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Original article

Appropriate Management of Subcutaneous Tissue of Midline Abdominal Incisions



To identify the optimal method for subcutaneous tissue management following midline abdominal incisions among patients with high thickness of subcutaneous fat (TSF).


A single-center prospective controlled trial among women undergoing elective gynecologic surgery by midline incision with TSF ≥ 3 cm. Incision was managed by suture approximation of Camper’s fascia (group 1), closed suction drainage (group 2), or no intervention (control). Groups were compared for the incidence of four-week postop wound complications including surgical site infection (SSI), superficial wound dehiscence (SWD), and seroma; and baseline and perioperative factors were analyzed using multivariate regression.


Among 145 patients included (43.4% suture, 29.7% drain, 26.9% control), the overall incidence of wound complications was 15.2% (SSI 8.3%, SWD 0.7%, seroma 6.2%). The incidence of SSI was higher with suture (14.3%) versus drain (4.7%) and control (2.6%), while seroma was more frequent in drain (11.6%) versus suture (3.2%) and control (5.1%); however, both results were not statistically significant. Wound complication was independently associated with hemoglobin level (OR = 0.58, p = 0.019) and the occurrence of intraoperative complications (OR = 8.67, p = 0.048).


There is no statistical evidence about the optimal method of wound closure in the study population. Specific risk profiles can be constructed with an emphasis on preoperative anemia and intraoperative complications.


The development of postoperative negative outcomes as perceived either by the surgeon or by the patient, namely surgical wound complications, remained one of the significant threats to accomplish an optimal care of patients following surgeries [1]. Wound healing impairment occurs due to infection, necrosis of wound margins or adjacent soft tissue, seroma or hematoma; all of these complications have the potential to cause wound dehiscence. The latter may seem trivial, but it can be associated with devastating implications if not managed correctly. Instead of being a mild case that needs only local wound management and antibiotics, the presence of wound complications may cause serious sequelae with several reoperations and high rates of mortality. For example, surgical site infections following midline incisions were associated with a five-fold increased risk of reoperations, longer length of hospital stay, five times higher re-hospitalization rates, and a two-fold increase in the likelihood of mortality compared to those without complications and an additional cost of US$4,000 per wound [2,3].

Therefore, surgeons are required to mitigate the likelihood of wound complications via controlling the potential risk factors [4]. These could be related to the patient, surgical technique, or postoperative management. First, considering patient-related factors, the health and economic burdens of complications could increase with the global increase of obesity rates, which has been consistently associated with wound dehiscence and incisional hernia following laparotomies [5,6]. Second, the surgical technique has also a major role in reducing complication rates. More specifically, concerning midline incisions, evidence has shown that the quality of suture technique is paramount as revealed in the experimental and clinical studies [7]. Third, the success of wound healing using wound closure techniques may be challenging with increased thickness of subcutaneous fat (TSF) in obese patients [8]. This is because TSF was found to be a significant predictor for surgical site infections following midline laparostomy and colorectal surgeries [9,10]. In particular, studies demonstrated distinct TSF cut-off values that ranged between ≥20 mm and ≥30 mm for wound complications to develop [11,12].

In this context, this study was carried out to investigate the most appropriate methods for subcutaneous tissue management following midline vertical incisions among patients with low or high TSFs, by considering the occurrence of any surgical wound complication as the outcome of interest. Further, baseline demographic and clinical factors as well as perioperative factors were analyzed as cofactors of wound complication.

Materials & Methods

Population & setting

This prospective controlled trial was carried out at the Department of Obstetrics and Gynecology of King Abdulaziz University Hospital, Jeddah, Saudi Arabia, from March 2014 to October 2018. Women undergoing elective surgery by midline incision and having 3 cm or more subcutaneous tissue were included. All malignant and benign interventions were included. Patients who were hospitalized more than 24 hours prior to intervention and those with incision less than 3 cm depth were excluded. Patients presumed to be eligible were identified on admission and the allocated gynecological surgeon, among the three who participated to the study, obtained informed consent preoperatively. The study protocol was approved by the Unit of Biomedical Ethics, Faculty of Medicine, King Abdulaziz University.

Sampling & enrollment

A convenience sampling was used to include all eligible and consenting patients during the study period. According to the incision closure approach, included patients were allocated to one of the three groups: suture approximation of Camper’s fascia (group 1); closed suction drainage of the subcutaneous space (group 2); and no closure of the subcutaneous tissue (control group).


