Continence Coalition Utilization Parameters

for

 

PELVIC MUSCLE REHABILITATION

USING BIOFEEDBACK

 

September 22, 1999

 

 

 

 

 

 

 

 

 

 

 

 

 

SUNA / WOCN Continence Coalition

 

The Society of Urologic Nurses & Associates (SUNA) and the Wound, Ostomy & Continence Nurses (WOCN)

Working together for the benefit of patients

 

 

 

 

 

 

 

 

 

 

continence Coalition Utilization Parameters for

PELVIC MUSCLE REHABILITATION USING BIOFEEDBACK

Urinary Incontinence (UI) is expensive to Medicare both directly and indirectly, owing to its preventable consequences.  Biofeedback is effective in reducing UI and in decreasing UI’s associated costs.  The Continence Coalition shares HCFA’s concerns regarding potential misuse of CPT codes for diagnosis or treatment of pelvic muscle dysfunction, but maintain that these procedures should be reimbursed when appropriately applied.

The cost-effective, outcome-oriented treatment of voiding and defecation dysfunction requires a focused, thorough assessment and a step-wise approach. Failure to treat voiding and defecation dysfunction not only impairs quality of life, but also leads to more costly complications including falls, urinary tract infections, skin breakdown, prolonged acute care stays, and increased skilled nursing facility admissions (Kane et al., 1994; Bergstrom, 1992; Kohn et al., 1991),(Baker et al., 1995),(Tromp et al., 1998) (Johansson et al., 1996; Tinetti et al., 1995; Haalboom et al., 1999).  In 1995, according to Wagner and Hu, the total US expenditure for UI alone for persons over 65 years of age was approximately $27.8 billion.  This figure represents a 164% increase over 1984 estimates and exceeds the combined costs to Medicare of dialysis and coronary bypass surgery (Health Care Financing Review, Medicare and Medicaid Statistical Supplement, 1997) ( Resnick, 1998).  While it is widely accepted that expenditures for UI are significant, almost half represents Medicare costs for medical services.  This contradicts the commonly held view that UI is merely a social and hygienic problem with costs primarily borne by the patient, family and community.  Specifically, UI evaluation and treatment account for 8% of these costs and only a minuscule portion of that was spent on behavioral therapies – a recommended first-line treatment.  The remaining 92% of Medicare costs were spent on preventable sequelae(Wagner et al., 1998)

While Kegel exercises are the time-honored approach for treating UI through PMR (PMR), studies by Bump, et al. show that verbal or written instructions alone are not  adequate (Bump et al., 1991).  When a specially trained, licensed health-care professional provides instruction and coaching using digital palpation, pelvic muscle exercise demonstrates good short- and long-term effectiveness for managing stress, urge, and mixed urinary incontinence(Bo et al., 1990; Cammu et al., 1995; Wells et al., 1991; Ferguson et al., 1990).  Scientific literature shows, however, that even better results are obtained when mechanical or electronic confirmation of proper muscle use is presented to the patient by means of biofeedback(Burgio et al., 1986; Baigis-Smith et al., 1989; Burgio et al., 1989; Burgio et al., 1998; Glavind et al., 1996; Mathewson-Chapman, 1997; McDowell et al., 1999; O'Donnell et al., 1991; Payne, 1998; Woolner et al., 1994)Without biofeedback, many patients could not benefit from PMR at all(Tries, 1990).

The most widely accepted textbook in the Biofeedback field defines biofeedback as:    "(1) a group of therapeutic procedures that (2) utilizes electronic or electromechanical instruments (3) to accurately measure, process and "feed back" to persons (4) information with reinforcing properties (5) about their neuromuscular and autonomic activity, both normal and abnormal, (6) in the form of analogue or binary, auditory and/or visual feedback signals.  (7) Best achieved with a competent biofeedback professional, (8) the objectives are to help persons develop greater awareness and voluntary control over their physiological processes that are otherwise outside of awareness and/or under less voluntary control, (e.g., strengthening pelvic muscles) (9) by first controlling the external signal, (10) and then with internal psychophysiological cues(Schwartz, 1995).

Biofeedback-assisted PMR is generally a component of a comprehensive behavioral program and has become a standard of practice as detailed by Krissovich in “Suggestions for Cost-effective Continence Treatment”.(Krissovich, 1997) Specifically, biofeedback:

ˇ       Provides keys to muscle activity of which patients are often unaware.

ˇ        Translates muscle responses into more understandable events.

ˇ        Provides powerful and instant information on muscle performance.

ˇ        Demonstrates the effectiveness of efforts to control pelvic muscles(Burgio et al., 1986; Tries et al., 1995; Krissovich, 1997).

 

Biofeedback therapy must be ordered/referred by the patient’s attending physician

and should be covered when all of the following criteria are met:

 

1.     The patient is motivated to actively participate in the treatment plan, including being responsive to the care plan requirement (i.e., practice and follow-through at home):

 

2.     The patient must be capable of participating in the treatment plan (physically as well as intellectually).

 

3.     The patient’s condition can be appropriately treated with biofeedback (i.e., pathology does not exist preventing success of the treatment, e.g., cognitive deficit)(Fantl et al., 1996).

 

Biofeedback coverage under Medicare should be allowed for medically necessary biofeedback training when performed by a physician or by a qualified, non-physician practitioner under the “incident to” coverage and “general supervision” guidelines.

MEDICAL NECESSITY:

Biofeedback-directed PMR is indicated for stress, urge and mixed urinary incontinence, as well as fecal incontinence, and for urinary urgency and frequency, or overactive bladder(Baigis-Smith et al., 1989; Burgio et al., 1986; Burgio, 1990; Burgio et al., 1989; Burgio et al., 1998; Glavind et al., 1996; McDowell et al., 1999; Mathewson-Chapman, 1997; O'Donnell et al., 1991; Woolner et al., 1994; Flynn et al., 1994; Rousseau et al., 1992; Tries et al., 1995; Farrugia et al., 1996; Patankar et al., 1997; Schuster, 1977; Schmidbaur et al., 1992; Barnett et al., 1999)It is also indicated for dysfunctional voiding and defecation, particularly when associated with striated sphincter dyssynergia(Kaplan et al., 1997; Merkel et al., 1992; Papachrysostomou et al., 1994; Rao et al., 1997; Whitehead, 1996).  ICD-9 codes  appropriate to cover the aforementioned conditions include, but are not limited to:

625.6

Stress incontinence – female

727.6

Incontinence of feces

788.30

Urinary incontinence, unspecified

564.0

Constipation(secondary to proven neuromuscular pelvic dysfunction)

788.31

Urge incontinence

728.85

Spasm of muscle

788.32

Stress incontinence - male

564.6

Anal spasm

788.33

Mixed incontinence- male, female

728.2

Muscular wasting and disuse atrophy, not elsewhere classified (appropriate use in constipation secondary to proven neuromuscular pelvic dysfunction, or striated sphincter dyssynergia)

596.55

Detrusor sphincter dyssynergia

 

 

 

EVALUATION PRIOR TO BIOFEEDBACK:

The following evaluation elements are supported by review of the literature and  advocated  by the International Continence Society, WOCN, SUNA, AUA, AUGS, and the AHCPR.

 

History

A past medical history includes the history of present illness (continence history), as well as a review of systems, a review of medication, previous surgeries or treatments, and a social and environmental assessment.  Documentation of the patient's goals, including target symptom(s) for treatment, should also be included in this initial assessment.

 

Physical Examination

A physical examination specific to elimination disorders and pelvic muscle dysfunction includes the following areas:  pelvic, rectal, neurological (including functional and mental status) abdominal, integumentary and other systems as indicated.

 

Bladder Log

A bladder log (voiding diary) or objective symptom evaluation using a validated instrument is essential (e.g., IPSS, Incontinence Impact Questionnaire, Urogenital Distress Inventory).  SEE ATTACHMENT 1 When indicated, a bowel diary should also be assigned.

