Literature DB >> 19597719

Symptoms of pelvic floor dysfunction are poorly correlated with findings on clinical examination and dynamic MR imaging of the pelvic floor.

Suzan R Broekhuis1, Jurgen J Fütterer, Jan C M Hendriks, Jelle O Barentsz, Mark E Vierhout, Kirsten B Kluivers.   

Abstract

INTRODUCTION AND HYPOTHESIS: The aim of the study was to determine whether patients' symptoms agree with findings on clinical examination and dynamic MR imaging of the pelvic floor.
METHODS: Symptoms of pelvic organ dysfunction were measured with the use of three validated questionnaires. The domain scores were compared with POP-Q and dynamic MR imaging measurements. The Spearman's rank correlation coefficient (r(s)) was used to assess agreement.
RESULTS: Only the domain score genital prolapse was significantly correlated in the positive direction with the degree of pelvic organ prolapse as assessed by POP-Q and dynamic MR imaging (r(s) = 0.64 and 0.27, respectively), whereas the domain score urinary incontinence was inversely correlated (r(s) = -0.32 and -0.35, respectively).
CONCLUSIONS: The sensation or visualization of a bulge in the vagina was the only symptom which correlated positively with the degree of pelvic organ prolapse, and clinical examination and dynamic MR imaging showed similar correlation in this respect.

Entities:  

Mesh:

Year:  2009        PMID: 19597719      PMCID: PMC2744799          DOI: 10.1007/s00192-009-0938-2

Source DB:  PubMed          Journal:  Int Urogynecol J Pelvic Floor Dysfunct


Introduction

Pelvic organ prolapse (POP) and symptoms of pelvic organ dysfunction are both common in the general population and may occur concurrently, but independently. Therefore, a good understanding of the interrelation is of utmost importance and aids in the (preoperative) counseling of patients. The correlation between patients’ symptoms and clinical staging of POP is known to be poor. Previous studies have, for example, shown little or no agreement between POP severity and symptoms of bladder and bowel dysfunction [1-7]. The only symptom which has previously shown to be well correlated with the severity of prolapse was “to see or to feel a bulge in the vagina” [1, 5, 8–12]. Furthermore, in a study on the comparison of POP-Q and ultrasound staging of prolapse, the two methods performed similar with regards to the identification of women with the sensation or visualization of a lump in the vagina [13]. Dynamic MR imaging of the pelvic floor is another potentially useful diagnostic tool in the preoperative assessment of pelvic floor dysfunction [14]. Until now, however, there are no studies available, which have assessed the agreement between measurements on dynamic MR imaging and patients’ symptoms. The aim of the present study was to determine whether patients’ symptoms assessed with validated questionnaires agree with staging of POP on POP-Q and dynamic MR imaging.

Materials and methods

This observational study was performed at the Radboud University Nijmegen Medical Centre, the Netherlands, from September 2005 through January 2008. The center is a national tertiary referral center for women with pelvic organ dysfunctions. Inclusion criteria were consecutive women with pelvic organ dysfunction, i.e., pelvic organ prolapse, urinary or defecatory disorders, who underwent dynamic MR imaging in the inclusion period. MR imaging was performed as part of routine clinical practice in patients with recurrent prolapse, especially in the posterior compartment, and in case the patient’s complaints did not correspond with clinical findings. The study was submitted to and deemed exempt by the local institutional review board.

Symptom assessment

Patients’ symptoms were measured with the use of the disease specific quality of life questionnaires urogenital distress inventory (UDI), defecatory distress inventory (DDI), and the incontinence impact questionnaire (IIQ). The questionnaires have previously been validated for the Dutch language [15, 16]. The UDI consist of 11 items and five domains on bothersome urinary complaints. The DDI measures bothersome defecatory complaints and consists of 11 items and five domains. The IIQ consists of 13 items and measures the impact of urinary incontinence on quality of life in five domains. The score on each domain of these questionnaires ranges from 0 till 100, where 0 indicates the best quality of life and 100 indicates the poorest quality of life.

