There is no consensus on the optimal timing of laparoscopic cholecystectomy (LC) after percutaneous transhepatic gallbladder drainage (PTGBD) for patients with acute cholecystitis (AC). We retrospectively evaluated patients who underwent LC after PTGBD between 1 February 2016 and 1 February 2020. We divided patients into three groups according to the interval time between PTGBD and LC as follows: Group I (within 1 week), (Group II, 1 week to 1 month), and Group III (> 1 month) and analyzed patients’ perioperative outcomes. We enrolled 100 patients in this study (Group I, n = 22; Group II, n = 30; Group III, n = 48). We found no significant difference between the groups regarding patients’ baseline characteristics and no significant difference regarding operation time and estimated blood loss (p = 0.69, p = 0.26, respectively). The incidence of conversion to open cholecystectomy was similar in the three groups (p = 0.37), and we found no significant difference regarding postoperative complications (p = 0.987). Group I had shorter total hospital stays and medical costs (p = 0.005, p < 0.001, respectively) vs Group II and Group III. Early LC within 1 week after PTGBD is safe and effective, with comparable intraoperative outcomes, postoperative complications, and conversion rates to open cholecystectomy. Furthermore, early LC could decrease postoperative length of hospital stay and medical costs.
Laparoscopic cholecystectomy (LC) has now replaced open cholecystectomy (OC) as the first choice for cholecystectomy, with the advantages of less pain, shorter hospital stay, and shorter recovery time. However, debate continues regarding whether LC is beneficial for acute cholecystitis (AC)1, 2, even though several studies showed that LC is safe and effective for AC3, 4. For patients with AC, LC is recommended soon after onset if there are no contradictions for the procedure. However, the treatment benefit depends on the AC severity and whether the patient can tolerate emergency surgery. Percutaneous transhepatic gallbladder drainage (PTGBD) was first reported in the early 1980s and was recommended in several guidelines to manage patients with AC with a high risk for LC1, 5. PTGBD is beneficial for improving patients’ conditions to permit delayed LC6; however, the optimal time for LC after PTGBD is controversial, and few studies have provided quality evidence. Several papers have discussed the interval time between LC and PTGBD; however, these studies revealed mixed results regarding perioperative outcomes7,8,9. Sakamoto et al. performed a nationwide database study; however, OC was included in this study7. The Tokyo guidelines updated in 2018 revealed that there was no consensus regarding the optimal timing of LC after PTGBD1, and, related to various factors, it is still very difficult to perform randomized controlled studies. In the current study, we retrospectively investigated the optimal timing of LC after PTGBD.
We divided the 100 patients into three groups: 22 patients in Group I (14 men and 8 women); 30 patients in Group II (16 men and 14 women); and 48 patients in Group III (26 men and 22 women). The mean age of the patients was 65.41 ± 15.43 years (Group I), 68.81 ± 17.36 years (Group II), and 66.71 ± 12.69 years (Group III). Patients’ baseline characteristics appear in Table 1. There were no significant differences in age, sex, American Society of Anesthesiologists score, Charlson comorbidity index, and laboratory data between the three groups.
Outcomes during the interval time
Group II had higher rates of recurrences cholecystitis (p = 0.044, Group I vs Group II) (Table 2). Group II and Group III had higher rates catheter-related complications (p = 0.044, Group I vs Group II, respectively; and p = 0.039, Group I vs Group III, respectively) (Table 2).
We found no significant differences between the three groups for operation time (p = 0.699) and estimated blood loss (p = 0.263) (Table 3). Twelve patients were converted to OC (two in Group I, two in Group II, and eight in Group III). The reasons for conversion to OC were showed in Table 3. There was no significant difference between the groups regarding conversion to OC (p = 0.373) (Table 3).
Postoperative complications occurred in three patients in Group I, four patients in Group II, and seven patients in Group III (p = 0.987) (Table 4). The patient who experienced bile duct injury underwent endoscopy, and bile duct wall injury was identified. This complication resolved with nasal bile duct drainage for 12 days. There were no deaths within 30 days of surgery. The total hospital stay was shorter and total costs were lower in Group I than in Group II (p = 0.005) and between Group I and Group III (p < 0.001). Postoperative hospital stay was similar between the groups (p = 0.744) (Table 4).