 

Laboratory Testing

Laboratory testing includes a urinalysis.  Additional tests such as urine culture and sensitivity, serum creatinine, blood urea nitrogen, and other serum testing may also be indicated.

 

Post Void Residual

Measurement of post void urinary residual volumes is indicated in most cases, particularly in the older adult.

 

Optional Tests

Optional tests, such as urodynamic evaluation or cystoscopy, are indicated in selected cases.  In addition to these assessments, biofeedback-directed PMR requires objective documentation of pelvic muscle function using EMG (CPT 51784) or pressure manometry (CPT 91122) for identification, recruitment, relaxation (release), isolation, strength, endurance and fine motor control.

 

THERAPIES SUGGESTED PRIOR TO BIOFEEDBACK-DIRECTED PMR

Pelvic muscle exercise (guided by a skilled practitioner giving verbal feedback during manual palpation) may be used as the initial therapy for voiding and defecation disorders, and is sometimes effective(Bo et al., 1990; Cammu et al., 1995; Wells et al., 1991; Ferguson et al., 1990).  If this treatment method is not successful, then biofeedback-assisted PMR therapy is indicated to adequately manage voiding or defecation dysfunctions.  Biofeedback is indicated as the initial therapy when:

 

 

NUMBER OF SESSIONS AND DOCUMENTATION:

Based on the current scientific evidence referenced within this document, successful outcomes have been achieved with from 1 – 12 biofeedback visits.  Clinical experience indicates an average of six sessions of biofeedback-assisted PMR are usually required over a period of three months.  Like any physical skill, patients show considerable variation in speed of learning pelvic muscle control. Documentation for these sessions should include the following:

 

1.     Progress made since last session

2.     Goal of each session (which may include strengthening or lengthening contractions, lowering resting levels, isolation of pelvic muscles, or increased neurological control).

3.     Documentation of compliance with treatment plan.

4.     Assessment of current muscle function including

a.     Determination of resting level, before and after exercise

b.     Measured contractile strength (amplitude and duration of contraction)

c.     Latencies of recruitment and release of contraction (control)

5.     Plan for continued rehabilitation(Tries et al., 1995)

 

HOME TRAINERS

There is some evidence that daily biofeedback practice using home trainers is a valuable adjunct to biofeedback-assisted PMR(Perry et al., 1988; Susset et al., 1990; Taylor et al., 1986; Hirsch et al., 1999).  On the other hand, unsupervised use of home trainers does not appear to offer any advantage.  The availability of low-cost home trainers should not promote their substitution for regular professional evaluation of progress during the course of treatment.

 

VALIDATION OF THE NEED FOR ADDITIONAL SESSIONS

At least 50% symptom improvement should be achieved by the end of 6 sessions.  The need for additional sessions must be individualized according to the patient's goals, physiological status, and severity of the voiding dysfunction.  Further sessions, up to an additional three months are indicated when:

 

1.     the patient has demonstrated compliance with the prescribed program of treatment, and

2.     has demonstrated some progress toward resolution of the target symptom(s) such as:

ˇ       measured by objective criteria such as the bladder or bowel diary, or

ˇ       one of the aforementioned quality-of-life tools. 

 

These utilization parameters, if accepted and applied, will diminish the misuse of biofeedback and patients will receive the benefits of this modality.

 

Reference List

 

   1.        Kane, R.L., Ouslander, J.G., & Abrass, I.B. (1994).  Essentials of clinical geriatrics.  (2 ed.).  New York, NY:  McGraw-Hill, Inc.

   2.        Bergstrom, N. (1992).  Pressure Ulcers in Adults: Prediction and Prevention.  Clinical Practice Guideline, Number 3.  Rockville:  AHCPR Publication.

   3.        Kohn, D., Sinoff, G., Strulov, A., Ciechanover, M., & Wei, J.Y. (1991).  Long-term follow-up of patients aged 75 years and older admitted to an acute care hospital in Israel.  Aging (Milano.),  3(3), 279-285.
Notes: Geriatric Department, Carmel Hospital, Haifa, IsraelPMID- 0001764496
Abstract: Certain biomedical and psychosocial factors may be important in predicting short-term and long-term outcomes in elderly inpatients in an acute care hospital. We prospectively studied all patients aged 75 years and older who were admitted to an acute inpatient geriatrics unit between June, 1984 and May, 1985, and we followed them for 5 years. Patients were followed by phone and/or the outpatient ambulatory service; follow-up visits occurred at 4 to 6 weeks following discharge and annually thereafter. After 5 years, 21% of the patients were alive. Apparently, age and gender were the major parameters associated with prognosis. Functional status and nutritional state (body weight, serum albumin) were also important prognostic factors. Of the geriatric syndromes, urinary incontinence seemed to be most strongly associated with a poor outcome, followed by falls and confusion. Iatrogenic conditions apparently had no such association. These findings suggest that certain demographic and clinical factors may be useful prognosticators for elderly hospitalized patients

   4.        Baker, D.I., & Bice, T.W. (1995).  The influence of urinary incontinence on publicly financed home care services to low-income elderly people.  Gerontologist.,  35(3), 360-369.
Notes: Yale University School of Nursing, Program on Aging, New Haven, CT 06510, USAPMID- 0007542620
Abstract: Urinary incontinence (UI) has been shown to be prevalent and a risk factor for permanent institutionalization; yet it is not routinely measured in research of home care utilization. A retrospective cohort design is used to directly estimate the effect of UI on the public costs of home care services to elderly individuals. Multivariate analyses controlling for other individual, household, and supply characteristics demonstrate that those with UI generate significantly greater public costs for home care services. Patterns of service use suggest palliative rather than rehabilitative service, raising questions regarding the effective use of resources

   5.        Tromp, A.M., Smit, J.H., Deeg, D.J., Bouter, L.M., & Lips, P. (1998).  Predictors for falls and fractures in the Longitudinal Aging Study Amsterdam.  J.Bone Miner.Res.,  13(12), 1932-1939.
Notes: Institute for Research in Extramural Medicine (EMGO Institute), Vrije Universiteit, Amsterdam, The NetherlandsPMID- 0009844112
Abstract: The objective of this study was to identify easily measurable predictors for falls, recurrent falls, and fractures using a population- based prospective cohort study of 1469 elderly, born before 1931, in three regions of the Netherlands. The baseline at-home interview was in 1992. In 1995, falls experienced in the preceding year and fractures over the preceding 38-month period were registered. In a period of 1 year, 32% of the participants fell at least once, and 15% fell two or more times. The rate of recurrent falls was similar in men and women up until the age of 75 years. The total number of fractures was 85, including 23 wrist fractures, 12 hip fractures, and 9 humerus fractures. The incidence density per 1000 person-years for any fracture was 25.1 (95% confidence interval [CI], 18.9-31.4) for women and 8.2 (95% CI, 4.5-12.0) for men, respectively. Multiple logistic regression identified urinary incontinence, impaired mobility, use of analgetics, and use of antiepileptic drugs as the predictors most strongly associated with recurrent falls. Female gender, living alone, past fractures, inactivity, body height, and use of analgetics proved to be the predictors most strongly associated with fractures. The probabilities of recurrent falls were 4.7% (95% CI, 2.9-7.5%) to 59. 2% (95% CI, 24.1-86.9%) with zero to four predictors, respectively. The probability of fractures ranged from 0.0% (95% CI, 0.0-0.4%) without any of the identified predictors to 12.9% (95% CI, 4.4-32. 2%) with all six predictors present. Our study shows that the risk of recurrent falls and of fractures can be predicted using up to, respectively, four and six easily measurable predictors. This study emphasizes the importance of impaired mobility and inactivity as predictors for falls and fractures

