Abstract
Purpose
This study aimed to investigate patient-related factors predicting the selection of rectal cancer patients to Hartmann’s procedure as well as to investigate how often, and on what grounds, anterior resection is intraoperatively changed to Hartmann’s procedure.
Methods
Prospectively collected data from the Swedish Colorectal Cancer Registry regarding patients with rectal cancer operated upon from January 1 2007 to June 30 2017 in the county of Skåne were retrospectively reviewed. Data were expanded with further details from medical charts. A univariable analysis was performed to investigate variables associated with unplanned HP and significant variables included in a multivariable logistic regression analysis.
Results
Altogether, 1141 patients who underwent Hartmann’s procedure (275 patients, 24%), anterior resection (491 patients, 43%), or abdominoperineal resection (375 patients, 33%) were included. Patients undergoing Hartmann’s procedure were significantly older and had more frequently comorbidity. The decision to perform Hartmann’s procedure was made preoperatively in 209 (76%) patients, most commonly because of a comorbidity (27%) or oncological reasons (25%). Patient preference was noted in 8% of cases. In 64 cases (23%), the decision was made intraoperatively, most often due to anastomotic difficulties (60%) and oncological reasons (22%). Anastomotic difficulties were most often reported due to technical difficulties, a low tumor or neoadjuvant radiotherapy. Male gender was a significant risk factor for undergoing unplanned Hartmann’s procedure.
Conclusions
The decision to perform Hartmann’s procedure was frequently made intraoperatively. Hartmann’s procedure should be considered and discussed preoperatively in old and frail patients, especially in the presence of mid-rectal cancer and/or male gender, since these factors increase the risk of intraoperative anastomotic difficulties.
Similar content being viewed by others
Introduction
The standard treatment for rectal cancer in the middle and upper rectum is anterior resection (AR) with total mesorectal excision (TME) [1]. In patients with cancer in the lowest part of the rectum, i.e., ≤ 5 cm from the anal verge, the national Swedish treatment guidelines recommend abdominoperineal resection (APR) to achieve adequate tumor margins [2]. The Hartmann procedure (HP) was originally described by Henri Albert Hartmann in 1921 for the management of rectal cancer [3]. HP is today recommended for patients with a tumor in the middle and upper rectum where the restoration of bowel continuity is associated with an unacceptably high risk of complications due to anastomotic leak (AL) and in patients with a history of incontinence. Other indications for HP could be major adverse intraoperative events [4, 5].
The safety and feasibility of HP was questioned in the early 2000s due to reports on the high risk of pelvic sepsis [6,7,8,9]. This caused surgeons to advocate APR to avoid pelvic sepsis related to the rectal remnant, even in tumors above 5 cm from the anal verge. However, recent publications have described lower rates of septic complications suggesting that HP is a reliable alternative [10,11,12].
The usage of HP varies significantly between countries, reflecting uncertainties regarding indications. The role of HP in rectal cancer treatment is still debated [4, 5]. Furthermore, few studies have reported on the number of patients that are supposed to undergo AR but are changed to HP intraoperatively [13, 14].
The aim of this study was to investigate patient-related factors predicting the selection of rectal cancer patients to HP as well as to investigate how often, and on what grounds, AR is changed to HP intraoperatively.
Material and methods
The Swedish ColoRectal Cancer Registry
Since 1996, all patients undergoing resection of rectal cancer in Sweden are registered in the Swedish ColoRectal Cancer Registry (SCRCR). Data on patient and tumor characteristics, diagnostics, treatment, and outcome are registered. The SCRCR has previously been described in detail [15, 16]. The registry has a coverage of > 99% of patients with rectal cancer in Sweden and the internal data validity is high.
The study was approved by the Ethical Review Board of Lund, Sweden (Dnr 2019–01262) and followed the declaration of Helsinki guidelines.
The study cohort
This was a retrospective study of prospectively collected data from patients undergoing HP, APR, or AR for rectal cancer using prospectively registered data from the SCRCR in the southern part of Sweden from January 1 2007 through June 30 2017.