Early LC within 1 week after PTGBD is safe and effective, with comparable intraoperative outcomes, postoperative complications, and conversion rates to open cholecystectomy. Furthermore, early LC could decrease postoperative length of hospital stay and medical costs.
Previous studies, including several meta-analyses, have confirmed the safety and efficacy of early LC within 7 days for patients with AC2, 10. However, many patients cannot tolerate surgery, and delayed surgery is necessary to achieve improved patient status. Additionally, gallbladder drainage is recommended for high-surgical-risk patients with AC. Several procedures, including endoscopic and percutaneous techniques, have been reported for gallbladder drainage11, 12, and PTGBD is recommended to resolve acute inflammation in AC. PTGBD can be performed with B-ultrasound guidance and local anesthesia. Although several reports discuss endoscopic gallbladder drainage, PTGBD is a safer substitute for cholecystectomy in high-risk patients, and can be followed by LC when patients’ status improves. However, the optimal timing for LC after PTGBD is unclear.
LC remains a challenge in patients with AC because LC may increase the possibility of conversion to OC. The incidence of conversion to OC varies from 11 to 28%, compared with < 5% in LC for chronic cholecystitis13,14,15. Twelve patients in our study were converted to OC, which is a similar rate to that in previous reports. The main reason for conversion to OC was inflammation and adhesions around the gallbladder. In early AC, inflammation and edema play important roles in contributing to conversion to OC. With a long interval after PTGBD, adhesions around the gallbladder and secondary fibrosis increase the difficulty of LC. The incidence of conversion to OC in our study was relatively low, with no significant difference between the three groups. It is worth noting that the difficulty of LC depends to some extent on the surgeon’s experience. The surgeons in our study perform more than 100 LC procedures per year; therefore, we believe that the decisions to convert to OC were appropriate. Several factors such as BMI and CRP levels are considered risk factors for conversion to OC16, 17; however, BMI and CRP levels in our study did not differ significantly between the groups.
Several studies have discussed the safety of early LC for patients with AC. A meta-analysis of 15 randomized controlled trials showed that early LC was as safe and effective as delayed LC within 7 days10. However, many patients undergoing PTGBD have underlying diseases or gallbladder inflammation that makes their conditions more serious, and the incidence of postoperative complications may increase as a result. Chikamori et al. evaluated 31 patients scheduled for early LC following PTGBD and 12 patients undergoing delayed LC, and confirmed the safety of early LC18. However, other authors showed that early LC was associated with higher postoperative complication rates13. In our study, we found no intergroup differences regarding postoperative complication rates. Our results provide further evidence supporting the safety of early LC following PTGBD.
Another advantage of early LC is that it can resolve cholecystitis earlier, and avoid cholecystitis recurrence and a series of catheter-related complications during the interval period, as well as decreasing the total length of hospitalization and hospitalization costs. We confirmed these results, in our study.
We included patients with Grade III AC severity in our study, and LC was performed when these patients’ status improvement. However, the sample size in this group was small, and whether this affected our results is unknown.
Debate is on-going regarding a benefit related to operation time and estimated blood loss with early LC. Han et al. found that their early group had longer operation times after comparing LC at 72 h vs > 72 h following PTGBD13. Similar results were observed in the study by Choi et al.19. In contrast, including in our study, several studies revealed that early LC was comparable to delayed LC regarding operation time9. However, the definition of early and delayed surgery varied in previous studies.
Estimated blood loss is also considered an indicator of safety in early LC. In our study, the comparison of estimated blood loss revealed no significant difference between the three groups.
Total hospital stay was shorter, and medical costs were lower in our Group I than in Group II and Group III. This may be related to the different time delays to surgery requiring more waiting time and necessary examinations; however, postoperative hospital stay was similar between the three groups, which also supports the safety of early surgery.
Despite our positive findings, as a retrospective study, certain limitations are present such as selection bias. Also, there were 20% patients with Grade I and only 3 patients with Grade III in this cohort. There were many reasons such as anticoagulant drugs or the patients refused to perform cholecystectomy. Additionally, the sample size in this study was small, and no consensus exists regarding the optimal timing of LC following PTGBD. More high quality studies, especially randomized controlled trials, are required.
In conclusion, our study confirmed the safety and efficacy of early LC within 1 week following PTGBD. This approach resulted in shorter hospital stays and lower medical costs with comparable intraoperative and postoperative outcomes vs later LC. Considering the limitations of our study, more high-quality randomized controlled studies are needed to clarify the ideal timing of LC for AC.