   6.        Johansson, C., Hellstrom, L., Ekelund, P., & Milsom, I. (1996).  Urinary incontinence: a minor risk factor for hip fractures in elderly women.  Maturitas,  25(1), 21-28.
Notes: Department of Geriatrics, Vasa Hospital, Goteborg, SwedenPMID- 0008887305
Abstract: OBJECTIVE: The aim of the study was to study the influence of urinary disorders as urinary incontinence on the prevalence of hip fracture in 85-year-old women. METHODS: A representative community-based population study was performed at the geriatric outpatient department of a university hospital in a sample consisting of 658 85-year-old women, of which 69% were living at home and 31% were living were living in institutions. The prevalence of hip fractures was registered and measurement with dual photon absorptiometry of the right calcaneum was performed. The subjects were questioned covering sociodemographic background, the occurrence, type, frequency and amount of urinary incontinence, medical examinations and investigations of the prevalence of hip fracture. RESULTS: Hip fracture was significantly associated with urinary incontinence (P < 0.001) for women and the odds ratio of hip fracture was twice that found in general population (OR = 2.42). Body mass index and weight were both significant higher (P < 0.01) among women with urinary incontinence and hip fracture. The frequency of urinary incontinence was also significant correlated to hip fracture (P < 0.001). Subjects with diabetes had a tendency to be associated with urinary incontinence (P < 0.06). In a logistic multiple regression analysis, body mass index, urinary incontinence and cancers were the only explanatory factors for hip fractures at 85 years of age. CONCLUSION: The association between postmenopausal urinary incontinence and hip fractures are multifactorial and whether this is a result of decreasing estrogen levels or a result of general aging process is still under debate. Women with urinary incontinence and earlier atrumatic multiple postmenopausal fractures should be considered a special target group for estrogen prophylaxis in order to prevent further severe fractures

   7.        Tinetti, M.E., Inouye, S.K., Gill, T.M., & Doucette, J.T. (1995).  Shared risk factors for falls, incontinence, and functional dependence. Unifying the approach to geriatric syndromes [see comments].  JAMA,  273(17), 1348-1353.
Notes: Department of Internal Medicine, Yale University School of Medicine, New Haven, CT 06520-8025, USA
Abstract: OBJECTIVE--To determine whether a set of factors representing impairments in multiple areas could be identified that predisposes to falling, incontinence, and functional dependence. DESIGN--Population- based cohort with a 1-year follow-up. SETTING--General community. PARTICIPANTS--A total of 927 New Haven, Conn, residents, aged 72 years and older who completed the baseline and 1-year interviews. MAIN OUTCOME MEASURES--At least one episode of urinary incontinence per week, at least two falls during the follow-up year, and dependence on human help for one or more basic activities of daily living. RESULTS-- At 1 year, urinary incontinence was reported by 16%, at least two falls by 10%, and functional dependence by 20% of participants. The four independent predisposing factors for the outcomes of incontinence, falling, and functional dependence included slow timed chair stands (lower extremity impairment), decreased arm strength (upper extremity impairment), decreased vision and hearing (sensory impairment), and either a high anxiety or depression score (affective impairment). There was a significant increase in each of incontinence, falling, and functional dependence as the number of these predisposing factors increased. For example, the proportion of participants experiencing functional dependence doubled (7% to 14% to 28% to 60%) (chi 2 = 119.8; P < .001) as the number of predisposing factors increased from zero to one to two at least three. CONCLUSIONS--Our findings suggest that predisposition to geriatric syndromes and functional dependence may result when impairments in multiple domains compromise compensatory ability. It may be possible to restore compensatory ability and prevent or delay the onset of several geriatric syndromes and, perhaps, functional dependence by modifying a shared set of predisposing factors. Perhaps it is time to take a more unified approach to the geriatric syndromes and functional dependence

   8.        Haalboom, J.R., den Boer, J., & Buskens, E. (1999).  Risk-assessment tools in the prevention of pressure ulcers.  Ostomy.Wound.Manage.,  45(2), 20-24.
Notes: Department of Internal Medicine, Utrecht University Hospital, The NetherlandsPMID- 0010223012
Abstract: Some screening tools exist for assessing increased risk of the development of pressure ulcers, but none of these tools has undergone actual testing for validity and predictive value. This is important in clinical practice because the combination of high sensitivity and rather low specificity implies that the number of patients at increased risk is overestimated and thus overtreated (i.e., unnecessary preventive measures are taken). Risk scores are usually composed of items considered to influence the development of pressure ulcers. Although for some scoring systems attempts have been made to enhance specificity by changing the cutoff points or the relative value of individual items, good results have not been achieved. The influence that individual items have on the development of pressure ulcers and the impact of this influence on score outcomes has not yet been established. In this study, 65 patients with and 58 patients without pressure ulcers were compared using all of the known risk factors analyzed by multivariate logistic regression. We found that only the Norton, Douglas, and Dutch Consensus Meeting scoring systems appeared to predict the development of pressure ulcers. Also, it appeared that incontinence for urine and the presence of both neurologic disorders and friction forces to the skin effectively predict the development of pressure ulcers. Considering the important implications of this study, a larger study--consisting of several thousand patients--should be performed to assess in more detail the variables currently perceived as risk factors and construct and evaluate a scoring system based on these results

   9.        Health Care Financing Review, Medicare and Medicaid Statistical Supplement. (1997).

10.        Resnick, N.M. (1998).  Improving treatment of urinary incontinence [editorial; comment].  JAMA,  280(23), 2034-2035.

11.        Wagner, T.H., & Hu, T.W. (1998).  Economic costs of urinary incontinence in 1995.  Urology.,  51(3), 355-361.
Notes: Health Services and Policy Analysis Program, School of Public Health, University of California at Berkeley, 94720-7360, USAPMID- 0009510336
Abstract: Urinary incontinence imposes a significant financial burden on individuals, their families, and healthcare organizations. For individuals 65 years of age and older these costs are substantial, increasing from $8.2 billion (1984 dollars) to $16.4 billion (1993 dollars). Both of these cost-of-illness estimates, however, relied on data and factors that have changed over time. This study updates these cost estimates. The 1995 societal cost of incontinence for individuals aged 65 years and older was $26.3 billion, or $3565 per individual with urinary incontinence. Limitations, implications, and directions for future research are also discussed

12.        Bump, R.C., Hurt, W.G., Fantl, J.A., & Wyman, J.F. (1991).  Assessment of Kegel pelvic muscle exercise performance after brief verbal instruction.  Am.J.Obstet.Gynecol.,  165(2), 322-327.
Notes: Department of Obstetrics and Gynecology, Medical College of Virginia, Virginia Commonwealth University, Richmond 23298PMID- 0001872333
Abstract: Forty-seven women had urethral pressure profile determinations performed at rest and during a Kegel pelvic muscle contraction, after brief standardized verbal instruction. Twenty-three (49%) had an ideal Kegel effort--a significant increase in the force of urethral closure without an appreciable Valsalva effort. Twelve subjects (25%) displayed a Kegel technique that could potentially promote incontinence. Age, parity, weight, estrogen deprivation, prior continence surgery or hysterectomy, and passive urethral function did not predict a successful effort. We concluded that simple verbal or written instruction does not represent adequate preparation for a patient who is about to start a Kegel exercise program

13.        Bo, K., Kvarstein, B., Hagen, R., & Larsen, S. (1990).  Pelvic floor muscle exercise for the treatment of female stress urinary incontinence: II. Validity of vaginal pressure measurements of pelvic floor muscle strength and the necessity of supplementary methods for control of correct contraction.  Neurourology and Urodynamics,  9, 479-487.

