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1 lay position when constructing permanent end colostomy.
2 compared with the traditional formation of a colostomy.
3 ve therapy and rationalized use of permanent colostomy.
4 wound infection, and no closure of ileostomy/colostomy.
5 ry anastomosis vs sigmoid colectomy with end colostomy.
6 ents of more than 6 units/blood received end colostomy.
7 anesthesia, surgery, and complications of a colostomy.
8 tes and unacceptable variations in permanent colostomies.
10 scence (odds ratio, 16.9; 95% CI, 1.94-387), colostomy (5.07; 2.12-13.0), thicker subcutaneous fat (2
11 control, 38 use enemas to evacuate, 9 have a colostomy, 7 have fecal soiling, and 5 are too recently
13 The stent group had significantly fewer end colostomies and more minimally invasive surgeries (p<0.0
14 (loss of anorectal function with a permanent colostomy and a high incidence of sexual and genitourina
15 tment of fecal incontinence has evolved from colostomy and direct repair of muscle defects to interve
16 patient measures, such as rates of permanent colostomy and in-hospital mortality, and to improve surv
17 egression analysis, initial surgery with end-colostomy and symptomatic pain (both univariate) and inc
29 rouracil (FU) plus mitomycin (MMC) decreased colostomy failure (CF) when compared with induction plus
30 nificant association between RX duration and colostomy failure (CF; hazard ratio [HR] = 1.51; 95% CI,
34 ions of intestinal stomas are the following; colostomy formation should rarely be done in transverse
35 dence of parastomal hernias (PSHs) after end-colostomy formation using a polypropylene mesh in a rand
37 in terms of recurrence-free survival (RFS), colostomy-free survival (CFS), and overall survival (OS)
39 rm impact of treatment on survival (DFS, OS, colostomy-free survival [CFS]), CF, and relapse (locoreg
40 stomy rates were lower (9% v 22%; P = .002), colostomy-free survival higher (71% v 59%; P = .014), an
41 tch and wait had significantly better 3-year colostomy-free survival than did those who had surgical
50 cancer, immunosuppressive therapy, ileostomy/colostomy, incomplete questionnaires, or lack of consent
53 iculitis to reduce the risk of recurrence or colostomy, no prior studies have quantified this risk wh
54 ulation and anal dextranomer injection, with colostomy or anal sphincteroplasty now rarely required.
55 ceived anticancer therapy or surgery (except colostomy or ileostomy) 28 days or less before the first
56 2.36-5.70), less likely to have a permanent colostomy (OR = 0.53; 95%CI, 0.30-0.93), and less likely
57 ore left hemicolectomies and procedures with colostomies (p=0.000), were older (p=0.002), and lost mo
58 gnificantly associated with a higher rate of colostomy (P = .03) than was mitomycin-based therapy.
59 0.99; 95% CI, 0.72-1.35; P = .92), permanent colostomy rate (OR, 0.96; 95% CI, 0.70-1.32; P = .81), 3
62 acil/cisplatin and radiotherapy had a higher colostomy rate than patients treated with concurrent 5-f
64 mpare resection margin positivity, permanent colostomy rate, 30-day readmission, 90-day mortality, an
68 lume to postoperative and overall mortality, colostomy rates, and use of adjuvant radiation therapy.
69 er after elective resection, and considering colostomies related to resection, ostomy prevention shou
71 val (OS), disease-free survival, and time to colostomy (TTC) with pretreatment and treatment variable
74 clear whether this difference in the rate of colostomy was due to the chemotherapy agents, the use of
76 ic abdominoperineal resection with permanent colostomy were randomized (1 : 1) to the mesh and nonmes
77 rgery, including creation of a permanent end colostomy, were randomized into 2 groups, with and witho
79 avoided major surgery and averted permanent colostomy without loss of oncological safety at 3 years.