Preoperative preparation was done as per the Department standard practice. All participants received preoperative antibiotic prophylaxis. Abdominal wall was cleaned with chlorhexidine-alcohol prepping solution without skin hair shaving. Surgical incision was made with the scalpel and hemostasis was undertaken by point cautery. The surgical procedure was performed through midline incision in the usual fashion, with the gynecological surgeon and his or her team. At the completion of the procedure, the pelvis and wound were both irrigated with warm normal saline solution. The fascia was closed in a mass fashion with a continuous #1 polydioxanone (PDS) suture. The depth of subcutaneous adipose tissue was measured with a disposable paper ruler from the fascia to the skin edge, half way between the umbilicus and pubis, to determine patient eligibility.

Each surgeon was assigned a group according to their preferred method of closure. The first surgeon used suture approximation of Camper’s fascia with running 2-0 Vicryl suture (group 1). The second one used suction drainage with 15 French round Jackson-Pratt (JP) drain of the subcutaneous space, which exited the wound through a separate stab incision; drains were upheld in place postoperatively, until output was less than 50 mL per 24 hours up to a maximum of four days (group 2). The third one preferred not to close the subcutaneous layer (control group). All of three surgeons used the same preferred suture closure method consistently for all included patients.

For all patients, the skin was re-approximated with staples, wounds were covered with non-adhesive gauze, and pressure dressing was applied, which remained in place until the morning of the second postoperative day. Staples were left in place for at least seven postoperative days. All patients were covered with prophylactic anti-coagulant with elastic stocking and received routine postoperative care at the discretion of the attending surgeon.

Data collection and follow-up

Demographic data included age, marital status, and parity. Baseline clinical data included height and weight with calculation of the body mass index (BMI), comorbidities (hypertension, diabetes, bronchial asthma, or other), and any previous surgery. These were analyzed as factors of wound complications.

Perioperative data were also recorded. In the preoperative time, data collected included type of diagnosis (benign or malignant), hemoglobin and albumin levels, as well as preoperative length of hospital stay (LOS). Intraoperative data included type of operation (total abdominal hysterectomy and bilateral salpingoophrectomy (TAHBSO) with or without staging, radical hysterectomy or debulking or myomectomy), any associated procedure, type of anesthesia, surgical time, intra-abdominal drain, occurrence of any complication, estimate blood loss (EBL), blood transfusion, subcutaneous depth and incision length, in addition to type of incision closure, etc.

All patients were evaluated daily during postoperative hospitalization and at two and six weeks postoperatively as an outpatient. Admission in intensive care unit (ICU), delayed feeding, total parenteral nutrition and the occurrence of any postoperative complication were recorded.

The outcome of interest consisted of the occurrence of any wound complication, which was divided into three categories: surgical site infection (SSI), superficial wound dehiscence (SWD), and seroma; by reference to clean wound.

Statistical methods

Statistical analysis was performed with the Statistical Package for Social Sciences (SPSS) for Windows version 21.0 (IBM Corp., Armonk, NY). The prevalence of wound complications was calculated with 95% confidence interval. Descriptive statistics were used to present baseline and perioperative factors of wound complication; categorical variables were presented as frequency and percentage, while numerical variables were presented as mean ± standard deviation (SD) for normally distributed variables and median (75th centile [P75]) for non-normally distributed ones. Analysis of factors associated with wound complication used chi-square test or Fisher’s exact test for categorical variables, as appropriate and independent t-test for normally distributed numerical variables. Multivariate binary logistic regression was carried out to analyze independent risk factors of wound complication; results were presented as odds-ratio (OR) with 95% CI. A p-value of <0.05 was considered to reject the null hypothesis.


Baseline demographic and clinical characteristics

A total 145 procedures were included; mean (SD) age of the patients was 51.83 (14.89) years, 77.9% were married, and 26.2% were nulliparous. Clinical data showed obesity (61.4%), hypertension (37.2%), diabetes (20.0%) bronchial asthma (5.5%), and previous surgery (38.6%). Of the patients, 44.8% were operated for malignant disease, and mean preoperative hemoglobin was 11.73 (1.54) mg/L (Table 1).