14.        Cammu, H., & Van Nylen, M. (1995).  Pelvic floor muscle exercises: 5 years later.  Urology.,  45(1), 113-117.
Notes: Urogynecological Unit, Academisch Ziekenhuis-Vrije Universiteit Brussel, BelgiumPMID- 0007817462
 Abstract: OBJECTIVES. To determine the outcome of pelvic floor muscle exercises for genuine stress incontinence after 5 years. METHODS. Questionnaires were sent to 48 women, mean age 57 years, with troublesome stress incontinence treated as outpatients by a skilled female physiotherapist to elucidate a self-assessment of therapy outcome and to determine patients' compliance concerning fulfillment of home exercises and attitude toward physiotherapy. Patients' self-assessment responses indicated cured, much improved, some improvement, or unchanged/worse and incidence of anti-incontinence surgery after physiotherapy. RESULTS. The overall cure/much improvement rate for physiotherapy at the end of therapy was 54% and 5 years later it was 58% (confidence interval, 43 to 72); (P = 1.000, binomial test). Thirteen women (27%) underwent surgery. Seven unoperated women (15%) showed only some improvement or relapse and may have been undertreated. Severity of symptoms before therapy was an important factor in therapy outcome but not in therapy maintenance. Frequency of home practicing was comparable in those who had surgery afterward and those who had not. There was no clear linear relationship in long-term effect and frequency of home practicing. Severity of symptoms and behavioral changes bias this relationship. Physiotherapy was well tolerated, as 73% would still prefer it as first choice. Pelvic floor muscle exercises were recommended to friends or relatives by 77% of the patients. CONCLUSIONS. Once a certain level of incontinence is established with pelvic floor muscle exercises, that level is maintained over 5 years

15.        Wells, T.J., Brink, C.A., Diokno, A.C., Wolfe, R., & Gillis, G.L. (1991).  Pelvic muscle exercise for stress urinary incontinence in elderly women.  J.Am.Geriatr.Soc.,  39(8), 785-791.
Notes: University of Rochester, School of Nursing, NY 14642PMID- 0002071809
Abstract: PURPOSE: To compare pelvic muscle exercise to pharmacologic treatment of stress urinary incontinence, the most common cause of urine leakage reported by community-living elderly women. SUBJECTS: Convenience sample of 157 community-living women, aged 55 to 90 years, after completion of a comprehensive diagnostic evaluation. METHODS: Eighty- two subjects were randomly assigned to the exercise protocol (with a 34% attrition rate). Pelvic muscle exercises were taught and monitored for 6 months. Phenylpropanolamine hydrochloride was given to the other group in a dose of 50 mg a day, increasing to 50 mg twice a day. MAIN RESULTS: Treatment outcomes (subjective improvement, self recorded frequency of wetting) were equally satisfactory in both groups. The response to exercises was as good in 5 months as in 6. It was also as good when the minimum recommended number of exercises per day was 80 as when it was 125. CONCLUSIONS: Among those completing the protocol, pelvic exercises were beneficial in reducing stress incontinence, and the benefit was comparable to that produced by phenylpropanolamine

16.        Ferguson, K.L., McKey, P.L., Bishop, K.R., Kloen, P., Verheul, J.B., & Dougherty, M.C. (1990).  Stress urinary incontinence: effect of pelvic muscle exercise.  Obstet.Gynecol.,  75(4), 671-675.
Notes: Department of Obstetrics and Gynecology, College of Medicine, University of Florida, GainesvillePMID- 0002314786
Abstract: Twenty women with stress urinary incontinence diagnosed by urodynamic testing participated in a 6-week pelvic muscle exercise program. The aim of the study was to evaluate the effectiveness of the exercise program, with or without an intravaginal balloon, on urinary leakage as determined by a 30-minute and a 24-hour pad test. Relative strength of the pelvic muscles was evaluated using an intravaginal device that measures the pressure generated during a muscle contraction. After completion of the exercise program, 18 of the 20 subjects had an increase in strength of the pelvic floor muscles, as demonstrated by increased intravaginal pressure or a decrease in urinary loss on the 24- hour pad test. The use of an intravaginal balloon did not improve performance of the pelvic muscles or decrease urinary loss as compared with the subjects who exercised without an intravaginal balloon. Twelve months after the completion of the exercise program, 19 of the participants responded to a questionnaire about their urinary loss and performance of pelvic muscle exercises. None of the subjects stated that her urinary loss was worse, three had undergone surgical intervention, and ten had not continued to exercise. Seven subjects still exercised, with subjective improvement of urinary loss. It appears that pelvic muscle exercises may be successful in improving the condition of stress urinary incontinence; however, half of the subjects did not continue to exercise independently

17.        Burgio, K.L., Robinson, J.C., & Engel, B.T. (1986).  The role of biofeedback in Kegel exercise training for stress urinary incontinence.  Am.J.Obstet.Gynecol.,  154(1), 58-64.
Abstract: This study examined the effectiveness of teaching pelvic floor exercises with use of bladder-sphincter biofeedback compared to training with verbal feedback based on vaginal palpation in 24 women with stress urinary incontinence. Verbal feedback training consisted of instructing the patient to squeeze the vaginal muscles around the examiner's fingers and providing her with verbal performance feedback. Biofeedback patients received visual feedback of bladder pressure, abdominal (rectal) pressure, and external anal sphincter activity. The biofeedback group improved the strength and selective control of pelvic floor muscles; the verbal feedback group did not. Both groups significantly reduced the frequency of incontinence. The biofeedback group averaged 75.9% reduction in incontinence, significantly greater than the 51.0% reduction shown by the verbal feedback group. Twelve of 13 patients in the biofeedback group improved by 60% or better. Six patients in the verbal feedback group improved by 68% or better, and five were less than 30% improved

18.        Baigis-Smith, J., Smith, D.A., Rose, M., & Newman, D.K. (1989).  Managing urinary incontinence in community-residing elderly persons.  Gerontologist.,  29(2), 229-233.
Abstract: This two-year project demonstrated a significant decrease over time in urinary accidents after instruction in Kegel exercises augmented by the use of biofeedback, habit training, and relaxation techniques in 54 cognitively intact volunteers aged 60 years and over who had stress, urge or complex types of incontinence. This decrease in urinary accidents per week was maintained from the end of focused treatment through 6-month and 1-year follow-up, despite the age of the participants, previous urinary-related surgeries, or duration of incontinence

19.        Burgio, K.L., Stutzman, R.E., & Engel, B.T. (1989).  Behavioral training for post-prostatectomy urinary incontinence.  J.Urol.,  141(2), 303-306.
Notes:  Laboratory of Behavioral Sciences, National Institute on Aging, Baltimore, MarylandPMID- 0002913349
Abstract: We treated 20 men with persistent post-prostatectomy incontinence by biofeedback-assisted behavioral training procedures. Initially, scheduled 2-hour voiding resulted in a mean 33.1 per cent increase in urge incontinence, a mean 28.5 per cent decrease in stress incontinence and no change in continual leakage. Subsequently, biofeedback was used to teach selective control of the sphincter muscles and/or inhibition of detrusor contractions. Individualized home practice included a voiding schedule, sphincter exercises, active use of the sphincter to prevent urine loss and strategies to manage urgency. After 1 to 5 biofeedback sessions patients with urge incontinence demonstrated an average 80.7 per cent decrease in incontinence, while stress incontinence was decreased an average 78.3 per cent and patients with continual leakage were less successful, with a mean 17.0 per cent improvement. The findings indicate that biofeedback training is an effective intervention for episodic stress or urge incontinence after prostatectomy. However, its usefulness appears to be limited in patients with postoperative incontinence characterized by continual leakage