Clinical examination

Clinical assessment of POP was performed with the use of POP-Q by one out of three gynecologists experienced in the assessment of POP. In the POP-Q, nine measurement points are assessed during maximal Valsalva maneuver and in the supine lithotomy position (except the transvaginal length, which is measured at rest). Only the measurements of POP-Q points Ba, C, and Bp were used in this study. Ba is the most descended edge of the anterior vaginal wall in centimeters relative to the hymenal remnants, and C represents either the most distal edge of the cervix or the leading edge of the vaginal vault after total hysterectomy, whereas Bp is the most descended edge of the posterior vagina wall.

Dynamic MR imaging protocol

The dynamic MR imaging examination was performed with the patient in the supine position with parallel and slightly flexed legs. Patients were requested not to void for 1–2 h prior to the examination. The rectum was opacified using 100–150 ml ultrasound gel. The urethra, bladder, and vagina were not opacified. No premedication was given. MR images were acquired using a 3T MR scanner (TIM TRIO, Siemens Medical, Germany) and an eight-channel body-phased array coil. MR images were obtained in the sagittal plane using a half-Fourier acquisition single-shot turbo spin-echo sequence (2,000 ms/90 ms repetition time/echo time; 150° flip angle), with a temporal resolution of 1 s during 2 min. During the MR examination, the patient was asked to relax the pelvic floor muscles, to contract the muscles slowly, relax again, and then to increase the intraabdominal pressure and strain in order to defecate. To assure that the patient followed the instruction given, all images were viewed online on the MR console. A whirl of urine in the bladder and/or a dent into the cranial portion of the bladder, seen on the sagittal images, indicated adequate straining. The images were analyzed at a later stage on a console with zoom facilities and electronic calipers. The observer was blinded to the patients’ symptoms and the clinical findings. The midsagittal images on maximal strain were used to assess the prolapse. The pubococcygeal line was defined as a straight line between the inferior rim of the pubic bone and the last visible coccygeal joint, the H-line as a straight line between the inferior rim of the pubic bone and the posterior wall of the anal canal on the level of the impression of the puborectal sling, and the mid-pubic line as a line drawn through the longitudinal axis of the pubic bone, passing through its midequatorial point [17]. On maximum strain, the leading edge of the bladder (anterior compartment), the cervix or vaginal vault (central compartment), and the most anteriocaudal point of the anterior rectal wall or the most distal portion of the peritoneal sack containing peritoneal fat or small bowel loops (posterior compartment) was determined in centimeters perpendicular to the three reference lines.

Statistical methods

The most descended POP-Q point and the most descended measurement on dynamic MR imaging (irrespective of the compartment) were used in the analysis. Spearman’s rank correlation coefficient was used to test the correlation between the different measurements, i.e., the domain scores on the questionnaires, the most descended POP-Q point, and the most descended MR imaging measurement. A Spearman’s correlation coefficient of more than 0.80 denotes excellent correlation, between 0.80 and 0.60 good correlation, between 0.60 and 0.40 moderate correlation, and below 0.40 poor correlation, respectively. SPSS version 16.0 (SPSS, Inc.,Chicago, IL, USA) was used to perform the statistical analysis. P values <0.05 were considered statistically significant.

Results

One hundred and twenty women underwent dynamic MR imaging of the pelvic floor during the study period. Sixty-nine of these women had completed the questionnaires and were included in the analysis. Sixty-six of these sixty-nine women underwent POP-Q examination. Women’s baseline characteristics and clinical measurements are shown in Table 1. Ninety percent of the women had a previous history of one or more gynecological operations, i.e., a hysterectomy, POP surgery, or urinary incontinence surgery.
Table 1

Characteristics of the women included in the study (n = 69)

 Values
Baseline characteristics
Age (years)54 (31; 75)
BMI (kg/m2)26 (20; 36)
Paritya2 (1; 6)
Number of previous gynecological operationsa
 None7 (10%)
 1 or 2 operations22 (32%)
 ≥3 operations40 (58%)
Types of gynecological surgerya
 POP surgery34 (49%)
 Urinary incontinence surgery16 (23%)
 Hysterectomy39 (57%)
Clinical measurements
POP-Q (cm)
 Ba−2 (−3; +4)
 C−6 (−9; +3)
 Bp0 (−3; +4)
 Most descended point0 (−3; +4)
MRI, most descended (cm)
 PCL0.4 (−1.2; 2.5)
 H-line0.5 (−1.2; 2.6)
 MPL0.6 (−1.6; 2.9)
UDI
 Overactive bladder33.3 (0; 100.0)
 Urinary incontinence16.7 (0; 100.0)
 Obstructive micturition16.7 (0; 100.0)
 Discomfort/pain33.3 (0; 100.0)
 Genital prolapse33.3 (0; 100.0)
DDI
 Constipation16.7 (0; 100.0)
 Obstructed defecation16.7 (0; 83.3)
 Pain0.0 (0; 100.0)
 Incontinence16.7 (0; 100.0)
 Flatulence33.3 (0; 100.0)
IIQ
 Physical functioning33.3 (0; 100.0)
 Mobility38.9 (0; 100.0)
 Social function22.2 (0; 88.9)
 Embarrassment16.7 (0; 100.0)
 Emotional health33.3 (0; 100.0)