According to the Swedish national guidelines, the recommended procedure for tumors ≤ 5 cm is APR. All patients with a tumor < 5 cm were excluded from the analysis, but as a considerable portion of patients with a tumor at 5 cm might undergo HP or AR, we included these patients in the study. Furthermore, patients not subjected to resection surgery were excluded. As the group undergoing AR was larger than the HP and APR groups, AR patients were randomly selected on the basis of year of operation 2AR:1HP.
Data from the SCRCR were expanded with further information from medical charts regarding cardiovascular disease, diabetes, pulmonary disease, immunosuppression, and smoking. Preoperative blood tests including albumin, CEA, and creatinine obtained during outpatient visits registered up to 1 month prior to surgery were registered. The preoperative reasons for choosing HP as documented from the outpatient notes and multidisciplinary team conference notes were registered.
If the planned operation according to the outpatient notes was AR and the surgeon decided intraoperatively to perform HP, this was registered as an intraoperative decision. The reasons for the intraoperative changes were collected from the operation notes.
Definitions
Rectal cancer was defined as adenocarcinoma ≤ 15 cm of the anal verge.
HP was defined as removal of the rectum leaving an anorectal stump.
Emergency rectal resection was defined as a procedure performed during an emergency setting often due to bowel perforation, bleeding, or bowel obstruction.
A colorectal surgeon was defined as a surgeon specialized in colorectal surgery and trained in the TME technique.
Statistical analysis
Continuous variables are presented as the median with an interquartile range, and categorical data are described using frequencies of counts with associated percentages. Patients were divided into groups based on the operation performed, i.e., HP, AR, or APR. A Shapiro-Wilks test was performed to assess normality. A one-way ANOVA test was used to compare means between the groups in terms of continuous variables and the chi-square test for categorical variables. A Dunnett’s post hoc test was used to identify the means that differ from the reference group (HP).
A separate analysis was performed comparing patients undergoing HP after an intraoperative decision to those in whom the procedure was planned. Nominal variables were compared between groups using Fisher’s exact test and continuous variables were analyzed using a Mann–Whitney test. A univariable analysis was performed to investigate variables associated with unplanned HP and significant variables included in a multivariable logistic regression analysis.
The R version 3.6.1 was used for the analysis, and a p < 0.05 was considered significant.
Results
Study cohort
During the period, a total of 2199 patients with rectal cancer were registered in the SCRCR in the southern part of Sweden. Altogether, 421 patients with a tumor height < 5 cm were excluded as were 265 patients undergoing endoscopic or local excision. After random selection, 534 AR patients were included and the remaining 309 were excluded. This resulted in 1204 patients who were accessible for inclusion (Fig. 1).
A review of the medical records revealed that 19 patients registered as AR and two patients registered as APR had undergone HP. Another 63 patients were excluded due to missing medical records.
During the study period, HP was performed in 275 patients (19%) with AR performed in 800 patients (55%) and 375 (26%) undergoing APR. As 309 AR patients were randomly excluded the study cohort consisted of 1141 patients: 275 (24%) HP, 491 (43%) AR, and 375 (33%) APR (Fig. 1).
Demographics of the study cohort
Demographics of the study cohort are presented in Table 1. When comparing the HP group to AR and APR patients, patients undergoing HP were significantly older (p < 0.001). There was a significant gender difference with 59% males in the HP and AR groups compared to 68% in the APR group (p = 0.02). HP patients more frequently reported a history of cardiovascular disease and diabetes, and had a higher ASA score compared to the AR and APR groups (p < 0.001). The preoperative albumin was lower in the HP group compared to the AR group (p < 0.001) but not compared to the APR group (p = 0.14). The median tumor height was lower in the APR group, 7 cm compared with 10 cm in the HP group and AR group (p < 0.001) and 222 patients with a tumor height 6–10 cm underwent APR. Neoadjuvant radiotherapy (RT) was used less frequently in the HP group.
Emergency surgery was performed in 16 (1.4%) patients in the study; 12 patients underwent HP. Of the patients undergoing AR, 428 (87%) received a diverting stoma.