Parameter Category Frequency Percentage
Age (years) Mean, SD 51.83 14.89
Marital status Single 16 11.0
Married 113 77.9
Divorced 7 4.8
Widowed 9 6.2
Parity 0 38 26.2
1-2 28 19.3
3-5 45 31.0
>5 34 23.4
Height (cm) Mean, SD 153.72 7.31
Weight (kg) Mean, SD 77.14 17.59
BMI (Kg/m2) Mean, SD 32.24 7.34
BMI category (Kg/m2) Normal (up to 24.9) 26 17.9
Overweight (25.0-29.9) 30 20.7
Class I obesity (30.0-34.9) 45 31.0
Class II obesity (35.0-39.9) 21 14.5
Class III obesity (≥40.0) 23 15.9
Comorbidities Hypertension 54 37.2
Diabetes 29 20.0
Bronchial asthma 8 5.5
Other 19 13.1
No. comorbidities 0 81 55.9
1 30 20.7
2 22 15.2
3 12 8.3
Previous surgery No 89 61.4
Yes 56 38.6
Preoperative diagnosis Malignant 65 44.8
Benign 80 55.2
Preoperative hemoglobin level (mg/L) Mean, SD 11.73 1.54
Preoperative albumin level (mg/dL) Mean, SD 31.45 6.67
Preoperative LOS (days) Median, P75 1.00 2.00

Procedure characteristics

Majority of patients underwent TAHBSO procedure (77.9%), and 55.2% had an associated procedure like omentectomy, lymphadenectomy and bowel resection include appendectomy. The most frequent type of anesthesia was general/epidural (58.6%) followed by general (35.2%). Surgical incision characteristics showed median (P75) subcutaneous depth (5.00 [5.50] cm), median (P75) incision length (20.00 [25.75] cm), and closure was carried out by suture (43.4%) or drain (29.7%), while nothing was applied in 26.9% of the cases. Other intraoperative data showed median surgical time (180.00 minutes), rates of blood transfusion (22.8%) and intraoperative complications (5.5%). Postoperative time was characterized by low incidence of ICU admissions (4.1%), delayed feeding (13.1%), total parenteral nutrition (1.4%), and postoperative complications (9.0%) (Table 2).

Parameter Category Frequency Percentage
Intraoperative data
Type of operation TAHBSO 113 77.9
TAHBSO and staging 9 6.2
Radical Hysterectomy/debulking 19 13.1
Myomectomy 4 2.8
Associated procedure No 65 44.8
Yes 80 55.2
Type of anesthesia General/Epidural 85 58.6
General 51 35.2
Epidural 3 2.1
Spinal 2 1.4
General/Spinal 1 0.7
Spinal/Epidural 1 0.7
Surgical time (min) Median, P75 180.00 240.00
Frozen section No 117 80.7
Yes 28 19.3
Drain No 97 66.9
Yes 48 33.1
Intraoperative complications No 137 94.5
Yes 8 5.5
EBL (ml) Median, P75 700.00 1000.00
Blood transfusion No 112 77.2
Yes 33 22.8
Subcutaneous depth (cm) Median, P75; (rang = 2, 18) 5.00 5.50
Incision length (cm) Median, P75; (range = 4.5, 41) 20.00 25.75
Incision closure Suture 63 43.4
Drain 43 29.7
Nothing 39 26.9
Postoperative data
ICU No 139 95.9
Yes 6 4.1
Delayed feeding No 126 86.9
Yes 19 13.1
Total parenteral nutrition No 143 98.6
Yes 2 1.4
Suprapubic catheter No 94 64.8
Yes 12 8.3
Not specified 39 26.9
Postop. complications No 132 91.0
Yes 13 9.0
Postop. LOS (days) Median, P75 4.00 6.00
Total LOS (days) Median, P75 6.00 8.00

Wound outcome

The incidence of four-week wound complications was 15.2% (95% CI = 9.8%, 22.1%); including SSI (8.3%), SWD (0.7%) and seroma (6.2%). Distribution of wound complications by type of incision closure showed higher rate of SSI with suture (14.3%) compared to drain (4.7%) and control (2.6%), while seroma was more frequent with drain (11.6%) compared to suture (3.2%) and control (5.1%); however, both results did not reach statistical significance (Table 3).