n number of patients, BMI body mass index, POP-Q pelvic organ prolapse (quantification), cm centimeters relative to the hymen, Ba most descended edge of the anterior vaginal wall on strain, C most descended edge of the cervix or vaginal vault on strain, Bp most descended edge of the posterior vagina wall on strain, MRI magnetic resonance imaging, PCL pubococcygeal line, MPL mid-pubic line, UDI urogenital distress inventory, DDI defecatory distress inventory, IIQ incontinence impact questionnaire

aData presented as median (range) or number of patients

Characteristics of the women included in the study (n = 69) n number of patients, BMI body mass index, POP-Q pelvic organ prolapse (quantification), cm centimeters relative to the hymen, Ba most descended edge of the anterior vaginal wall on strain, C most descended edge of the cervix or vaginal vault on strain, Bp most descended edge of the posterior vagina wall on strain, MRI magnetic resonance imaging, PCL pubococcygeal line, MPL mid-pubic line, UDI urogenital distress inventory, DDI defecatory distress inventory, IIQ incontinence impact questionnaire aData presented as median (range) or number of patients Tables 2, 3, and 4 show the mutual correlations between domain scores (e.g., the UDI domain scores vs. the UDI domain scores, the DDI domain scores vs. the DDI domain scores, and the IIQ domain scores vs. the IIQ domain scores). The statistical significant results of these mutual correlations had a positive direction (rs range = 0.26; 0.59), with the exception of the correlation between the domain score “genital prolapse” with the domain score “urinary incontinence” (rs = −0.42). This negative correlation can be explained by the fact that more severe POP may result in a decrease of urinary incontinence symptoms due to more obstruction.
Table 2

The mutual correlation of the urogenital distress inventory domain scores

 Overactive bladderUrinary incontinenceObstructive micturitionDiscomfort/painGenital prolapse
nrsnrsnrsnrsnrs
Overactive bladder601.00600.41a600.45a580.47a570.06
Urinary incontinence631.0063−0.06610.28b60−0.42a
Obstructive micturition651.00630.26b620.39a
Discomfort/pain671.00630.28b
Genital prolapse651.00

n number of patients, r Spearman’s rank correlation coefficient

aCorrelation is significant at the 0.01 level (two-tailed)

bCorrelation is significant at the 0.05 level (two-tailed)

Table 3

The mutual correlation of the defecatory distress inventory domain scores

 ConstipationObstructed defecationPainIncontinenceFlatulence
nrsnrsnrsnrsnrs
Constipation651.00640.56a640.55a63−0.1563−0.14
Obstructed defecation651.00630.51a640.02640.05
Pain651.00630.00630.08
Incontinence661.00650.49a
Flatulence661.00

n number of patients, r Spearman’s rank correlation coefficient

aCorrelation is significant at the 0.01 level (two-tailed)

bCorrelation is significant at the 0.05 level (two-tailed)

Table 4

The mutual correlation of the incontinence impact questionnaire domain scores

 Physical functioningMobilitySocial functionEmbarrassmentEmotional health
nrsnrsnrsnrsnrs
Physical functioning651.00640.35a600.43a620.00650.24
Mobility661.00620.51a630.46a660.48a
Social function621.00590.39a620.58a
Embarrassment641.00640.59a
Emotional health671.00

n number of patients, r Spearman’s rank correlation coefficient

aCorrelation is significant at the 0.01 level (two-tailed)

bCorrelation is significant at the 0.05 level (two-tailed)