Preoperative reasons for performing HP
The decision to perform HP was made preoperatively in 209 patients (76%). Reasons are presented in Table 2. The most common cause for performing HP was comorbidity in 57 cases (27%). In 53 cases (25%), the reason was oncological, most often because of planned adjuvant treatment or a locally advanced tumor requiring multi-visceral surgery. In 24 cases (11%), high age was the rationale for performing HP, while patient preference was stated in 17 cases (8%). Incontinence was the sole reason for choosing HP in five patients (2%).
Intraoperative decision to perform HP
Altogether, 64 patients (23%) were planned for AR but the decision was changed to HP during the operation. In 38 patients (60%), anastomotic difficulties resulted in an unsafe anastomosis. The surgeon reported technical difficulties such as stapling device malfunction or too short an anastomotic distance from the anal verge. In eight cases, the tissue damage caused by RT resulted in an unsafe anastomosis, while in 14 patients (22%), the reason was oncological factors: e.g., a more advanced tumor than expected caused an intraoperative change of plan. In five cases (8%), intraoperative bowel perforation occurred, resulting in HP. The reasons for intraoperative change are presented in Table 3. Two patients (1%) were planned to undergo APR but were intraoperatively changed to HP because of a tumor further from the anal verge than previously assessed.
A comparison of patients who were supposed to undergo AR but had this changed to HP intraoperatively and those undergoing preoperatively planned HP is presented in Table 4. Patients in the unplanned HP group were younger than those undergoing planned HP (71 years compared with 77 years; p = 0.002). Moreover, male gender (73% vs 55%; p = 0.01), lower ASA (p = 0.02), and higher rate of neoadjuvant RT (63% vs 46% p = 0.02) were more often observed in the unplanned vs the planned HP group.
Results from the multivariable analysis showed that male gender increased the likelihood of intraoperative changes: OR 2.45 (CI:1.31–4.79) as well as ASA score I and II: OR 2.07 (CI:1.10–4.01). Neoadjuvant RT was not a significant risk factor after correcting for age, gender, and ASA score (Table 5).
Discussion
The current article investigates the indications for performing HP in a large cohort of rectal cancer patients in whom it theoretically had been technically possible to perform AR. Reasons behind the preoperative decision to perform HP are in line with Swedish guidelines but an intraoperative decision to change from AR to HP was made in 23% of cases, most often due to anastomotic difficulties.
A comparison of patients undergoing HP with patients undergoing AR and APR reveals that the reasons for performing HP are multifactorial, including higher age and ASA score, lower preoperative albumin, and more frequently a history of cardiovascular disease and diabetes.
In the present study, comorbidity is the leading cause for choosing HP preoperatively (27%). Oncological reasons or the high risk of AL are stated in 25% of patients, such as planned adjuvant treatment or locally advanced tumors. High age is stated as the reason in 11%, which is consistent with previous studies. A recent meta-analysis comparing HP to APR including intersphincteric APR (iAPR) found that the main indications for nonrestorative bowel surgery were comorbidities, advanced age, and tumor stage. HP was more often used in older and frailer patients who were less fit for surgery, complicating comparisons [9]. Studies comparing HP with iAPR also conclude that comorbidities are the most common reason for nonrestorative bowel surgery as well as the high risk of AL [14, 17].
Poor sphincter function is often mentioned as an indication for performing HP [4, 18, 19]. Interestingly, our study revealed that incontinence alone is stated as the main reason for HP in only 2% of cases, with another 5% undergoing HP because of a combination of comorbidities and incontinence. The reasons for this are not clear, a possible explanation may be incomplete medical charts. However, since patient preference was the reason for performing HP in 8% of cases, this suggests that surgeons discuss treatment options with patients.
It is important for the patient and surgeon to decide upon a surgical strategy preoperatively to prevent intraoperative alterations. Very few studies discuss the intraoperative decision to change from AR to HP. We find that the most common reasons for choosing HP intraoperatively are difficulties related to the anastomosis. Moreover, numerically conversions were more frequently carried out in the unplanned HP group. Not surprisingly, 73% of the patients undergoing unplanned HP are male, who have a narrower pelvis, making stapling more challenging [20]. Furthermore, the multivariable analysis showed that males had a higher risk of undergoing unplanned HP compared to females.
