Literature DB >> 21769174

Non-infectious complications of continuous ambulatory peritoneal dialysis and their impact on technique survival.

J Prakash1, L K Sharatchandra Singh, S Shreeniwas, B Ghosh, T B Singh.   

Abstract

Data on non-infectious complications of continuous ambulatory peritoneal dialysis (CAPD) are sparingly reported from different centres of the country. We studied the non-infectious complications in patients of end stage-renal disease (ESRD) undergoing CAPD. Double-cuffed straight catheter was inserted in all patients using the surgical method and CAPD was started on the 15(th) day of catheter insertion. The nature of non-infectious complications was noted during follow-up in these patients. Forty-five (male 31, female 14) patients with the mean age of 54.5±11.6 years were studied. Diabetic nephropathy was the most common (59.5%) cause of ESRD. Overall, non-infectious complications were noted in 18/45 (40%) cases. Ultrafiltration failure was the most common (15.5%) followed by incisional hernia (6.6%), exit site leak (4.4%), hydrothorax (4.4%), catheter malposition (4.4%), scrotal swelling (2.2%) and hemoperitoneum (2.2%). Patients with ultrafiltration failure were either shifted to hemodialysis or underwent renal transplantation. The remaining (62%) non-infectious complications did not affect the catheter survival and CAPD could be continued. Non-infectious complications occurred in 40% of our CAPD patients and ultrafiltration failure was the most common (15.5%). A majority (62%) of the complications did not affect catheter survival.

Entities:  

Keywords:  Catheter survival; continuous ambulatory peritoneal dialysis; non-infectious complications; ultrafiltration failure

Year:  2011        PMID: 21769174      PMCID: PMC3132330          DOI: 10.4103/0971-4065.82125

Source DB:  PubMed          Journal:  Indian J Nephrol        ISSN: 0971-4065


Introduction

Non-infectious complications of continuous ambulatory peritoneal dialysis (CAPD) are increasing in importance in parallel to reduced peritonitis rates. They arise from insertion and maintenance of the PD catheter in the peritoneal cavity, the increase in intra-abdominal pressure caused by dialysate and metabolic effects of the absorption of glucose and its byproducts. Catheter-related problems are the major causes of technique failure and account for approximately 20% of change to hemodialysis (HD).[12] Ultrafiltration failure (UFF) is the most important transport abnormality in long-term continuous ambulatory peritoneal dialysis (CAPD) implying both a large effective peritoneal vascular surface area and impaired transcellular water transport.[3] The prevalence of UFF increases from 3% after one year on CAPD to 31% after six years. The aim of this study was to describe non-infectious complications of CAPD in our setup and their impact on the technique survival.

Materials and Methods

This observational study was carried out in 45 patients of end stage-renal disease (ESRD) undergoing CAPD. We studied the non-infectious complications in those patients occurring during the course of therapy. Double-cuffed straight Tenckhoff catheter was inserted in all patients using the surgical technique. Flushing of the catheter was done on the fifth and ninth days after insertion , and regular CAPD was started on the 15th day. All patients were followed up at an interval of at least six weeks or earlier if they had any problem. The duration of follow-up ranged between one and 72 months. The non-infectious complications were defined as descibed below. hydrothorax: Pleural fluid resembling dialysate with high glucose concentration of ≥300-400 mg/dl and lactate dehydrogenase level <100 IU/ml. Ultrafiltration failure (UFF): net UF volume < 400 ml after 4h of fluid dwell with 2 L of 4.25% dextrose dialysis solution, dialysate leak: development of any moisture around the catheter that had a high glucose level. It was divided between early and late if it was noted before or after 30 days and hemoperitoneum: prolonged collection of blood in the peritoneal cavity.

Results

The demographic profile of 45 (31 males; 14 females) patients is shown in Table 1. The mean age was 54.5±11.6 years. Diabetic nephropathy was the commonest cause of ESRD. The duration of CAPD ranged from one to 72 months. Table 2 shows the duration of PD. Non-infectious complications were observed in 18 (40%) patients. Ultrafiltration failure was the most common non-infectious complication, observed in seven (15.5%) patients. Three patients with UFF were shifted to hemodialysis and two patients underwent living related renal transplantation. Scrotal swelling and hemoperitoneum were observed in one case each [Table 3]. Hemoperitoneum occurred within three months of catheter insertion, was of uncertain etiology and the patient died of bleeding. The catheter had to be removed in six (13.3%) cases. The reason and time of removal of functioning catheter are given in Table 4. Catheter reinsertion was done in four patients. Coronary artery disease was the most common cause of death in 14 (60.8%) patients followed by sepsis related to peritonitis in eight (34.8%) cases.
Table 1

Demographic profile of patients on continuous ambulatory peritoneal dialysis (n = 45)

Table 2

Duration of continuous ambulatory peritoneal dialysis

Table 3

Non-infectious complications of continuous ambulatory peritoneal dialysis

Table 4

Time of removal of functioning continuous ambulatory peritoneal dialysis catheter due to peritonitis

Demographic profile of patients on continuous ambulatory peritoneal dialysis (n = 45) Duration of continuous ambulatory peritoneal dialysis Non-infectious complications of continuous ambulatory peritoneal dialysis Time of removal of functioning continuous ambulatory peritoneal dialysis catheter due to peritonitis

