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DOI:10.2214/AJR.04.1948
AJR 2006; 187:1591-1596
© American Roentgen Ray Society


Original Research

Imaging-Guided Catheter Drainage of Abdominal Collections with Fistulous Pancreaticobiliary Communication

Ajay K. Singh1,2, Debra A. Gervais2, Lea M. Alhilali2, Peter F. Hahn2 and Peter R. Mueller2

1 Division of Abdominal Imaging, University of Massachusetts Memorial Medical Center, 55 Lake Avenue North, Worcester, MA 01655.
2 Division of Abdominal Imaging and Interventional Radiology, Massachusetts General Hospital, Boston, MA 02114.

Received December 22, 2004; accepted after revision November 17, 2005.

 
Address correspondence to A. K. Singh.


Abstract
Top
Abstract
Introduction
Materials and Methods
Results
Discussion
References
 
OBJECTIVE. Our aim was to study the success of percutaneous imaging-guided catheter drainage of abdominal collections with documented fistulous pancreaticobiliary communication.

MATERIALS AND METHODS. Fifty-seven patients (age range, 23-88 years) with abdominal collections who underwent imaging-guided catheter drainage were included in this retrospective study. These collections showed communication with either the pancreatic duct (n = 15) or the biliary duct (n = 42) on imaging. The imaging guidance included CT (n = 40), sonography (n = 17), and fluoroscopy (n = 4), either alone or in combination. The success of catheter drainage was described as resolution of the collection on follow-up imaging and clinical improvement. Other treatments directed toward management of leaks or collections were also recorded.

RESULTS. The success rates of catheter drainage for abdominal collections with biliary and pancreatic ductal communication were 93% (39/42) and 67% (10/15), respectively. The difference was statistically significant (p = 0.01). The three complications seen in this study were pneumothorax in one patient, bowel perforation in one, and death in one. The drainage catheter was upsized in five patients and an additional catheter was needed in nine patients.

CONCLUSION. Imaging-guided catheter drainage is a clinically useful option for drainage of abdominal collections that have pancreaticobiliary communications. The success rate is significantly better for collections with biliary communication than for those with pancreatic communication.

Keywords: biliary system • catheters • drainage • gallbladder • interventional radiology


Introduction
Top
Abstract
Introduction
Materials and Methods
Results
Discussion
References
 
The treatment of abdominal collections with fistulous pancreatic or biliary duct communication is a vexing problem in interventional radiology, one that is often seen after pancreaticobiliary surgeries and pancreatitis. The successful treatment of these collections involves drainage of the fluid collection and healing of the fistula. The multitechnique treatment approach for these collections includes imaging-guided percutaneous catheter drainage, endoscopic interventions, percutaneous transhepatic biliary drainage, surgical drainage, and medical management [1-5].

Although a significant proportion of postpancreatitis collections resolve spontaneously, they may persist to form a pancreatic pseudocyst or they may be complicated by infection, necessitating drainage. Although surgery has been the treatment of choice in the past, it is now a second-line treatment [1]. Similarly, bilomas are also usually managed without surgery, either by an endoscopic biliary stent, nasobiliary drainage, percutaneous biloma aspiration, or catheter drainage [4].

Extravasated bile and exocrine pancreatic secretions irritate and inflame mesenchymal tissues. Consequently, extraluminal collections communicating with the biliary tree or the pancreatic duct offer unique challenges for percutaneous catheter drainage. In this study we determined the efficacy of percutaneous imaging-guided catheter drainage with or without adjunctive endoscopic interventions for abdominal collections that had a documented communication with either the biliary ducts or the pancreatic duct on ERCP, cholescintigraphy, or contrast injection studies.


Materials and Methods
Top
Abstract
Introduction
Materials and Methods
Results
Discussion
References
 
Patient Demographics
We searched the medical data for patients who underwent imaging-guided catheter drainage between October 1997 and October 2003, for suspected biliary or pancreatic duct communication. The search yielded 57 patients (age range, 23-88 years; average age, 55.6 years) with abdominal collections and confirmed pancreatic or biliary communication. These collections showed communication with either the pancreatic duct (n = 15) or the biliary duct (n = 42) on ERCP, catheter injection, or cholescintigraphy.


Figure 1
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Fig. 1A Posttraumatic biloma with cystic duct communication in 28-year-old man. Contrast-enhanced CT scan shows large subhepatic biloma (arrows) extending into anterior pararenal space.

 


Figure 2
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Fig. 1B Posttraumatic biloma with cystic duct communication in 28-year-old man. ERCP image shows leakage (arrows) of contrast material from cystic duct into subhepatic biloma.