20.        Burgio, K.L., Locher, J.L., Goode, P.S., Hardin, J.M., McDowell, B.J., Dombrowski, M., & Candib, D. (1998).  Behavioral vs drug treatment for urge urinary incontinence in older women: a randomized controlled trial [see comments].  JAMA,  280(23), 1995-2000.
Notes: Department of Medicine, School of Medicine, University of Alabama at Birmingham, USA Kburgio@Agingdomuabedu
Abstract: CONTEXT: Urinary incontinence is a common condition caused by many factors with several treatment options. OBJECTIVE: To compare the effectiveness of biofeedback-assisted behavioral treatment with drug treatment and a placebo control condition for the treatment of urge and mixed urinary incontinence in older community-dwelling women. DESIGN: Randomized placebo-controlled trial conducted from 1989 to 1995. SETTING: University-based outpatient geriatric medicine clinic. PATIENTS: A volunteer sample of 197 women aged 55 to 92 years with urge urinary incontinence or mixed incontinence with urge as the predominant pattern. Subjects had to have urodynamic evidence of bladder dysfunction, be ambulatory, and not have dementia. INTERVENTION: Subjects were randomized to 4 sessions (8 weeks) of biofeedback- assisted behavioral treatment, drug treatment (with oxybutynin chloride, possible range of doses, 2.5 mg daily to 5.0 mg 3 times daily), or a placebo control condition. MAIN OUTCOME MEASURES: Reduction in the frequency of incontinent episodes as determined by bladder diaries, and patients' perceptions of improvement and their comfort and satisfaction with treatment. RESULTS: For all 3 treatment groups, reduction of incontinence was most pronounced early in treatment and progressed more gradually thereafter. Behavioral treatment, which yielded a mean 80.7% reduction of incontinence episodes, was significantly more effective than drug treatment (mean 68.5% reduction; P=.04) and both were more effective than the placebo control condition (mean 39.4% reduction; P<.001 and P=.009, respectively). Patient-perceived improvement was greatest for behavioral treatment (74.1% "much better" vs 50.9% and 26.9% for drug treatment and placebo, respectively). Only 14.0% of patients receiving behavioral treatment wanted to change to another treatment vs 75.5% in each of the other groups. CONCLUSION: Behavioral treatment is a safe and effective conservative intervention that should be made more readily available to patients as a first-line treatment for urge and mixed incontinence

21.        Glavind, K., Nohr, S.B., & Walter, S. (1996).  Biofeedback and physiotherapy versus physiotherapy alone in the treatment of genuine stress urinary incontinence.  Int.Urogynecol.J.Pelvic.Floor.Dysfunct.,  7(6), 339-343.
Notes: Department of Gynecology and Obstetrics, Aalborg Sygehus, DenmarkPMID- 0009203484
Abstract: Biofeedback is a method of pelvic floor rehabilitation using a surface electrode inserted into the vagina and a catheter in the rectum. Forty women with genuine urinary stress incontinence were randomized to compare the efficacy of physiotherapy and physiotherapy in combination with biofeedback. The effect of the treatment was determined by a standardized pad-weighing test. Long-term status was determined using a questionnaire after 2-3 years. Thirty-four women completed the treatment. The study showed a statistically significant better improvement in the biofeedback group. The long-term effect in the biofeedback group seemed better and the patients were more motivated for training afterwards

22.        Mathewson-Chapman, M. (1997).  Pelvic muscle exercise/biofeedback for urinary incontinence after prostatectomy: an education program.  J.Cancer Educ.,  12(4), 218-223.
Notes: University of Florida College of Nursing, Gainesville 32610-0187, USA
Abstract: BACKGROUND: This study tested the effectiveness of pelvic muscle exercise (PME) with biofeedback in reducing the length of time urinary incontinence (UI) was experienced following a radical prostatectomy for localized prostate cancer. METHODS: Fifty-three men were randomly assigned to an education intervention group or a control group. The education group received instruction in PME/biofeedback and were given a PME protocol to perform three times per week for 12 weeks. The control group did not receive instruction in PME technique. Both groups recorded urine losses in three-day bladder diaries, and 24-hour pad tests were done in weeks 2, 5, 9, and 12 after surgery. Study variables included: 1) length of time urine loss was experienced; 2) episodes and frequency of urine loss; and 3) ounces of urine lost and number of pads used. RESULTS: The PME/biofeedback group regained continence at a mean of 51 days; the non-PME group at 56 days. Although the PME group demonstrated reductions in episodes, frequency, ounces of urine lost by UI, and pad usage, they were not statistically significant. CONCLUSIONS: After prostatectomy, men experience UI for periods of one to 80+ days. The use of biofeedback enhances learning PME and skill performance. Bladder diaries and behavioral management techniques (PME) need to be further studied as appropriate treatment methods to assist men in managing UI after cancer surgery

23.        McDowell, B.J., Engberg, S., Sereika, S., Donovan, N., Jubeck, M.E., Weber, E., & Engberg, R. (1999).  Effectiveness of behavioral therapy to treat incontinence in homebound older adults.  J.Am.Geriatr.Soc.,  47(3), 309-318.
Notes: University of Pittsburgh School of Nursing, Pennsylvania 15261, USAPMID- 0010078893
Abstract: OBJECTIVES: To examine the (1) short-term effectiveness of behavioral therapies in homebound older adults and (2) characteristics of responders and nonresponders to the therapies. DESIGN: Prospective, controlled clinical trial with cross-over design. SETTING: Adults aged 60 and older with urinary incontinence and who met Health Care Financing Administration criteria for being homebound were referred to the study by homecare nurses from two large Medicare-approved home health agencies in a large metropolitan county in southwestern Pennsylvania. MEASURES: Structured continence and medical history, OARS Physical and Instrumental Activities of Daily Living scales, Folstein Mini-Mental State Examination Score, Clock Drawing Test, Geriatric Depression Scale, Performance-Based Toileting Assessment, bladder diaries, and physical examination. RESULTS: One hundred five subjects were randomized to biofeedback-assisted pelvic floor muscle training (53 to the treatment group and 52 to the control groups). Control subjects with complete pre- and post-control data (n = 45) experienced a median 6.4% reduction in urinary accidents in contrast to a median 75.0% reduction in subjects with complete pre- and post-treatment data (n = 48, P < .001). Following the control phase, subjects crossed over to the treatment protocol. Eighty-five subjects completed treatment, achieving a median 73.9% reduction in UI. Exercise adherence was the most consistent predictor of responsiveness to the behavioral therapy. CONCLUSIONS: Clinically significant reductions in urinary incontinence are achievable with behavioral therapies in many cognitively intact homebound older adults despite high levels of co-morbidity and functional impairment

24.        O'Donnell, P.D., & Doyle, R. (1991).  Biofeedback therapy technique for treatment of urinary incontinence.  Urology.,  37(5), 432-436.
Notes: Little Rock Veterans Affairs Medical Center, ArkansasPMID- 0002024391
Abstract: Biofeedback treatment of urinary incontinence is a management method that has low risk and therapeutic efficacy for selected patients. Biofeedback therapy techniques vary widely and have not been well described or standardized. A technique for biofeedback therapy is described that allows accurate signal monitoring and assures appropriate biofeedback to the patient. External anal sphincter electromyographic performance is presented to the patient as a color line graph with pitch variable audio feedback. The method has complete flexibility in providing biofeedback training according to patient performance level and is one that can be easily interpreted by patients who have voiding dysfunctions

25.        Payne, C.K. (1998).  Biofeedback for community-dwelling individuals with urinary incontinence.  Urology.,  51(2A Suppl), 35-39.
Notes: Center for Female Urology and NeuroUrology, Stanford University Medical Center, California 94305-5118, USAPMID- 0009495734
Abstract: OBJECTIVES: To review the role of biofeedback in the management of community-dwelling individuals with urge urinary incontinence (UUI), and to present a practical approach to patient evaluation and treatment selection. METHODS: In view of a lack of objective published information, perspectives on the use of biofeedback in UUI are derived from extrapolation of studies in patients with stress incontinence as well as from the author's personal experience. RESULTS: Through the use of careful baseline evaluations, appropriate exercise and biofeedback treatment for UUI can be selected for specific patients. Office-based biofeedback is preferred for patients who have no or minimal ability to isolate and contract the levator muscles at baseline. Such individuals cannot be expected to exercise effectively without instruction but can be converted to home-based treatment once responses have been achieved. Patients with weak contractions but appropriate muscle isolation are appropriate candidates for Kegel exercises; biofeedback has not been conclusively demonstrated to be superior to exercise therapy alone in this group. Vaginal cones or simple home biofeedback units may be useful adjuncts in these cases. Patients who have good muscle isolation and strong pelvic contractions at baseline generally have more severe bladder dysfunction and require aggressive treatment aimed at the detrusor. Instruction in "quick flicks" may assist in inhibiting urgency, and motivated patients may be offered vaginal cones. CONCLUSIONS: Pelvic floor muscle dysfunction is an important but often- overlooked component of UUI. The algorithm presented here can assist in tailoring exercise and biofeedback therapy to the individual patient. However, more research is needed to help stratify patients according to the degree of detrusor dysfunction and status of pelvic floor muscles before intervention