This retrospective study was performed in a single center that diagnoses and treats > 600 patients with AC per year and performs > 500 LCs per year. This study was approved by the ethics committees of our hospital.
We retrospectively reviewed the medical records of patients with AC treated between 1 February 2016 and 1 February 2020 (Fig. 1). We recorded patients’ age, sex, body mass index (BMI), comorbidities, and laboratory findings. We also recorded patients’ American Society of Anesthesiologists score and Charlson comorbidity index. The exclusion criteria were (1) patients who did not underwent LC after PTGBD; (2) patients with common bile duct stones; (3) patients with additional pancreatitis or cholangitis; (4) patients were lost to follow during the wait time after PTGBD. We divided the included patients into three groups according to the interval time between PTGBD and LC, as follows: Group I (< 1 week); Group II (1 week to 1 month); and Group III (> 1 month).
The diagnosis and severity of AC was made according to the Tokyo Guidelines20. All patients with AC were given intravenous antibiotherapy based on local bacterial epidemiology and germ sensitivity. At the same time, we provide appropriate liquid supplements. The patient could be discharged when the patient's abdominal pain is relieved, the body temperature is normal, and the WBC and CRP were normal. Patients were followed in the outpatients during the waiting time.
PTGBD was performed by two experienced ultrasonographer physicians who perform > 100 PTGBD procedures per year. PTGBD was performed under local anesthesia in an ultrasonography unit or in the intensive care unit. Using sterile technique with ultrasound guidance, an 8-Fr or 10-Fr self-locking pigtail catheter was placed via a transhepatic route. Post-procedure improvement was defined as resolution of symptoms and abnormal laboratory measurements.
LC was performed by four experienced surgeons who perform > 100 LC procedures per year. Patients were placed in the supine position, and pneumoperitoneum was created with a Veress needle through a 10-mm subumbilical incision. A 30-degree optical instrument was placed through the subumbilical incision, and two additional working instruments were placed with the guidance of the optical instrument (10-mm subxiphoidal and 5-mm right subcostal along the midclavicular line). Gallbladder contents were aspirated in patients with gallbladder distension. Calot’s triangle was dissected first, and we attempted retrograde gallbladder dissection starting at the fundus in patients with severe inflammation and anatomical difficulty dissecting the pericystic space. The gallbladder was extracted through the subumbilical incision. Conversion to OC was performed, if necessary, as described previously. A right subcostal is made. It is important to obtain good visualization of the gallbladder, Triangle of Calot, and bile ducts. After clarifying the cystic duct, common hepatic duct, and common bile duct, the cystic duct and cystic artery are disconnected. The gallbladder then can be removed from the gallbladder bed of the liver using either electrocautery.
The outcome measures constituted outcomes during the interval time, intraoperative outcomes, and postoperative outcomes. Outcomes during the interval time were recurrent cholecystitis and catheter-related complications. Intraoperative outcomes were operation time, estimated blood loss, and conversion to OC, and postoperative outcomes were postoperative complications, total length of hospital stay, postoperative hospital stay, and medical costs. We scheduled telephone interviews or outpatient visits following PTGBD and LC.
The data were analyzed using SPSS ver. 17.0 (SPSS Inc, Chicago, IL, USA). Descriptive statistics were calculated for demographic and clinical variables and were reported as means ± standard error mean (SEM). Comparisons between groups for categorical variables were assessed using the chi-square test. The Student t test was used to compare two groups for normally distributed quantitative variables otherwise Mann–Whitney test was used. Bonferroni test was used as a post hoc test for intergroup analysis. P < 0.05 was considered statistically significant. All authors had access to the study data and reviewed and approved the final article.
The Affiliated Dongyang Hospital of Wenzhou Medical University Institutional Review Board approved the protocol (No. 2020-YX-038) and all participants were provided written informed consent.
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We thank Jane Charbonneau, DVM, from Liwen Bianji, Edanz Group China (www.liwenbianji.cn/ac), for editing the English text of a draft of this manuscript.
The author(s) received no financial support for the research, authorship, and/or publication of this article.
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Lyu, Y., Li, T., Wang, B. et al. Early laparoscopic cholecystectomy after percutaneous transhepatic gallbladder drainage for acute cholecystitis. Sci Rep 11, 2516 (2021). https://doi.org/10.1038/s41598-021-82089-4
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