 


Figure 3
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Fig. 1C Posttraumatic biloma with cystic duct communication in 28-year-old man. Postprocedure CT scan shows drainage catheter and decrease in size of collection (arrow).

 


Figure 4
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Fig. 1D Posttraumatic biloma with cystic duct communication in 28-year-old man. Follow-up CT scan shows successful resolution of infrahepatic biloma.

 
Abscess Drainage
The imaging-guided procedures were performed using CT guidance in 40 patients, sonographic guidance in 17 patients, and fluoroscopic guidance in four patients. Of the 17 patients in whom sonography was used, fluoroscopy was also used in four patients. The CT-guided procedures were performed on a LightSpeed helical CT scanner (GE Healthcare) and involved the use of the trocar technique (Figs. 1A, 1B, 1C, 1D, 2A, 2B, 2C, 3A, 3B, 3C, and 3D). Sonographic guidance was used whenever the collection could be well seen on sonography and a safe pathway could be documented for passage of the needle or catheter.


Figure 5
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Fig. 2A Pancreatic pseudocyst with pancreatic ductal communication in 27-year-old woman. Unenhanced CT scan shows lesser sac pseudocyst (arrows) and guiding needle tip in center of collection.

 

Figure 6
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Fig. 2B Pancreatic pseudocyst with pancreatic ductal communication in 27-year-old woman. Pseudocyst catheter injection study shows communication of lesser sac cavity with main pancreatic duct (arrows).

 

Figure 7
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Fig. 2C Pancreatic pseudocyst with pancreatic ductal communication in 27-year-old woman. Follow-up CT scan shows complete resolution of pseudocyst.

 

Figure 8
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Fig. 3A Biliary ascites with liver laceration in 49-year-old man. Contrast-enhanced CT scan shows right hepatic laceration (arrows) and biliary ascites in upper abdomen.

 

Figure 9
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Fig. 3B Biliary ascites with liver laceration in 49-year-old man. ERCP image shows extravasation (arrow) from right intrahepatic duct (arrowhead) at site of liver laceration.

 

Figure 10
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Fig. 3C Biliary ascites with liver laceration in 49-year-old man. Postprocedure CT scan with patient in oblique supine position shows catheter tip in right subphrenic space and decrease in fluid volume.

 

Figure 11
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Fig. 3D Biliary ascites with liver laceration in 49-year-old man. Follow-up CT scan shows complete resolution of biliary ascites and decrease in size of liver laceration.

 
A 19-gauge guiding needle was initially inserted into the collection, after which a Dawson-Mueller percutaneous drainage catheter was placed tandem and parallel to the guiding needle using the trocar technique. After the placement of the drainage catheter in the collection, the fluid was aspirated into a drainage bag and a sample was sent for culture and gram staining. Postprocedure catheter management involved flushing the catheter with 10 mL of normal saline every 8 hours. The patients admitted to the hospital were seen every day on morning rounds by a physician from the interventional radiology service. The patients were imaged using CT whenever their clinical status did not improve after the drainage procedure or when the catheter was not draining adequately.

Additional catheters were used when the collections were either multiloculated or multiseptated or the initial catheter did not entirely drain the primary collection. Catheter upsizing was performed when the initial catheter was well positioned in the collection and still had low drainage rates of less than 10 mL per day.

Fifty patients had follow-up CT after the percutaneous procedure. One patient had follow-up ERCP that revealed healing of the pancreatic duct communication. Four patients underwent follow-up catheter injection studies, and one had a follow-up sonography evaluation. One patient had post-hepatectomy biloma communicating with the right hepatic duct and was clinically followed until the symptoms resolved.

Sixty-seven catheters were initially placed in 57 patients. All 67 catheters placements were technically successful. These were 7-French (n = 1), 8.5-French (n = 15), 10-French (n = 26), 12-French (n = 18), and 14-French (n = 7) catheters.

Data Collection and Analysis
Success of catheter drainage was described as resolution of the collection on follow-up imaging and clinical improvement. Resorting to surgery after an adequate trial of percutaneous catheter drainage was considered a failure of percutaneous treatment. Surgery was performed if the symptomatic fluid collection did not improve with the catheter trial over at least 1 week, or when the patient's clinical condition worsened despite optimal percutaneous management.

The fluid collections were evaluated for collection size, location, cause, culture results, and site of communication with the pancreatic or biliary ducts. Drainage success, duration of hospital stay, and the time between catheter placement and discharge from the hospital were compared. Complications related to imaging-guided drainage of the biliary and pancreatic collections were compared.

The chi-square test was used to compare the differences in the success rate, duration of hospital stay, culture positivity, and duration between catheter placement and discharge from the hospital. A p value of less than 0.05 was considered significant.


