コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 There were no cases of any postoperative infection.
2 CVH has an increased risk of postoperative infection.
3 rean delivery may further reduce the rate of postoperative infection.
4 Of the 108 patients, 41 developed a postoperative infection.
5 fective than placebo in reducing the risk of postoperative infection.
6 surgery and 42 patients (31.3%) because of a postoperative infection.
7 thalmic surgical patients, were reviewed for postoperative infection.
8 ted with a lower probability of developing a postoperative infection.
9 rginine administration significantly reduces postoperative infection.
10 d in third molar extraction sites to prevent postoperative infection.
11 A total of 403 patients (3.5%) had a postoperative infection.
12 osis in LT patients and the relative risk of postoperative infection.
13 sed to determine the factors associated with postoperative infection.
14 iome compositions, pathobiont expansion, and postoperative infections.
15 sociated with an increased susceptibility to postoperative infections.
16 rioperative suture colonization may minimize postoperative infections.
17 d to determine the specific impact of severe postoperative infections.
18 nfectious complications, particularly severe postoperative infections.
19 cid did not result in a greater incidence of postoperative infections.
20 Two patients (2.7%) had postoperative infections.
21 e scores of S-INF and S-INF-Core) to predict postoperative infections.
22 There were 3996 documented postoperative infections.
23 of preoperative skin antisepsis may decrease postoperative infections.
24 defining a patient subgroup at high risk for postoperative infections.
25 , waiting time, technical complications, and postoperative infections.
26 t Staphylococcus aureus (MRSA) cause serious postoperative infections.
27 s to improve treatment outcomes and minimize postoperative infections.
28 .90; 95% CI, 1.37-2.63; P < .001), develop a postoperative infection (1.67; 1.48-1.89; P < .001), and
29 sed eosinophils (2.4), cancer history (2.1), postoperative infection (2.0), hypertension (2.0), CABG
30 etastasis-death 1.66 (1.41-1.97, P < 0.001), postoperative infection 3.27 (2.05-5.20, P < 0.001), and
31 irements, but was positively associated with postoperative infection (3.81 +/- 0.97 vs 2.79 +/- 0.73;
32 es in complications, including the number of postoperative infections (9% in the nail group vs 13% in
36 operative glucose control has been linked to postoperative infections after selected surgical procedu
43 an identify LT patients at increased risk of postoperative infection and may provide guideposts for m
44 complications, including lower incidences of postoperative infections and bleeding complications, as
45 ric acid, and potential benefits in reducing postoperative infections and intestinal inflammation.
46 ng, making it a promising strategy to reduce postoperative infections and peri-implant diseases in Ti
47 disposing patients to a greater incidence of postoperative infections and rejection and a longer hosp
48 ne function, systemic inflammatory response, postoperative infections, and recovery after colorectal
50 peritoneal dialysis (PD) on the incidence of postoperative infection as well as several other posttra
51 These patients may be at risk for serious postoperative infections as antitumor necrosis factor ag
52 lume eye facility, the incidence of presumed postoperative infection associated with unwrapped and wr
53 posite endpoint was clinical evidence of any postoperative infection at 30 days, including surgical s
56 erative bacterial sternal contamination, nor postoperative infections, between patients who underwent
57 with no significant differences in rates of postoperative infections, bleedings, and stent migration
58 od transfusions on outcome variables such as postoperative infection, cancer recurrence, pulmonary fu
60 rect costs, cost variability was highest for postoperative infection (CV = 1.71) and sepsis (CV = 1.3
61 amethasone was associated with reductions in postoperative infection, duration of postoperative mecha
63 e index), donor ischemic time, occurrence of postoperative infections, episodes of allograft rejectio
64 revious research demonstrating a low rate of postoperative infection following periodontal surgical p
65 oor nutritional state increases the risk for postoperative infections for spinal fusion patients.
67 ip between perioperative glucose control and postoperative infections in a nationwide sample of diabe
68 lerated, but did not reduce the incidence of postoperative infections in this high-risk oncologic pop
69 Multivariate Poisson regression model of postoperative infection including demographics, comorbid
76 sociation of perioperative hyperglycemia and postoperative infections (POI) in patients who had under
77 rse effects, it did not increase the risk of postoperative infection, postoperative nausea and vomiti
79 immunosuppression that results in increased postoperative infection rate, and can also result in inc
80 cess-of-care measure predicted a decrease in postoperative infection rates from 11.5 to 5.3 per 1000
81 cess-of-care measure predicted a decrease in postoperative infection rates from 14.2 to 6.8 per 1000
82 eat analysis of 414 patients showed that the postoperative infection rates were 17% (35 of 207) in th
83 iate prophylactic antibiotic regimens reduce postoperative infection rates, improved instrumentation
85 association between suture colonization and postoperative infections remains hypothetical, measures
88 llow-up; and (3) complications (composite of postoperative infection, symptomatic intracranial hemorr
89 investigated, 34.8% had at least one sign of postoperative infection; the overall appropriate rate of
92 Readmission diagnoses varied by specialty; postoperative infection was the most common readmission
94 control design, 53 individuals who developed postoperative infection were matched (approximately 3:1
95 nd 1.93 (95% CI, 1.38-2.68), and the odds of postoperative infections were 0.88 (95% CI, 0.69-1.12) a
99 he unwrapped sterilization group 17 presumed postoperative infections were identified, compared to 9
105 nes with the intent to minimize the rates of postoperative infection with small-gauge vitrectomy surg
106 8.1%), absolute risk reduction in developing postoperative infection, with 6 donors requiring treatme
108 preoperative antibiotics reduces the risk of postoperative infection, yet few studies have described