Outcome Overall (N = 145) Suture (N = 63) Drain (N = 43) Nothing (N = 39) p-value
Clean 123 (84.8) 52 (82.5) 35 (81.4) 36 (92.3) 0.310
Any complication 22 (15.2) 11 (17.5) 8 (18.6) 3 (7.7)
SSI 12 (8.3) 9 (14.3) 2 (4.7) 1 (2.6) 0.067
SWD 1 (0.7) 0 (0.0) 1 (2.3) 0 (0.0) 0.303
Seroma 9 (6.2) 2 (3.2) 5 (11.6) 2 (5.1) 0.198

Demographic and clinical factors associated with wound complication

The incidence of wound complications at four weeks postop was higher in patients with cancer (23.1% versus 8.8%) compared to their counterparts, respectively (p = 0.017) and was associated with low hemoglobin (mean [SD] = 10.99 [1.44] mg/L versus 11.87 [1.57] mg/L, p = 0.014) and albumin (mean [SD] = 28.30 [7.465] mg/dL versus 32.03 [6.38] mg/dL, p = 0.021) compared to patients without wound complications (Table 4).

Factor Category Wound complication
No Yes p-value
N % N %
Age (years) Mean, SD 50.97 14.58 56.64 16.04 0.100 t
Marital status Single 13 81.3 3 18.8 0.964
Married 96 85.0 17 15.0
Divorced 6 85.7 1 14.3
Widowed 8 88.9 1 11.1
Nationality Saudi 55 82.1 12 17.9 0.394
Non-Saudi 68 87.2 10 12.8
Parity 0 31 81.6 7 18.4 0.827
1-2 23 82.1 5 17.9
3-5 39 86.7 6 13.3
>5 30 88.2 4 11.8
BMI category (Kg/m2) Normal 21 80.8 5 19.2 0.963
Overweight 25 83.3 5 16.7
Class I obesity 39 86.7 6 13.3
Class II obesity 18 85.7 3 14.3
Class II obesity 20 87.0 3 13.0
Hypertension No 78 85.7 13 14.3 0.699
Yes 45 83.3 9 16.7
Diabetes No 98 84.5 18 15.5 1.000 F
Yes  25 86.2 4 13.8
Bronchial asthma No 117 85.4 20 14.6 0.349 F
Yes  6 75.0 2 25.0
Other No 108 85.7 18 14.3 0.492 F
Yes  15 78.9 4 21.1
No. comorbidities 0 71 87.7 10 12.3 0.549
1 23 76.7 7 23.3
2 19 86.4 3 13.6
3 10 83.3 2 16.7
Previous surgery No 74 83.1 15 16.9 0.477
Yes 49 87.5 7 12.5
Preoperative diagnosis Cancer 50 76.9 15 23.1 0.017a
Benign 73 91.3 7 8.8
Preoperative hemoglobin level (mg/L) Mean, SD 11.87 1.57 10.99 1.14 0.014at
Preoperative albumin level (mg/dL) Mean, SD 32.03 6.38 28.30 7.46 0.021at
Preoperative LOS (days) ≤1 day 6 89.0 8 11.0 0.154
>1 day 58 80.6 14 19.4

Procedure-related factors of wound complication

Wound complications were more frequent in radical hysterectomy/debulking (36.8%) and TAHBSO + staging (22.2%), compared with TAHBSO (11.5%) and myomectomy (0.0%), and the difference is statistically significant (p = 0.027). Notably, increased subcutaneous depth (>5 cm) was associated with 27.0% incidence of wound complications, compared to 11.1% in case of incision depth ≤5 cm, and the difference was statistically significant (p = 0.020). However, no statistically significant association was found with incision length and the occurrence of wound complications (p = 0.241). Other intraoperative factors that were associated with wound complications included longer surgical time (26.9% in long [>180 min] versus 8.6% in short [≤180 min] interventions, p = 0.003), presence of intraoperative complications (50.0% in presence versus 13.1% in absence, p = 0.019), blood transfusion (26.4% versus 8.9%, p < 0.001). Further, the rate of wound complications was significantly associated with several postoperative factors such as ICU admission (p < 0.001), delayed feeding (p < 0.001), and postoperative complications (p < 0.001), etc. (Table 5).