Altogether 222 patients with a tumor 6–10 cm from the anal verge underwent APR, and this likely reflects the fact that many surgeons refrain from using HP in cases where AR is considered unsafe as previous studies have reported higher risk of complications following HP [6, 7].
The fact that patients undergoing unplanned HP were younger and had a lower ASA score probably reflects that surgeons are much more likely to choose AR in this patient group and unforeseen events cause the change of plan.
The risk of AL is increased in tumors close to the anal verge and the functional results of a low anastomosis are poorer [20, 21]. Surgeons performed HP instead of AR in 12 cases because the anastomosis was deemed too low. The univariable analysis showed no significant difference in tumor height in the unplanned vs planned group. This may be due to small sample size or that patients with tumor 6–10 cm from the anal verge were grouped together. Another important aspect is that decision-making is entirely at the discretion of the responsible surgeon and what constitutes a too low anastomosis is difficult to define.
Another major reason for not performing AR as planned is an intra-operative finding of a more advanced tumor than previously assessed. No significant difference was seen in the pre-operative T stage in the unplanned vs planned HP group; this may reflect difficulties in staging. A national study from a Swedish cohort shows that the accuracy of MRI in preoperative staging is lower than expected [22]. Advanced tumor stage has been shown to increase the risk of AL, and avoiding the risk of anastomotic complications ensures adjuvant treatment without delay [20, 21].
Limitations
One limitation of this study is its retrospective design, with difficulties assessing reasons for choosing HP in some cases, since notes are retrospectively reviewed. Another limitation is that patients undergoing AR were randomized as this group was much larger. However, since the ratio HP:AR was 1:2, this probably did not affect the result. In the present study, the rate of patients undergoing minimally invasive surgery was low (18%), probably explained by that the study period was from 2007 to 2017. For the same reason, other novel operative techniques such as iAPR, transanal total mesorectal excision, or transanal transection with single-stapled anastomosis could not be assessed in the study [23]. The rate of minimally invasive surgery has steadily increased in Sweden from 2015 and new surgical methods introduced [24].
Overall, the large study cohort with a complete data set resulted in reliable results.
Our findings provide valuable insight into the treatment of elderly and frail patients. A lower risk of reoperation and septic complications in HP compared to AR has been reported; the authors conclude that HP should be considered in older frail patients [5]. This is important as the number of elderly patients with rectal cancer has increased in recent years, which needs to be taken into consideration when constructing guidelines regarding rectal cancer treatment [25].
A large study on the risk of complications after rectal cancer surgery as well as assessing quality of life after surgery comparing HP with AR and APR would increase our knowledge on the topic. Furthermore, it is important to compare oncological outcomes after HP, AR, and APR.
Conclusions
HP is most often performed in frail patients where the risk of AL is significant. Another common reason is locally advanced tumors with planned adjuvant treatment. Incontinence alone is seldom the reason for choosing HP.
A significant number of patients undergo HP as a result of an intraoperative decision. To the best of our knowledge, this is the first detailed study on intraoperative changes from AR to HP giving valuable insight into risk factors. Our findings suggest that male gender, a distal transection line close to the anal sphincter, and a more advanced tumor may increase the risk of anastomotic difficulties resulting in an unplanned HP. Surgeons should consider HP preoperatively in these cases.
Data availability
The datasets used during the current study are available from the corresponding author on reasonable request.