Results
Top
Abstract
Introduction
Materials and Methods
Results
Discussion
References
 
Success Rate
This study included 42 collections with documented biliary communication and 15 collections with documented pancreatic duct communication. The clinical success rates of catheter drainage were 93% (39/42) for abdominal collections with biliary communication and 67% (10/15) for abdominal collections with pancreatic duct communication. The difference was statistically significant (p = 0.01). The success rates for culture-positive biliary and pancreatic collections were 95.5% (21/22) and 66.7% (6/9), respectively. The difference was statistically significant (p = 0.02).

Causes
The cause of pancreatic collection in the five patients in whom catheter drainage was not successful included a postsurgical collection in three, a postpancreatitis collection in one, and a posttraumatic collection in one. The three patients in whom biloma catheter drainage failed to resolve the collection had postsurgical collections after partial hepatectomy (n = 2) and after Whipple surgery (n = 1).

The most common cause of the fluid collection in the pancreatic drainage group was acute pancreatitis, which was seen in eight patients. The cause of the fluid collection in 15 patients was complicated pancreatitis in six, pancreatitis followed by trauma in two, and surgery (two Whipple surgery, two distal pancreatectomy, two necrosectomy, and one splenectomy) in seven patients.

In the biliary drainage group, the most common pathology of the fluid collection was recent cholecystectomy in 16, blunt trauma in six, pancreatitis in one, liver transplant in three, hepatic resection in seven, abdominal aortic aneurysm repair in one, hepaticojejunostomy in one, infected ventriculoperitoneal shunt in one, Klatskin tumor in one, Whipple surgery in three, and unknown cause in two patients.

Culture Results
The aspirated fluid cultures were positive in 52% (22/42) of patients in the biliary drainage group and 60% (9/15) of patients in the pancreatic drainage group. The difference in the frequency of positive cultures was not statistically significant (p = 0.6). Eighteen (14 biliary and four pancreatic) of the 57 patients in this study showed multiple bacteria on the fluid culture.

In the biliary drainage group, the most common bacteria cultured included Enterococcus species in nine patients, coagulase-negative Staphylococcus species in four, Enterobacter organisms in three, and Escherichia organisms in five patients. In the pancreatic drainage group, the most common bacteria cultured included Enterococcus species in four patients, Bacteroides in one, Escherichia in one, Klebsiella in one, and Staphylococcus in one.

The patients who underwent biliary drainage had a catheter drainage success rate of 95% (21/22) in those with culture-positive collections and 90% (18/20) in those with culture-negative collections (p = 0.5). The success rates in the pancreatic drainage group were both 67% (6/9 and 4/6, p = 1) for culture-positive and culture-negative collections.

Pancreatic and Biliary Communication Sites
The site of communication of the biliary collection with the bile duct was in the cystic duct in 10 patients (23.8%), the common bile duct in 10 (23.8%), the right-sided intrahepatic duct in four (9.5%), the left-sided intrahepatic duct in four (9.5%), and the right- and left-sided intrahepatic ducts in three patients (7.1%). In the remaining 11 patients, the site of communication of the collection was the Luscka's duct, a choledochoenteric anastomosis site, the common hepatic duct, or the gallbladder. In the pancreatic collection group, the site of communication was the main duct in 14 patients and a side branch in one.

The three failures in the biliary drainage group and the five failures in the pancreatic drainage group occurred at the site of communication with the common bile duct and pancreatic duct, respectively. The site of communication of the collection with the pancreatic duct did not significantly correlate with successful outcome of the procedure (p = 0.5). The presence of common bile duct communication was a predictor of poor outcome of catheter drainage (p = 0.001).

Additional Interventions
Additional catheters for complete drainage of the collection were required in nine (16%) of the 57 patients. In addition, five (9%) of the 57 patients required catheter upsizing.

Six additional catheters were needed to drain the collection in three patients in the pancreatic drainage group, all of which were successfully drained. In two patients, the catheters were upsized because of incomplete drainage of the collection. The collections in all five of these patients were successfully managed by catheter drainage. The difference in the success between patients in whom additional catheter drainage or catheter upsizing was performed and patients in whom no additional interventions were performed was not statistically significant (p = 0.4).

In the biliary drainage group, 16 additional catheters were needed in six patients, all of whose collections were successfully managed by catheter drainage. Catheter upsizing was needed in three patients in this group and resulted in complete drainage of the collections. In one of the three patients in the biliary drainage group in whom catheter drainage failed, multiple additional catheters were unsuccessfully used.

