas A. Responsiveness of the electronic Personal Assessment Questionnaire-Pelvic Floor (ePAQ-PF). Int Urogynaecol J. 2009;20:557–64.
Gelhorn HL, Coyne KS, Sikirica V, Gauld J, Murphy M. Psychometric evaluation of health-related quality-of-life measures after pelvic organ prolapse surgery. Female Pelvic Med Reconstr Surg. 2012;18(4):221–6.
Vollebregt A, Fischer K, Gietelink D, van der Vaart CH. Effects of vaginal prolapse surgery on sexuality in women and men; results from a RCT on repair with and without mesh. J Sex Med. 2012;9(4):1200–11.
Tamanini JT, Dambros M, D’Ancona CA, Palma PCR, Botega NJ, Rios LAS, et al. Concurrent validity, internal consistency and responsiveness of the Portuguese version of the King’s Health Questionnaire (KHQ) in women after stress urinary incontinence surgery. Int Braz J Urol. 2004;30(6):479–86.
Thakar R, Chawla S, Scheer I, Barrett G, Sultana AH. Sexual function following pelvic floor surgery. Int J Gynecol Obstet. 2008;102(2):110–4.
Karjalainen PK, Mattsson NK, Jalkanen JT, Nieminen K, Toppanen AM. Minimal important difference and patient acceptable symptom state for PFDI-20 and POPDI-6 in POP surgery. Int Urogynaecol J. 2020;32:1–8.
Roy S, Mohandas A, Coyne K, Gelhorn H, Gauld J, Sikirica V, et al. Assessment of the psychometric properties of the Short-Form Prolapse/Urinary Incontinence Sexual Questionnaire (PISQ-12) following surgical placement of Prolift+ M: a transvaginal partially absorbable mesh system for the treatment of pelvic organ prolapse. J Sex Med. 2012;9(4):1190–9.
Norman GR, Sloan JA, Wyrwich KW. Interpretation of changes in health-related quality of life: the remarkable universality of a half a standard deviation. Med Care. 2003;41(5):582–92.
Barber MD, Kenton K, Janz NK, Hsu Y, Dyer KY, Greer WJ, et al. Validation of the Activities Assessment Scale in women undergoing pelvic reconstructive surgery. Female Pelvic Med Reconstr Surg. 2012;18(4):205–10.
Dworkin RH, Turk DC, Revicki DA, Harding G, Coyne KS, Peirce-Sandner S, et al. Development and initial validation of an expanded and revised version of the Short-form McGill Pain Questionnaire (SF-MPQ-2). Pain. 2009;144(1–2):35–42.
Dunivan GC, Sussman AL, Jelovsek JE, Sung V, Andy UU, Ballard A, et al. Gaining the patient perspective on pelvic floor disorders’ surgical adverse events. Am J Obstet Gyecol. 2019;220(2):185-e1.
Moradzadeh A, Jamnagerwalla J, Eilber KS, Anger JT, Ackerman AL. High catastrophizing in subjects with painful mesh complications leads to worse outcomes. Urology. 2019;124:83–90.
Danford JM, Osborn DJ, Reynolds WS, Biller DH, Dmochowski RR. Postoperative pain outcomes after transvaginal mesh revision. Int Urogynecol J. 2015;26(1):65–9.
The authors would like to thank the members of our Patient and Public Involvement (PPI) panel for sharing their experiences and feedback, which informed the development of the present work. We would also like to thank Kelly Leonard, Dr Amanda Stranks, and the team at NIHR Cambridge Biomedical Research Centre for their advice and assistance with recruiting and running the PPI sessions.
This work is part of a project funded by The Urology Foundation Innovation and Research Award (2021) to Nikesh Thiruchelvam (PI), Jennifer Todd, Michael Lee, Jane Aspell, Kelly Leonard, Amanda Stranks (co-applicants). Michael C. Lee is also supported by UK Medical Research Council Advanced Pain Discovery Platform PDP (MR/W002426/1). The funding sources had no role in the design and conduct of the study; in the collection, analysis, and interpretation of the data; or in the preparation, review, or approval of the manuscript.
Ethics approval and consent to participate
Consent for publication
The authors declare that they have not competing interests.
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
About this article
Cite this article
Todd, J., Aspell, J.E., Lee, M.C. et al. How is pain associated with pelvic mesh implants measured? Refinement of the construct and a scoping review of current assessment tools. BMC Women's Health 22, 396 (2022). https://doi.org/10.1186/s12905-022-01977-7