26.        Woolner, B., & Ouslander, J. (1994).  Biofeedback for urinary symptoms among frail elderly women.  Presented:Managing Incontinence in Elderly Dependent Institutionalized and Community Dwelling Persons: An Agenda for Research and Care,  March 17-20, 1-11.
Abstract: AIM:  To evaluate the applicability of biofeedback for urinary symptoms in frail elderly women.  SUBJECTS:  One hundred thirteen frail elderly female residents ofthe board and care sectino ofa multi-level long-term care institution, average age 86.4.  METHOD:  Over a 2 1/2 year period, 113 female residents with urinary symptoms were consecutively treated in a biofeedback clinic.  They were either self-referred, referred by a physician or nurse, or identified through new admissions screening for urinary symptoms. All underwent a focused history, urinalysis, and education about normal voiding and pelvic muscle exercise.  The most common symptoms were incontinence (72%), nocturia (39%), u;rgency (35%) and frequency (33%).  Pelvic muscle exercises were taught using EMG biofeedback with peri-anl and abdominal surface electrodes.  Those with urge symptoms were also taught bladder training techniques after learning to isolate their pelvic muscles.  All participant were asked to maintain daily voiding diaries.  Participants were seen for an average of 5.5 weekly visit.  RESULTS:  Sixty nine (61%) of the subjects had a favorable response based on subjective reports and voiding diaries along with objective pelvic muscle function.  The reasons for poor response were:  non-compliance (N = 12), poor memory (N = 10), failure to return (N = 9), refusal of further treatment (N = 8) and comorbid condition (N = 7).  CONCLUSIONS:  Biofeedback appears to be a useful noninvasive technique for a s;ubstantial number of frail elderly women with incontinence and related symptoms.

27.        Tries, J. (1990).  Kegel exercises enhanced by biofeedback.  J.Enterostomal.Ther.,  17(2), 67-76.
Abstract: New motor learning is dependent on sensory feedback, both visual and kinesthetic. Many factors may function to offset the effectiveness of Kegel exercises. These factors include (1) faulty feedback generated by substituting muscles, (2) insufficient kinesthetic feedback produced by the low intensity contraction of the weakened pelvic floor, and (3) absent or impaired sensation that limits the sensory cues that normally trigger a motor response or reflex that prevents incontinence. Because biofeedback can compensate for the loss of sensation, its comprehensive application can be an invaluable tool in the retraining of bowel and bladder control, especially where function is lost through trauma, neurologic injury or long term disuse/misuse. As such, biofeedback can enhance the many behavioral interventions developed to decrease incontinence, including Kegel exercises

28.        Schwartz, M. (1995).  Biofeedback:  A Practitioner's Guide, Second Edition.  (Second ed.).  Guilford Press.

29.        Krissovich, M. (1997).  Suggestions for Cost-Effective Continence Treatment. In Anonymous,  Patient Access to Continence Services: Protecting It Under Managed Care. (pp. 19-23).  Society for Urologic Nurses.

30.        Tries, J., & Eisman, E. (1995).  Urinary Incontinence: Evaluation and Biofeedback Treatment. In M. Schwartz (Ed.),  Biofeedback: A Practitioner's Guide, Second Edition. (pp. 597-632).  New York, London:  Guilford Press.

31.        Fantl, J.A., Newman, D.K., & Colling, J. (1996).  Urinary Incontinence in Adults:  Acute and Chronic Management.  Clinical Practice Guideline.  Rockville:  U.S. Department of Health and Human Services. Public Health Service, Agency for Health Care Policy and Research. AHCPR Publication No. 96-0682.

32.        Burgio, K.L., Robinson, J.C., & Engel, B.T. (1986).  The role of biofeedback in Kegel exercise training for stress urinary incontinence.  American Journal of Obstetrics and Gynecology,  154(1), 58-64.

33.        Burgio, K.L.  Biofeeedback-assisted behavioral training for elderly men and women
Notes: p. 89 - Overall, the data show that behavioral training with bfb can be a practical, cost-effective method of reducing inc in most community-dwelling elderly persons. Considering the absence of documented side effects and the low risk level associated with behavioral training, it might be considered the 1st treatment offered to mentally alert patients with stress or urge incontinence

34.        Flynn, L., Cell, P., & Luisi, E. (1994).  Effectiveness of pelvic muscle exercises in reducing urge incontinence among community residing elders.  J.Gerontol.Nurs.,  20(5), 23-27.
Abstract: 1. Urinary incontinence is a costly and prevalent problem, affecting 15% to 39% of all community residing elders. 2. Some elders suffering from urge incontinence prefer pelvic muscle exercises to bladder training as the behavioral intervention of choice. 3. Although pelvic muscle exercises are frequently associated as an intervention for stress incontinence, they have been found to be effective in significantly reducing urge incontinence. 4. Nurses are in a key position to identify and treat urinary incontinence among the elderly, and should incorporate continence restoration interventions into their practice

35.        Rousseau, P., & Fuentevilla-Clifton, A. (1992).  Urinary incontinence in the aged, Part 2: Management strategies [published erratum appears in Geriatrics 1992 Sep;47(9):87].  Geriatrics.,  47(6), 37-40, 45, 48.
Notes: VA Medical Center, Phoenix
Abstract: Treatments for urge incontinence associated with uninhibited bladder contractions include medications with anticholinergic and smooth muscle relaxant properties as well as habit training, bladder retraining, contingency therapy, and biofeedback. Pelvic floor (Kegel) exercises improve stress incontinence in 60 to 90% of female patients. For patients who fail to improve with pelvic floor exercises, a combination of an alpha-adrenergic agent and conjugated estrogen is recommended. Surgery is particularly effective in elderly women with significant pelvic prolapse. Management of overflow incontinence requires surgery or intermittent/chronic catheterization. Functional incontinence may be improved with correction of the underlying disorder and availability of a motivated caregiver

36.        Tries, J., Eisman, E., & Lowery, S.P. (1995).  Fecal Incontinence. In M. Schwartz (Ed.),  Biofeedback: A Practitioner's Guide, Second Edition. (pp. 633-661).  New York, London:  Guilford Press.

37.        Farrugia, G., Camilleri, M., & Whitehead, W.E. (1996).  Therapeutic strategies for motility disorders. Medications, nutrition, biofeedback, and hypnotherapy.  Gastroenterol.Clin.North Am.,  25(1), 225-246.
Notes: Mayo Medical School, Rochester, Minnesota, USA
Abstract: Gastrointestinal motility is regulated by a complex balance of inhibitory and excitatory neuronal, humoral, and mechanical factors. The goal in the management of motility disorders is to maintain adequate nutrition while decreasing symptoms. This can be accomplished by medications and support of nutrition and biofeedback; the application of these therapeutic strategies to patients with gut motility disorders is reviewed