Abbreviations
- TME :
-
Total mesorectal excision
- AR :
-
Anterior resection
- APR :
-
Abdominoperineal resection
- iAPR :
-
Intersphincteric APR
- HP :
-
Hartmann’s procedure
- AL :
-
Anastomotic leak
- SCRCR :
-
Swedish ColoRectal Cancer Registry
- CEA :
-
Carcinoembryonic antigen
- ASA score :
-
American Society of Anesthesiologists
- RT :
-
Radiotherapy
- CHT :
-
Chemotherapy
- BMI :
-
Body mass index
- TNM :
-
Tumor node metastasis staging system
References
Heald RJ, Husband EM, Ryall RD (1982) The mesorectum in rectal cancer surgery—the clue to pelvic recurrence? Br J Surg 69(10):613–616
www.nationellt-vardprogram-tjock-andtarmscancer.pdf (2020) [cited 2022 October 5]
Gongaware RD, Slanetz CA Jr (1973) Hartmann procedure for carcinoma of the sigmoid and rectum. Ann Surg 178(1):28–30
Barbieux J, Plumereau F, Hamy A (2016) Current indications for the Hartmann procedure. J Visc Surg 153(1):31–38
Lazzaron AR, Silveira I, Machado PS, Damin DC (2021) The role of Hartmann’s procedure in the elective management of rectal cancer: results of a Brazilian cohort study. Rev Col Bras Cir 48:e20212977
Tottrup A, Frost L (2005) Pelvic sepsis after extended Hartmann’s procedure. Dis Colon Rectum 48(2):251–255
Frye JN, Carne PW, Robertson GM, Frizelle FA (2004) Abdominoperineal resection or low Hartmann’s procedure. ANZ J Surg 74(7):537–540
Molina Rodriguez JL, Flor-Lorente B, Frasson M, Garcia-Botello S, Esclapez P, Espi A et al (2011) Low rectal cancer: abdominoperineal resection or low Hartmann resection? A postoperative outcome analysis. Dis Colon Rectum 54(8):958–962
Ahmad NZ, Azam M, Coffey JC (2021) A meta-analysis of low Hartmann’s procedure versus abdominoperineal resection for non-restorative treatment of rectal cancer. Int J Colorectal Dis 36(12):2585–2598
Sverrisson I, Nikberg M, Chabok A, Smedh K (2018) Low risk of intra-abdominal infections in rectal cancer patients treated with Hartmann’s procedure: a report from a national registry. Int J Colorectal Dis 33(3):327–332
Jonker FH, Tanis PJ, Coene PP, Gietelink L, van der Harst E (2016) Comparison of a low Hartmann’s procedure with low colorectal anastomosis with and without defunctioning ileostomy after radiotherapy for rectal cancer: results from a national registry. Colorectal Dis 18(8):785–792
Mariusdottir E, Jorgren F, Mondlane A, Wikstrom J, Lydrup ML, Buchwald P (2022) Low incidence of pelvic sepsis following Hartmann’s procedure for rectal cancer: a retrospective multicentre study. BMC Surg 22(1):421
Augestad KM, Lindsetmo RO, Stulberg JJ, Reynolds H, Champagne B, Senagore AJ et al (2012) System-based factors influencing intraoperative decision-making in rectal cancer by surgeons: an international assessment. Colorectal Dis 14(10):e679–e688
Popiolek M, Dehlaghi K, Gadan S, Baban B, Matthiessen P (2019) Total mesorectal excision for mid-rectal cancer without anastomosis: low Hartmann’s operation or intersphincteric abdomino-perineal excision? Scand J Surg 108(3):233–240
Jorgren F, Johansson R, Damber L, Lindmark G (2013) Validity of the Swedish Rectal Cancer Registry for patients treated with major abdominal surgery between 1995 and 1997. Acta Oncol. 52(8):1707–14
Pahlman L, Bohe M, Cedermark B, Dahlberg M, Lindmark G, Sjodahl R et al (2007) The Swedish rectal cancer registry. Br J Surg 94(10):1285–1292
Fowler H, Clifford R, Sutton P, Watson A, Fearnhead N, Bach S et al (2020) Hartmann’s procedure versus intersphincteric abdominoperineal excision (HiP Study): a multicentre prospective cohort study. Colorectal Dis 22(12):2114–2122
Sverrisson I, Nikberg M, Chabok A, Smedh K (2015) Hartmann’s procedure in rectal cancer: a population-based study of postoperative complications. Int J Colorectal Dis 30(2):181–186
Westerduin E, Musters GD, van Geloven AAW, Westerterp M, van der Harst E, Bemelman WA et al (2017) Low Hartmann’s procedure or intersphincteric proctectomy for distal rectal cancer: a retrospective comparative cohort study. Int J Colorectal Dis 32(11):1583–1589