Complications
The two major complications seen in this study were both in the biliary drainage group; one was a pneumothorax that required catheter drainage, and the other was a delayed duodenal perforation by a catheter in a patient with a biliary-enteric anastomosis leak. In the latter, the bowel perforation was caused by one of the two catheters and was successfully managed without surgery. Two deaths occurred within 30 days among 57 patients in this study, one each in the biliary drainage and pancreatic drainage groups. The single death in the pancreatic drainage group occurred in a patient with pancreatitis in whom both surgical necrosectomy and catheter drainage had failed. The death in the biliary drainage group was caused by asystolic cardiac arrest in a patient who had undergone recent Whipple surgery and was unrelated to the biloma or the drainage procedure.

Duration of Hospital Stay
The durations of hospital stay and of percutaneous catheter drainage were 1-88 and 1-53 days, respectively. Table 1 indicates the duration of hospital stay and percutaneous catheter drainage in the biliary and pancreatic drainage groups. The average hospital stay in the biliary drainage group was 20.2 days and in the pancreatic drainage group was 25.2 days. The time between imaging-guided catheter drainage and discharge from the hospital was 15.1 days in the biliary drainage group and 19.5 days in the pancreatic drainage group. These differences were not statistically significant (p = 0.3 and 0.4).


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TABLE 1: Duration of Hospital Stay and Percutaneous Catheter Drainage in the Biliary and Pancreatic Drainage Groups

 

Concurrent and Preceding Interventions
In the biliary drainage group, 60% (25/42) of patients had a preceding or concurrent endoscopic intervention. These included a biliary stent and nasobiliary drainage alone in 21 and three patients, respectively. In addition, one patient had both a biliary stent and nasobiliary drainage, and six of the 25 patients had percutaneous transhepatic biliary drainage. In the pancreatic drainage group, a stent was used in five patients and sphincterotomy was performed in one.

Percutaneous catheter drainage was successful in 24 of the 25 patients in the biliary drainage group and in five of the six patients in the pancreatic drainage group who had an additional endoscopic intervention. The success rates in patients with or without additional interventions were not statistically different in the biliary (p = 0.4) or the pancreatic (p = 0.4) drainage group.


Discussion
Top
Abstract
Introduction
Materials and Methods
Results
Discussion
References
 
The difficulty in draining abdominal collections that have fistulous communication is often related to the persistence of the fistula, even with adequate percutaneous drainage. The treatment of these collections includes percutaneous catheter drainage and reduction of the pressure head in the pancreaticobiliary ducts using stents, nasobiliary drainage, or transhepatic biliary drainage. This study determines the success rates of percutaneous catheter drainage in the treatment of these collections.

Over the past two decades, the treatment of abdominal collections has changed from surgical to nonsurgical management using imaging-guided catheter drainage, stent placement, nasobiliary drainage, and antibiotic therapy. Imaging-guided catheter drainage of abdominal collections is associated with high cure rates [3, 4, 6].

Biliary ascites or localized bilomas are most often seen after biliary surgery and need nonsurgical management using imaging-guided catheter drainage or endoscopic procedures [7-9]. When managed surgically, bile duct injury with immediate repair, early reoperation, and delayed repair can be associated with serious complications in up to 31.8% patients [10]. In the study by Chen et al. [11], the success rate of nonsurgical modes of treatment of a postoperative bile leak was 82.5%. The mode of treatment in that study of 57 patients included percutaneous drainage, transhepatic biliary drainage, paracentesis, endoscopic management, and so forth [11]. In our study, we have shown the efficacy of percutaneous catheter drainage in treating patients with biloma who have a documented biliary collection. The procedure was successful in all 16 patients (100%) with a postcholecystectomy biloma and in 23 (88.5%) of the 26 patients with biloma from other causes. The most common site of postcholecystectomy leakage of bile was from the cystic duct stump; these leaks accounted for 50% of the cases.

Abdominal collections from a pancreatic cause are most often related to acute or chronic pancreatitis, as was also seen in this study. Acute pancreatitis and chronic pancreatitis result in pseudocyst formation in as many as 5% and 40% of patients, respectively [12]. If the pseudocysts are not infected or symptomatic because of their size, they can be closely observed. If pancreatic ductal communication is present, a pseudocyst can be managed initially with a transpapillary approach. Six of 15 patients in this group underwent an endoscopic intervention before percutaneous catheter drainage [13, 14]. Although in our study, the success rate of pancreatic drainage was lower than that of biliary drainage, the high rate of infection in pancreatic collections justifies the use of catheter drainage in our study.