38.        Patankar, S.K., Ferrara, A., Levy, J.R., Larach, S.W., Williamson, P.R., & Perozo, S.E. (1997).  Biofeedback in colorectal practice: a multicenter, statewide, three- year experience.  Dis.Colon Rectum,  40(7), 827-831.
Notes: The Colon and Rectal Clinic of Orlando, Florida 32806, USAPMID- 0009221861
Abstract: PURPOSE: Biofeedback treatment is often offered to patients in colorectal centers; however, standards of treatment are still lacking. A dedicated team approach is desirable but difficult to coordinate. We present our three-year experience of electromyographic-based biofeedback treatment offered within a multicenter, statewide organization. METHODS: Between October 1992 and October 1995, 188 patients completed a biofeedback treatment program in one of five coordinated centers within a 200-mile radius. A unified common database was established and continuously updated. A colorectal surgeon served as statewide director, and dedicated teams were established at each location. Each local team included the medical director and a certified biofeedback therapist and had access to a dietitian and a nurse data coordinator. Electromyographic-based biofeedback sessions were given weekly, and a home trainer program was established. RESULTS: A total of 116 patients with chronic constipation had a mean of eight (range, 2- 14) weekly sessions. A total of 72 patients with fecal incontinence had a mean of seven (range, 2-11) weekly sessions. A total of 84 percent of the constipated and 85 percent of the incontinent patients had significant improvement with biofeedback treatment. Patient compliance and satisfaction were high. Constipated patients increased the mean number of weekly unassisted bowel movements from 0.8 to 6.5. Incontinent patients decreased the mean number of weekly gross incontinence episodes from 11.8 to 2. CONCLUSIONS: Biofeedback treatment can be extremely successful in both incontinent and constipated patients. A large geographic area can be covered with coordinated centers in which each dedicated team uses a unified treatment protocol, and a common database is established

39.        Schuster, M.M. (1977).  Gastrointestinal tract dysfunctions respond to biofeedback.  Geriatrics.,  32(6), 32, 37, 41.

40.        Schmidbaur, W., Barnert, J., & Wienbeck, M. (1992).  Anal incontinence: evaluation and biofeedback therapy.  Mater.Med.Pol.,  24(3), 181-184.
Notes: Department of Internal Medicine 3, Zentralklinikum Augsburg, Germany
Abstract: Incontinence is a very stigmatizing symptom in our society. About 1% of the adult population is affected by fecal incontinence. In the evaluation anorectal manometry and defecography play a major role. Therapy often is still disappointing. In recent years simple retaining or biofeedback therapy have been reported to improve about 70% of incontinent patients. Within one year we treated 19 patients. Success was achieved in 69%. Biofeedback training, therefore, should be attempted prior to considering surgery

41.        Barnett, J.L., Hasler, W.L., & Camilleri, M. (1999).  American Gastroenterological Association medical position statement on anorectal testing techniques. American Gastroenterological Association.  Gastroenterology,  116(3), 732-760.
Notes: Direct exerpt "Biofeedback training.  Neurogenic fecal incontinence associated with weakness ofthe EAS and/or decreased ability to perceive rectal distention because of nerve injury can be treated with biofeedback training desighned to teach the patient (1) how to recognize small volumes of rectal distention and (2) how to contract the EAS while simultaneously keeping intra-abdominal pressure low."  ... " It was hypothesized that anorectal dysfunction in patients with associated pelvic floor dyssynergia might be amenable to biofeedback techniques.  The use of EMG biofeedback techniques has now been reported in seven studies of constipated abult patients in which a total of 92 adults have been evaluated with an overall impovment rate of 84%. ... Conclusion: (2) EMG biofeedback training is of value in the management of pelvic floor dyssynergia."
Abstract: This document presents the official recommendations of the American Gastroenterological Association (AGA) on Anorectal Testing Techniques. It was approved by the Clinical Practice and Practice Economics Committee on May 17, 1998, and by the AGA Governing Board on July 24, 1998

42.        Kaplan, S.A., Santarosa, R.P., D'Alisera, P.M., Fay, B.J., Ikeguchi, E.F., Hendricks, J., Klein, L., & Te, A.E. (1997).  Pseudodyssynergia (contraction of the external sphincter during voiding) misdiagnosed as chronic nonbacterial prostatitis and the role of biofeedback as a therapeutic option.  J.Urol.,  157(6), 2234-2237.
Notes: Department of Urology, Squier Urological Clinic, Columbia University, New York, New York, USAPMID- 0009146624
Abstract: PURPOSE: Chronic lower urinary tract symptoms in young men are often attributed to misdiagnosed chronic nonbacterial prostatitis. We analyzed contraction of the external urinary sphincter during voiding (pseudodyssynergia) as an etiology of voiding dysfunction in men with misdiagnosed chronic prostatitis. MATERIALS AND METHODS: The video urodynamic studies of 43 men 23 to 50 years old with chronic voiding dysfunction secondary to pseudodyssynergia performed between January 1990 and June 1996 were retrospectively analyzed. Pseudodyssynergia was diagnosed based on several criteria, including electrical activity of the external sphincter during voiding in the absence of abdominal straining, and brief and intermittent closing of the membranous urethra during voiding detected by electromyography and fluoroscopy. Patients with bacterial infection or excessive leukocytes in expressed prostatic secretions were excluded from the study. RESULTS: Of the patients 39 (91%) were firstborn men. Duration of symptoms ranged from 17 to 146 months (mean 43.6). Average number of previous antibiotic days ranged from 53 to 186 (mean 67.6). In addition, empirical trials of alpha- blockers were unsuccessful. Mean American Urological Association symptom score plus or minus standard deviation was 17.5 +/- 3.7, mean maximum flow rate was 13.3 +/- 4.2 ml. per second, mean detrusor pressure at maximum flow was 46.3 +/- 13.7 cm. water and mean detrusor contraction duration was 132.8 +/- 27.7 seconds. Behavior modification and biofeedback were successful in decreasing symptoms in 35 patients (83%) at 6 months. CONCLUSIONS: These results indicate that some men who are categorized as having and empirically treated for chronic nonbacterial prostatitis are misdiagnosed and, in fact, have functional bladder outlet obstruction. Urodynamics are helpful in diagnosing and predicting success with behavior modification and biofeedback in these patients

43.        Merkel, I.S., & Wald, A. (1992).  Training for straining: biofeedback for pelvic floor dyssynergia.  Am.J.Gastroenterol.,  87(9), 1223-1224.
Notes: University of Pittsburgh Medical Center, PennsylvaniaPMID- 0001519591

44.        Papachrysostomou, M., & Smith, A.N. (1994).  Effects of biofeedback on obstructive defecation--reconditioning of the defecation reflex?  Gut,  35(2), 252-256.
Notes: Department of Surgery, University of Edinburgh, Western General HospitalPMID- 0008307478
Abstract: Twenty two patients with obstructive defecation were recruited for relaxation training by domiciliary self regulatory biofeedback. Each patient served as his or her own control for anorectal and proctographic assessments. Biofeedback training improved the obstructive symptoms of the patients and showed significant change in various parameters related to the obstructive defecation syndrome. As examined by isotope dynamic proctography: the defecation rate (% of evacuation/defecation time) was significantly increased (p < 0.05), the anorectal angles at rest and during attempted defecation were made more obtuse (p < 0.05), and the pelvic floor movements were made more dynamic on voluntary contraction of the anal sphincter (p < 0.03). The external anal sphincter electromyographic voltage recorded during defecation was significantly reduced (p < 0.0005) as was the surface anal plug electromyographic electrode voltage (p < 0.0001), which was associated with a greatly reduced anismus index (p < 0.0001). The rectal sensation was improved (p < 0.05), concomitantly. Biofeedback thus improves the defecation act in patients suffering from inappropriate contraction of the pelvic floor and sphincter musculature. Furthermore, this study has shown that biofeedback objectively influences the defecation reflex leading to an improved quality of higher control of bowel function

45.        Rao, S.S., Enck, P., & Loening-Baucke, V. (1997).  Biofeedback therapy for defecation disorders.  Dig.Dis.,  15 Suppl 1:78-92, 78-92.
Notes: Department of Medicine, University of Iowa College of Medicine, Iowa City, USA
Abstract: Biofeedback therapy is a useful adjunct to conventional treatment for many patients with refractory defecation disorders. This article provides an overview regarding the historical evolution of this treatment together with current perspectives regarding the principles and techniques of performing biofeedback therapy and an assessment of its outcome in adults and pediatric patients with defecation disorders