Factor Category Wound complication
No Yes p-value
N % N %
Intraoperative factors      
Type of operation TAHBSO 100 88.5 13 11.5 0.027a
TAHBSO + Staging 7 77.8 2 22.2
Radical hysterectomy/debulking 12 63.2 7 36.8
Myomectomy 4 100.0 0 0.0
Associated procedure No 59 90.8 6 9.2 0.072
Yes 64 80.0 16 20.0
Surgical time (min) ≤180 85 91.4 8 8.6 0.003a
>180 38 73.1 14 26.9
Frozen section No 98 83.8 19 16.2 0.570F
Yes 25 89.3 3 10.7
Drain No 83 85.6 14 14.4 0.724
Yes 40 83.3 8 16.7
Intraoperative complications No 119 86.9 18 13.1 0.019a
Yes 4 50.0 4 50.0
EBL (ml) ≤700 71 88.8 9 11.3 0.144
>700 52 80.0 13 20.0
Blood transfusion No 102 91.1 10 8.9 <0.001a
Yes 21 63.6 12 26.4
Subcutaneous depth (cm) ≤5 96 88.9 12 11.1 0.020a
>5 27 73.0 10 27.0
Incision length (cm) ≤20 67 88.2 9 11.8 0.241
>20 56 81.2 13 18.8
Incision closure Suture 52 82.5 11 17.5 0.310
Drain 35 81.4 8 18.6
Nothing 36 92.3 3 7.7
Postoperative factors      
ICU admission No 122 87.8 17 12.2 <0.001a
Yes 1 16.7 5 83.3
Delayed feeding No 112 88.9 14 11.1 <0.001a
Yes 11 57.9 8 42.1
Total parenteral nutrition No 123 86.0 20 14.0 0.022a
Yes 0 0.0 2 100.0
Suprapubic catheter No 80 85.1 14 14.9 0.038a F
Yes 7 58.3 5 41.7
Postop. complications No 118 89.4 14 10.0 <0.001a
Yes 5 38.5 8 61.5
Postop. LOS (days) ≤4 75 93.8 5 6.3 0.001a F
>4 48 73.8 17 26.2
Total LOS (days) ≤6 78 95.1 4 4.9 <0.00a F
>6 45 71.4 18 28.6

Baseline and preoperative predictors of wound complication

The multivariate model including all significant baseline and preoperative factors showed that only hemoglobin level (OR = 0.58, p = 0.019) and the occurrence of intraoperative complications (OR = 8.67, p = 0.048) were independently associated with wound complication (Table 6).

Factor Category OR 95% CI p-value
Preoperative factors
Diagnosis Cancer 1.59 0.43 5.93 0.490
Benign Ref - - -
Hemoglobin level (mg/L) 0.58 0.36 0.91 0.019a
Albumin level (mg/dL) 0.95 0.87 1.03 0.209
Intraoperative factors
Type of operation TAHBSO Ref - - 0.540
TAHBSO +Staging 6.01 0.47 75.95 0.166
Radical Hysterectomy/debulking 1.73 0.38 7.92 0.481
Myomectomy - - - 0.999
Surgical time (min) ≤180 Ref - - -
>180 2.69 0.73 9.88 2.69
Intraoperative complications No Ref - - -
Yes 8.67 1.01 74.13 0.048a
Blood transfusion No Ref - - -
Yes 1.63 0.48 5.56 0.434
Subcutaneous depth (cm) ≤5 Ref - - -
>5 2.55 0.72 8.96 0.145


The results of this controlled trial showed no significant differences in the incidence of SSI, wound dehiscence, and seroma among all approaches of wound approximation. However, we identified several associated factors with wound complications, such as an established cancer diagnosis, preoperative decreased albumin levels, prolonged surgical time, blood transfusion, subcutaneous depth > 5 cm, and postoperative factors, including ICU admission, total parenteral nutrition, delayed feeding, prolonged LOS (>4 days) and postoperative complications. Importantly, low preoperative hemoglobin levels as well as the occurrence of intraoperative complications were independent risk factors of wound complications.

The results concerned with wound outcomes following different approximation techniques were conflicting. For example, a meta-analysis involving six randomized clinical trials (RCTs) has shown that suture closure in women with >2 cm subcutaneous fat led to reducing SWD by 34%, and this was potentially attributable to seroma prevention [13]. Nevertheless, recent studies showed variable outcomes. Dwivedi et al. randomized 60 patients equally to either suture approximation (polyglactin 910, 2-0) or suction syringe drainage and found that the rates of SSI, hospital readmission, and SWD were significantly higher with closed drainage management [14]. In contrast, Manoharan et al. assessed wound outcomes in 60 patients who underwent suture approximation or subcutaneous suction drains postoperatively [15]. The authors found beneficial effects of suctions drains since they reduced the incidence of SSI, SWD, and postoperative LOS when compared to primary skin closure.