McDermott FD, Heeney A, Kelly ME, Steele RJ, Carlson GL, Winter DC (2015) Systematic review of preoperative, intraoperative and postoperative risk factors for colorectal anastomotic leaks. Br J Surg 102(5):462–479
Arezzo A, Migliore M, Chiaro P, Arolfo S, Filippini C, Di Cuonzo D et al (2019) The REAL (REctal Anastomotic Leak) score for prediction of anastomotic leak after rectal cancer surgery. Tech Coloproctol 23(7):649–663
Dahlback C, Korsbakke K, Alshibiby Bergman T, Zaki J, Zackrisson S, Buchwald P (2021) Accuracy of magnetic resonance imaging staging of tumour and nodal stage in rectal cancer treated by primary surgery: a population-based study. Colorectal Dis 24:1047
Spinelli A, Foppa C, Carvello M, Sacchi M, De Lucia F, Clerico G et al (2021) Transanal transection and single-stapled anastomosis (TTSS): a comparison of anastomotic leak rates with the double-stapled technique and with transanal total mesorectal excision (TaTME) for rectal cancer. Eur J Surg Oncol 47(12):3123–3129
www.cancercentrum.se/sv/INCA/kvalitetsregister/kolorektalcancer/ 2020 [cited 2022 September 11]
Birch RJ, Taylor JC, Downing A, Spencer K, Finan PJ, Audisio RA et al (2019) Rectal cancer in old age -is it appropriately managed? Evidence from population-based analysis of routine data across the English national health service. Eur J Surg Oncol 45(7):1196–1204
Acknowledgements
The authors gratefully thank the board of the SCRCR for providing data. We would like to thank statistician Helene Jacobsson for assistance.
Funding
Open access funding provided by Lund University. This work was supported by research grants from the Foundation of Stig and Ragna Gorthon funding the Ph.D. student (EM).
Author information
Authors and Affiliations
Contributions
Study conception and design: EM, PB. Data acquisition: EM, MS. Analysis and interpretation of data: EM, MS, FJ, ML, PB. Drafting of manuscript: EM, FJ, ML, PB. Critical review of manuscript: EM, JW, FJ, ML, PB. All authors have read and approved the manuscript before submission.
Corresponding author
Ethics declarations
Ethics approval and consent to participate
The study was approved by the Swedish Ethical Review Authority (Dnr 2019–01262) and followed the Declaration of Helsinki guidelines. The board of the SCRCR granted permission to access the raw data after ethical approval. Before release of healthcare data from Region Skåne, the research plan is reviewed. All patients in Sweden treated for colorectal cancer receive information about being registered in the SCRCR and being part of future studies. Patients who do not wish to participate are excluded. This study was therefore approved without obtaining further consent from the patients.
Competing interests
The authors declare no competing interests.
Disclaimer
The funding sources were not involved in study design, analysis, interpretation, writing, or submission of the manuscript.
Additional information
Publisher's Note
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
Rights and permissions
Open Access This article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons licence, and indicate if changes were made. The images or other third party material in this article are included in the article's Creative Commons licence, unless indicated otherwise in a credit line to the material. If material is not included in the article's Creative Commons licence and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. To view a copy of this licence, visit http://creativecommons.org/licenses/by/4.0/.
About this article
Cite this article
Mariusdottir, E., Jörgren, F., Saeed, M. et al. Hartmann’s procedure in rectal cancer surgery is often an intraoperative decision: a retrospective multicenter study. Langenbecks Arch Surg 409, 55 (2024). https://doi.org/10.1007/s00423-024-03237-8
Received:
Accepted:
Published:
DOI: https://doi.org/10.1007/s00423-024-03237-8