46.        Whitehead, W.E. (1996).  Functional anorectal disorders.  Semin.Gastrointest.Dis.,  7(4), 230-236.
Notes: University of North Carolina at Chapel Hill, Division of Digestive Diseases 27599-7080, USA
Abstract: The functional anorectal disorders-functional fecal incontinence, pelvic floor dyssynergia-type constipation, levator ani syndrome, and proctalgia fugax-are common but poorly understood gastrointestinal complaints. Fecal incontinence may occur in constipated patients when a fecal impaction of the rectum reflexly inhibits the internal anal sphincter and allows leakage of soft stool, or it may occur in diarrhea. Constipation-related incontinence can be treated with habit training (use of a routine time to defecate backed up by laxatives) or biofeedback to teach relaxation of the pelvic floor, but diarrhea- related fecal incontinence usually requires antidiarrheal medications. Pelvic floor dyssynergia occurs when the pelvic floor muscles paradoxically contract instead of relaxing when the patient strains to defecate. Biofeedback to teach relaxation of these muscles is effective in two thirds of patients. Levator ani syndrome involves chronic, and proctalgia fugax involves fleeting rectal pain. The cause of these painful conditions is unknown, and no treatment of proven efficacy is available

47.        Bo, K., Kvarstein, B., Hagen, R., Jorgensen, J., & Larsen, S. (1990).  Pelvic floor muscle exercise for the treatment of female stress urinary incontinence: III. Effects of two different degrees of pelvic floor muscle exercises.  Neurourology and Urodynamics,  9, 489-502.

48.        Wells, T., Brink, C.A., Diokno, A.C., Wolfe, R., & Gillis, G.L. (1991).  Pelvic muscle exercise for stress urinary incontinence in elderly women.  Journal of the American Geriatrics Society,  39(8), 785-791.

49.        Ferguson, K.L., McKey, P.L., Bishop, K.R., Kloen, P., Verheul, J.B., & Dougherty, M.C. (1990).  Stress urinary incontinence: Effect of pelvic muscle exercise.  Obstetrics and Gynecology,  75(4), 671-675.
Notes: Aim: to evaluate effectiveness of the exercise program, with or without an intravaginal balloon, on urinary leakage as determined by a 30-minute and a 24-hr pad test

50.        Middaugh, S.J., Whitehead, W.E., Burgio, K.L., & Engel, B.T. (1989).  Biofeedback in treatment of urinary incontinence in stroke patients.  Biofeedback.Self.Regul.,  14(1), 3-19.
Notes: Department of Physical Medicine and Rehabilitation, Medical University of South Carolina, Charleston 29425PMID- 0002752058
Abstract: Urinary incontinence can occur poststroke owing to weakness or incoordination of sphincter muscles, impaired bladder sensation, or hyperreflexic, neurogenic bladder. Four male subjects who had urinary incontinence associated with a stroke that had occurred 8 months to 10 years earlier, and who averaged 1.6 to 7.5 accidental voidings per week, participated in an outpatient study with a 4-week scheduled- voiding baseline, 2 to 5 sessions of biofeedback-assisted bladder retraining, and 6- to 12-month follow-up. Training sessions included stepwise filling of the bladder and manometric feedback display of bladder pressure, abdominal pressure, and external anal sphincter pressure. Training procedures were designed to teach subjects to attend to bladder sensations, inhibit bladder contractions, and improve voluntary sphincter muscle control. All four subjects achieved and maintained continence regardless of substantial differences in subject characteristics, including laterality of stroke, degree of sensory impairment, and independence in daily activities

51.        Tries, J., & Eisman, E. (1995).  Urinary Incontinence: Evaluation and Biofeedback Treatment. In M. Schwartz (Ed.),  Biofeedback: A Practitioner's Guide, Second Edition. (pp. 597-632).  New York, London:  Guilford Press.

52.        Perry, J.D., & Hullett, L.T. (1988).  The role of EMG home trainers in the treatment of urinary and fecal incontinence [Abstract].  Presentation/Northeast Gerontological Society,  May 20, 1-5.

53.        Susset, J.G., Galea, G., & Read, L. (1990).  Biofeedback therapy for female incontinence due to low urethral resistance [see comments].  J.Urol.,  143(6), 1205-1208.
Notes: Urology Section, Veterans Administration Medical Center, Brown University Medical School, Providence, Rhode Island
Abstract: Urinary incontinence, mostly secondary to low urethral resistance, in 15 women was treated for 6 weeks by biofeedback. A new device equipped with visual and audio signals connected to an intravaginal probe was used by the patient for 15 minutes twice a day. Of the patients 12 were continent subjectively and objectively, 2 had 65 and 75% improvement and could lead a normal life, and only 1 failed to respond and was treated surgically. Besides the quality of the device, success depends largely on the quality of moral support given to the patient during the treatment

54.        Taylor, K., & Henderson, J. (1986).  Effects of biofeedback and urinary stress incontinence in older women.  J Gerontol Nurs,  12(9), 25-30.

55.        Hirsch, A., Weirauch, G., Steimer, B., Bihler, K., Peschers, U., Bergauer, F., Leib, B., & Dimpfl, T. (1999).  Treatment of female urinary incontinence with EMG-controlled biofeedback home training.  Int.Urogynecol.J.Pelvic.Floor.Dysfunct.,  10(1), 7-10.
Notes: Ludwig-Maximilians-Universitaet, Muenchen, GermanyPMID- 0010207760
Abstract: The aim of the study was to evaluate the efficacy of pelvic floor training with EMG-controlled home biofeedback in the treatment of stress and mixed incontinence in women. Subjects were recruited from the urodynamic outpatient clinic and performed pelvic muscle training with an EMG-controlled biofeedback device for 20 minutes daily for 6 months. The number of pads used per day, the number of incontinence and urgency episodes, voiding frequency, maximum urethral closure pressure, functional urethral length and pressure/transmission ratio during stress were assessed before and after treatment. Thirty-three patients (13 with stress and 20 with mixed incontinence) completed the study. There was a significant decrease in the number of pads used per day, the number of incontinence and urgency episodes, and the voiding frequency. Twenty-eight patients (85%) reported that they were cured or improved. Urodynamic parameters did not change significantly. It was concluded that home pelvic floor training with EMG-controlled biofeedback is efficient in 85% of patients in alleviating the symptoms of genuine stress and mixed incontinence without causing side effects


ATTACHMENT 1

 

 


Incontinence Impact Questionairre – short form (IIQ-7)

Has urine leakage and / or prolapse (relaxation of pelvic contents) affected:

 

Not at all

Slightly

Moderately

Greatly

1. Household chores

 

 

 

 

2. Physical recreation

 

 

 

 

3. Entertainment activities

 

 

 

 

4. Traveling more than 30 minutes from home

 

 

 

 

5. Social activities

 

 

 

 

6. Emotional health (nervousness, depression, etc.)

 

 

 

 

7. Feeling frustrated

 

 

 

 

 

 

Urological Distress Inventory –short form  (UDI-6)

 

 

 

 

1.      Do you experience, and if so, how much are you bothered by:

 

 

 

 

2.      Frequent urination

 

 

 

 

3.      Urine leakage related to a feeling of urgency

 

 

 

 

4.      Urine leakage related to physical activity, coughing, or sneezing

 

 

 

 

5.      Small amounts of urine leakage (drops)

 

 

 

 

6.      Difficulty emptying your bladder

 

 

 

 

7.      Pain or discomfort in the lower abdominal or genital area

 

 

 

 

 

Shumaker, S. A., J. F. Wyman, et al. (1994). “Health-related quality of life measures for women with urinary incontinence: the Incontinence Impact Questionnaire and the Urogenital Distress Inventory. Continence Program in Women (CPW) Research Group.” Qual Life Res 3(5): 291-306

 

Uebersax, J. S., J. F. Wyman, et al. (1995). “Short forms to assess life quality and symptom distress for urinary incontinence in women: the Incontinence Impact Questionnaire and the Urogenital Distress Inventory. Continence Program for Women Research Group.” Neurourol Urodyn 14(2): 131-9

 

 

I-PSS attached