The mutual correlation of the urogenital distress inventory domain scores n number of patients, r Spearman’s rank correlation coefficient aCorrelation is significant at the 0.01 level (two-tailed) bCorrelation is significant at the 0.05 level (two-tailed) The mutual correlation of the defecatory distress inventory domain scores n number of patients, r Spearman’s rank correlation coefficient aCorrelation is significant at the 0.01 level (two-tailed) bCorrelation is significant at the 0.05 level (two-tailed) The mutual correlation of the incontinence impact questionnaire domain scores n number of patients, r Spearman’s rank correlation coefficient aCorrelation is significant at the 0.01 level (two-tailed) bCorrelation is significant at the 0.05 level (two-tailed) The statistical significant correlation between the most descended POP-Q point with the most descended measurement on dynamic MR imaging was rs = 0.39. The statistical significant correlations between the three reference lines, e.g., the most descended measurement in relation to the pubococcygeal line vs. the H-line, the pubococcygeal line vs. the mid-pubic line, and the H-line vs. the mid-pubic line were rs = 0.94, rs = 0.79, and rs = 0.83, respectively. For the ease of presentation, the results in Table 5 are shown in relation to the pubococcygeal line only. In view of the high correlations, however, the results apply to the two other reference lines as well.
Table 5

Spearman’s correlation between questionnaire domain scores and the most descended POP-Q point and the most descended measurement on dynamic MR imaging

POP-QMR imaginga
nrsnrs
UDIOveractive bladder58−0.0660−0.17
Urinary incontinence61−0.32b63−0.35c
Obstructive micturition620.35c670.07
Discomfort/pain640.2465−0.01
Genital prolapse620.64c650.27b
DDIConstipation620.0065−0.03
Obstructed defecation620.0565−0.05
Pain62−0.0465−0.08
Incontinence63−0.1166−0.25b
Flatulence63−0.0266−0.41c
IIQPhysical functioning620.36c650.06
Mobility63−0.1666−0.27b
Social function590.0062−0.15
Embarrassment61−0.25b64−0.47c
Emotional health64−0.1867−0.33c

POP-Q pelvic organ prolapse-quantification, MR magnetic resonance, n number of patients, r Spearman’s rank correlation coefficient, UDI urogenital distress inventory, DDI defecatory distress inventory, IIQ incontinence impact questionnaire

aMeasurements in relation to the pubococcygeal line

bStatistically significant at the 0.05 level (two-tailed)

cStatistically significant at the 0.01 level (two-tailed)

Spearman’s correlation between questionnaire domain scores and the most descended POP-Q point and the most descended measurement on dynamic MR imaging POP-Q pelvic organ prolapse-quantification, MR magnetic resonance, n number of patients, r Spearman’s rank correlation coefficient, UDI urogenital distress inventory, DDI defecatory distress inventory, IIQ incontinence impact questionnaire aMeasurements in relation to the pubococcygeal line bStatistically significant at the 0.05 level (two-tailed) cStatistically significant at the 0.01 level (two-tailed) Table 5 shows the Spearman’s correlation between the domain scores of the questionnaire with the most descended POP-Q point and with the most descended measurement on dynamic MR imaging in relation to the pubococcygeal line, respectively. The correlations were mostly negative and only moderate to poor. The domain scores “obstructive micturition”, genital prolapse, and “physical functioning” correlated statistically significant with the most descended POP-Q point in the positive direction (rs = 0.35, 0.64, and 0.36, respectively), as did the domain score genital prolapse with the most descended MR imaging measurement (rs = 0.27). The strongest correlations were between the UDI domain score genital prolapse and the most descended POP-Q point (rs = 0.64) and between the DDI domain score “flatulence” and IIQ domain score “embarrassment” and the most descended MR imaging measurement (rs = −0.41 and −0.47).