Discussion

Non-infectious complications of CAPD are classified into two groups on the basis of onset from the time of insertion of catheter: early onset (one to four months) and late onset (12-24 months). Early-onset complications include exit site leak, catheter malposition, hemoperitoneum, right-sided hydrothorax and ultrafiltration failure (UFF). The late-onset complications include abdominal hernia, scrotal swelling, encapsulated peritonitis and catheter cuff protrusion.[4] This study mainly describes CAPD catheter-related mechanical complications and UFF. Ultrafiltration failure is the most common peritoneal transport abnormality in long-term CAPD.[5-7] We noted UFF in seven (15.5%) CAPD patients. The major causes of UFF are the decrease in osmotic gradient related to increased peritoneal absorption of glucose, a large vascular peritoneal surface area, or decrease in the ultrafiltration coefficient of the peritoneum.[67] The incidence of dialysate leak is 5-20% in CAPD patients, but this percentage probably underestimates early leaks.[8-12] We found leaks in five (exit site two; hydrothorax two; scrotal swelling one) cases. An association has been found between early leaks (≤30 days) and immediate CAPD initiation and midline catheter insertion.[8] Early leakage most often manifests as a peri-catheter leak.[12-15] The exit site leak is associated with two major problems.[16] First, these patients require the discontinuation of CAPD and transfer to hemodialysis while the leak abates. Second, such leaks can lead to some infectious complications, either peritonitis or an exit site infection requiring antibiotic therapy. Rarely, the leak may require the removal of the catheter.[9-11] We noted exit site leak in two (4.4%) patients who required temporary transfer to hemodialysis and CAPD was later resumed in both of them. Late leaks may present more subtly with subcutaneous swelling and edema, weight gain, peripheral or genital swelling (24-56%).[1015-22] Hernias are less common in continous cycling peritoneal dialysis patients, presumably because of the lower inra-abdominal pressure during recumbency. Overall, hernias occur in about 20% of the CAPD population Incisional, umbilical, inguinal and ventral hernias were reported in 30%, 38%, 17% and 15% of patients respectively.[23] We observed incisional hernia in 6.7% of our patients. Genital swelling is a common complication.[101517-21] It is generally caused by patent processus vaginalis (24-56%). Sometimes peritoneal damage leads to edema shortly after the insertion of a CAPD catheter. We came across only one (2.2%) patient with this problem. Surgical repair has been strongly suggested for leakage causing genital swelling. Under the influence of raised intra-abdominal pressure, dialysate can leak to the pleural cavity leading to hydrothorax. The incidence of hydrothorax is unknown. Early-onset hydrothorax mostly occurs within 24h following the initiation of PD session and disappears rapidly on discontinuation of PD. Delayed-onset large hydrothorax is also reported. One study reported a 5% incidence of hydrothorax in the CAPD population.[24] Hydrothorax most commonly affects older females, is rare in children and is predominantly right-sided. Dyspnea is the first clinical clue.[12] Obese patients and those on steroids are more likely to have leaks. Diaphragmatic leaks present with pleural effusion, almost always right-sided in the first few weeks of PD and made worse by use of more hypertonic fluids.[1215] Massive hydrothorax is an indication for temporary transfer to hemodialysis which may permit a spontaneous closure of a diaphragmatic defect. The correction of a pleuroperitoneal communication or diaphragmatic defect can also be achieved by pleurodesis.[24] We observed hydrothorax in two (4.4%) patients and both were treated successfully with pleurodesis. The incidence of malposition varies between 0 and 22%, depending on the center experience, type of catheter, and insertion technique.[1925] Two (4.4%) of our patients developed catheter malposition which required reinsertion . We came across hemoperitoneum in one (2.2%) case. Recurrent hemoperitoneum is a benign complication (3- 4%) of CAPD,[926] with no significant long-term effect on patient survival, predisposition to peritonitis, or UFF. The mean time interval before the first hemoperitoneum episode from commencement of PD was 10.5 months (range 1–37 months, SD 9.7 months).[26] Though we did not come across cases of encapsulating peritoneal sclerosis (EPS), it has been reported in 0.7- 3.3%[27-32] The mean catheter survival in the present study was 31 months. Eleven percent of patients could continue the procedure for up to six years and only 2.2% patients had catheter survival beyond six years. In summary, the overall non-infectious complications of CAPD in our patients were 40%. The functioning catheters were removed in six (13.3%) patients because of Pseudomonal, refractory or fungal peritonitis. The majority of non-infectious complications in these patients were treatable and did not interfere with the catheter survival.
  26 in total

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Authors:  M M Ho-dac-Pannekeet; B Atasever; D G Struijk; R T Krediet
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8.  Trends in CAPD technique failure: Canada, 1981-1997.

Authors:  D E Schaubel; P G Blake; S S Fenton
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9.  Recurrent hemoperitoneum complicating continuous ambulatory peritoneal dialysis.

Authors:  Kai-Chung Tse; Pok-Siu Yip; Man-Fei Lam; Fu-Keung Li; Bo-Ying Choy; Tak-Mao Chan; Kar-Neng Lai
Journal:  Perit Dial Int       Date:  2002 Jul-Aug       Impact factor: 1.756

10.  Abdominal wall and inguinal hernias in continuous ambulatory peritoneal dialysis patients.

Authors:  G M Wetherington; S B Leapman; R J Robison; R S Filo
Journal:  Am J Surg       Date:  1985-09       Impact factor: 2.565

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8.  A Rare Cause of Persistent Blood Loss after Continuous Ambulatory Peritoneal Dialysis Catheter Placement.

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