However, other reports showed no significant differences between methods of postoperative wound management. In a large RCT conducted at an American gynecologic oncology department, Cardosi et al. revealed no differences in the rates of all wound complications, including SWD, cellulitis, seroma, hematoma, and abscess, following midline incisions in patients with ≥3 cm subcutaneous fat [16]. Another prospective RCT showed that the incidence rates of SSI were 7.7% and 5.7% when subcutaneous closed-suction drainage and no drainage were used, respectively, without statistically significant differences [17]. Failure to reach a consensus regarding the safest wound closure method may indicate differences in methodological designs, patient-related factors, the used tools/equipment, and surgeons’ expertise.

In the present study, preoperative anemia was independently associated with greater likelihood of postoperative wound complications. Patients with anemia may exhibit impaired tissue oxygenation, decreased collagen synthesis, and reduced capacity of neutrophil-mediated oxidative killing [18]. Additionally, these patients often require perioperative blood transfusion, which represents a confounding factor of inducing immunosuppression and can indirectly cause wound infection [19].

From another perspective, increased TSF (>5 cm) has been identified as an associated factor of wound complications in our study. Early and recent evidence indicated an important role of obesity in the development of postoperative SSI, and a TSF ≥ 3 cm was associated with 80% odd risk of developing a wound infection [20]. Several potential explanations have been postulated, such as reduced lymphocytic immunity, low oxygenation levels and decreased vascularity in the subcutaneous tissue, and impaired collagen synthesis in obese patients [21-23]. Interestingly, antibiotic administration is crucial and obese patients should be monitored regularly for possible complications since suboptimal antibiotic tissue penetration and dosage in subcutaneous tissue may be confounding factors that increase the risk of wound complications [24].

The present investigation covered a rare topic in obese women undergoing gynecologic surgeries via midline incisions. A prospective design was elected to assess the effects of confounding variables at our institution. However, our results should be cautiously interpreted due to some inherent limitations. Principally, failure to demonstrate statistical significance in the comparative analysis of wound complication incidence between the study groups may be due to reduced sample size in each group, entailing high type II error. Additionally, patients were allocated to each of the three groups based on surgeon’s preferences and hence there may be a risk of selection bias.


There is no statistical evidence about the optimal and safest method of wound closure in obese women undergoing gynecologic surgeries. Patients with TSF of at least 3 cm should be considered and adequately monitored for the prevention of wound complications, particularly clinically vulnerable patients, such as those with preoperative anemia, malignancy, and hypoalbuminemia. Complicated cases during and after the operations should be thoroughly checked for infectious and mechanical wound disruptions. Notably, specific risk profiles can be constructed for each individual patient to identify patients at high risks of further complications, with an emphasis on preoperative anemia and intraoperative complications. Antibiotic prophylaxis, which was not investigated in the present study, may be useful to prevent SSI and both indication and dosage should be adjusted based on body weight profiles.


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Original article

Appropriate Management of Subcutaneous Tissue of Midline Abdominal Incisions

Author Information

Nisreen Anfinan

Obstetrics and Gynecology, Faculty of Medicine, King Abdulaziz University, Jeddah, SAU

Khalid H. Sait Corresponding Author

Obstetrics and Gynecology, Faculty of Medicine, King Abdulaziz University, Jeddah, SAU

Ethics Statement and Conflict of Interest Disclosures

Human subjects: Consent was obtained by all participants in this study. The study protocol was approved by the Unit of Biomedical Ethics, Faculty of Medicine, King Abdulaziz University issued approval 293-12. The research ethics committee on its meeting has examined the research subcutaneous management of vertical abdominal incision, and recommend granting permission. Animal subjects: All authors have confirmed that this study did not involve animal subjects or tissue. Conflicts of interest: In compliance with the ICMJE uniform disclosure form, all authors declare the following: Payment/services info: All authors have declared that no financial support was received from any organization for the submitted work. Financial relationships: All authors have declared that they have no financial relationships at present or within the previous three years with any organizations that might have an interest in the submitted work. Other relationships: All authors have declared that there are no other relationships or activities that could appear to have influenced the submitted work.


We would like to thank Dr. Khalid Darhouse, for his cooperation in allowing us to use his patients’ data to conduct this study.

Original article

Appropriate Management of Subcutaneous Tissue of Midline Abdominal Incisions

Figures etc.


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