Discussion

This observational study is, to our knowledge, the first report on the agreement between patients’ symptoms as assessed with validated questionnaires and findings on dynamic MR imaging of the pelvic floor. These results were offset against the agreement between patients’ symptoms and POP-Q findings. In view of the low correlations, dynamic MR imaging of the pelvic floor is not likely to have an additional value in the prediction of symptoms, and clinical examination can thus be regarded as the golden standard. As confirmed by previous studies, to see or to feel a bulge in the vagina was the only symptom that correlated well with the degree of POP [1, 5, 8–12]. Our findings are of utmost importance in the counseling of POP patients and the discussion on patient’s expectations. Patients with symptoms other than the sensation or visualization of a bulge in the vagina need to be informed that their symptoms might not be a direct result of the POP. Consequently, it is unclear to what degree these symptoms improve following surgical treatment. More severe POP may result in a decrease of urinary incontinence symptoms due to more obstruction. Although there are some previous studies that support this theory [2, 5], others have reported that urinary incontinence symptoms were not associated with the degree of POP [1, 6, 9, 10]. In the present study, however, the relationship between more severe prolapse and urinary incontinence was reflected in the inversed correlations between more bother on the domain score urinary incontinence and genital prolapse, as well as the domain score urinary incontinence and more severe POP on MR imaging and clinical examination. Less incontinence at higher prolapse stages was also demonstrated in the inversed correlation between several domain scores of the IIQ with the degree of POP. As expected, these impact scores had a statistically significant positive correlation with the domain score urinary incontinence of the UDI. The main question remains why the degree of POP correlates so poorly with various patients’ complaints, with the exception of the question on to see or to feel a bulge in the vagina. It might be partly due to the fact that POP and pelvic floor dysfunctions are both very common disorders. Our results suggest that bladder and bowel dysfunctions coexist without a causal relation to the degree of prolapse. In the present, study we report on the agreement of symptoms with the most descended edge of prolapse. We did, however, analyze the data on the agreement between symptoms and the descent in each compartment separately. Overall, this resulted in even poorer correlations between pelvic floor dysfunctions and cystocele, uterine descent/vaginal vault prolapse, or rectocele separately. In other words, there are no specific symptoms related to the descent in the different compartments. In dynamic MR imaging, various reference lines may be used to stage POP [17]. The preferable reference line is, however, a subject of ongoing debate [17, 18]. In the present study, there was a good to excellent mutual correlation between the MR imaging measurements in relation to the three different reference lines. This shows that the differences between the reference lines are only minor and either choice for a reference line seems correct. We choose to present the results for the pubococcygeal line since this is the most widely used reference line, and the measurements previously showed good reproducibility [18]. The results hold true, however, for the other reference lines as well. The results of our study may have been influenced by the tertiary referral patient population, which consisted of 62 women (90%) who had at least one previous operation for POP or urinary incontinence. In this specific patient population, the evaluation of symptoms in relation to POP stages may be more complex, regardless of the modality used. Until now, it is unclear to what extent our results apply to other populations as well, such as to women without previous surgery. In conclusion, to see or to feel a bulge in the vagina was the only symptom that correlated with the degree of POP. In comparison with clinical examination, dynamic MR imaging had no additional value in the prediction of symptoms with increasing degree of POP. However, the fast majority of the included women had previous one or more pelvic surgical procedure(s). The conclusions may therefore not be the same to naive patients.
  18 in total

Review 1.  A systematic review of clinical studies on dynamic magnetic resonance imaging of pelvic organ prolapse: the use of reference lines and anatomical landmarks.

Authors:  Suzan R Broekhuis; Jurgen J Fütterer; Jelle O Barentsz; Mark E Vierhout; Kirsten B Kluivers
Journal:  Int Urogynecol J Pelvic Floor Dysfunct       Date:  2009-03-07

2.  Dynamic magnetic resonance imaging: reliability of anatomical landmarks and reference lines used to assess pelvic organ prolapse.

Authors:  Suzan R Broekhuis; Kirsten B Kluivers; Jan C M Hendriks; Mark E Vierhout; Jelle O Barentsz; Jurgen J Fütterer
Journal:  Int Urogynecol J Pelvic Floor Dysfunct       Date:  2008-11-11

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4.  Correlation of symptoms with location and severity of pelvic organ prolapse.

Authors:  R M Ellerkmann; G W Cundiff; C F Melick; M A Nihira; K Leffler; A E Bent
Journal:  Am J Obstet Gynecol       Date:  2001-12       Impact factor: 8.661

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9.  Correlation of symptoms with degree of pelvic organ support in a general population of women: what is pelvic organ prolapse?

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10.  Pelvic organ prolapse symptoms in relation to POPQ, ordinal stages and ultrasound prolapse assessment.

Authors:  Kirsten B Kluivers; Jan C M Hendriks; Clara Shek; Hans Peter Dietz
Journal:  Int Urogynecol J Pelvic Floor Dysfunct       Date:  2008-05-09
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