In a study by Freeny et al. [15], the durations of catheter drainage for collections without and with pancreatic duct fistulas were 29 days and 96 days, respectively [15]. In general, the duration of catheter drainage in our study was shorter than those usually reported in the literature. This can be partly explained by the frequent use of a second catheter and by repositioning and upsizing of the catheters to maximize drainage. The aggressive management of catheters is part of our protocol for patient management, in which every patient is seen daily in the morning by an interventional radiologist, and problems of catheter nondrainage are urgently addressed.

Although the concurrent or preceding use of ERCP interventions, as seen in this study, might have an added or synergistic effect on the success of pancreatic or biliary collections, our study did not show any statistically significant difference between patients who received percutaneous drainage alone and those who received both percutaneous catheter drainage and adjunctive endoscopic intervention. The high rate of adjunctive endoscopic procedures in this study is because the diagnosis of pancreaticobiliary fistula is most confidently made on ERCP and the endoscopist often has the first opportunity to place a stent or nasobiliary drainage catheter. By decreasing the pressure head or removing the occlusion in a duct, endoscopic interventions may be helpful in decreasing fluid leaks from the biliary or pancreatic ducts and may promote healing, but successful drainage was achieved in some patients without an adjunctive endoscopic procedure. The retrospective nature of our study does not allow further conclusions regarding which patients are most likely to benefit from a combined endoscopic and percutaneous approach as opposed to percutaneous management alone.

We found a high incidence (52%) of infection in the biliary and pancreatic fluid collections. Bile, which is used in a number of culture media, inhibits the growth of many gram-positive and anaerobic microorganisms and promotes the growth of intestinal bacteria. Therefore, it is logical to see enteric flora as the predominant bacteria on culture.

The presence of infection in abdominal collections is a definite indication for a drainage procedure, because biliary stents, nasobiliary drainage, and sphincterotomy cannot arrest the disease process and the abscess must be cleared for a cure. The successful result of percutaneous catheter drainage of infected pancreatic fluid collections has ranged from 65% to 96% in the literature [15, 16]. Our results of pancreatic fluid drainage are similar to those reported by Freeny et al. [15], who showed a 65% rate of success for infected pancreatic fluid collections.

Imaging-guided catheter drainage is a clinically useful treatment option for the drainage of abdominal collections with pancreaticobiliary communication. It plays a major role in the management of postcholecystectomy bilomas. The success rate of imaging-guided catheter drainage is significantly better for collections with biliary communication than for those with pancreatic communication. However, for either condition, the success rate is sufficiently high to justify the use of percutaneous catheter drainage as the technique of choice in collections with pancreatic and biliary communication.


References
Top
Abstract
Introduction
Materials and Methods
Results
Discussion
References
 

  1. Cullen JJ, Sarr MG, Ilstrup DM. Pancreatic anastomotic leak after pancreaticoduodenectomy: incidence, significance, and management. Am J Surg 1994;168 : 295-298[CrossRef][Medline]
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  8. Ryan ME, Geenen JE, Lehman GA, et al. Endoscopic intervention for biliary leaks after laparoscopic cholecystectomy: a multicenter review. Gastrointest Endosc 1998;47 : 261-266[CrossRef][Medline]
  9. De Palma GD, Galloro G, Iuliano G, Puzziello A, Persico F, Masone S. Leaks from laparoscopic cholecystectomy. Hepatogastroenterology 2002;49 : 924-925[Medline]
  10. Hillis TM, Westbrook KC, Caldwell FT, Read RC. Surgical injury of common bile duct. Am J Surg 1977;134 : 710-716[CrossRef]
  11. Chen XP, Peng SY, Peng CH, et al. A ten-year study on non-surgical treatment of postoperative bile leakage. World J Gastroenterol 2002; 8:937 -942[Medline]
  12. Byrne MF, Mitchell RM, Baillie J. Pancreatic pseudocysts. Curr Treat Options Gastroenterol 2002;5 : 331-338[Medline]
  13. Baril NB, Ralls PW, Wren SM, et al. Does an infected peripancreatic fluid collection or abscess mandate operation? Ann Surg 2000; 23:361 -367
  14. Pitchumoni CS, Agarwal N. Pancreatic pseudocysts: when and how should drainage be performed? Gastroenterol Clin North Am 1999; 28:615 -639[CrossRef][Medline]
  15. Freeny PC, Lewis GP, Traverso LW, Ryan JA. Infected pancreatic fluid collections: percutaneous catheter drainage. Radiology 1988;167 : 435-441[Abstract/Free Full Text]
  16. Cantasdemir M, Kara B, Kantarci F, Mihmanli I, Numan F, Erguney S. Percutaneous drainage for treatment of infected pancreatic pseudocysts. South Med J 2003;96 : 136-140[Medline]

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