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1 ion is detrimental to the juvenile host with septic shock.
2 ong children encountering community-acquired septic shock.
3 ovascular and endothelial alterations during septic shock.
4 acterial clearance in the juvenile host with septic shock.
5 e improved hospital survival in distributive septic shock.
6 ing missed 66 patients with severe sepsis or septic shock.
7 3%), patients had more liver dysfunction and septic shock.
8 s better for patients with severe sepsis and septic shock.
9 enues for a potential therapy of early-stage septic shock.
10 nd incidence of thrombocytopenia are high in septic shock.
11 omputing risk of transition from sepsis into septic shock.
12 PS is critical for antibacterial defense and septic shock.
13 y been proposed to confer protection against septic shock.
14 to improve outcomes in cancer patients with septic shock.
15 in development and progression of pediatric septic shock.
16 ine or vasopressin, or to corticosteroids in septic shock.
17 omidine may decrease norepinephrine doses in septic shock.
18 he impending occurrence of severe sepsis and septic shock.
19 a total of 150,845 visits for severe sepsis/septic shock.
20 f O-GlcNAc stimulation at the early phase of septic shock.
21 ity to adverse outcomes including sepsis and septic shock.
22 essin for other patient-centered outcomes in septic shock.
23 w an increased susceptibility to LPS-induced septic shock.
24 em may cause various autoimmune diseases and septic shock.
25 norepinephrine requirements in experimental septic shock.
26 plicit diagnosis codes for severe sepsis and septic shock.
27 as transferred to the intensive care unit in septic shock.
28 se, we believe, represents the true onset of septic shock.
29 hway in host resistance to endotoxin-induced septic shock.
30 surgical ICU patients with severe sepsis and septic shock.
31 h a liberal strategy in cancer patients with septic shock.
32 hemodynamic support of newborn and pediatric septic shock.
33 were largely resistant to endotoxin-induced septic shock.
34 mortality in children with severe sepsis or septic shock.
35 d eighty-four patients (25.0%) progressed to septic shock.
36 athogenic neutrophil subset in patients with septic shock.
37 ysfunction plus infection, severe sepsis, or septic shock.
38 y lethal immune collapse syndrome similar to septic shock.
39 l factors are involved in the development of septic shock.
40 bacteria may not be the only factor inducing septic shock.
41 mortality in patients with severe sepsis and septic shock.
42 ion that causes widespread tissue damage and septic shock.
43 pisodes of suspected infection and suspected septic shock.
44 T lymphocytes facilitate the pathobiology of septic shock.
45 stablished mortality of IL-15 KO mice during septic shock.
46 ate baseline mortality risk in children with septic shock.
47 that was ongoing at the time of death due to septic shock.
48 lt male C57Black 6 mice, adult patients with septic shock.
49 phrine use of at least 60% for patients with septic shock.
50 ical Modification codes for severe sepsis or septic shock.
51 pathogens is probably critical to outcome in septic shock.
52 ECMO) obtained from three large databases of septic shock.
53 s been identified as a potential therapy for septic shock.
54 ent in 28% of children with severe sepsis or septic shock.
55 thiamine vs placebo for adult patients with septic shock.
56 e followed for the development of sepsis and septic shock.
57 antibiotic administration for patients with septic shock.
58 enetic factors and post-traumatic sepsis and septic shock.
59 t least 1 year following hospitalization for septic shock.
60 the development of post-traumatic sepsis and septic shock.
61 f this combination therapy for patients with septic shock.
62 icated course and mortality in children with septic shock.
63 onth 3 follow-up among children encountering septic shock.
64 for children encountering community-acquired septic shock.
65 may be for patients with suspected sepsis or septic shock.
66 ts a potential new data-driven definition of septic shock.
67 life disability among children encountering septic shock.
68 Critical Sepsis, was defined, approximating septic shock.
69 gy Score 2: 54 +/- 20), 53 (54%) experienced septic shock.
70 coverage to any patient suspected of having septic shock.
71 sin vs. Norepinephrine as Initial Therapy in Septic Shock]).
72 cteristics) was 0.96 (95% CI, 0.96-0.96) for septic shock, 0.97 (0.97-0.97) for acute respiratory fai
74 le neutropenia (18 patients [7%]), sepsis or septic shock (11 [5%]), QT prolongation (five [2%]), and
75 ty after 14 days decreased among all groups (septic shock: 12.6% to 6.7%; septic shock with acute res
77 ol for rapid identification of patients with septic shock, 2) a "resuscitation and stabilization bund
78 socomial origin (32% vs 20%, P = .014), more septic shock (21% vs 11%, P = .007), and higher Risk-E s
79 ortality rates decreased among patients with septic shock (21.2% to 10.8%) and septic shock with acut
80 -day mortality decreased among patients with septic shock (22.1% to 15.5%), septic shock with acute r
82 nical Modification code for severe sepsis or septic shock; 3,021 of these patients (28%) had an immun
83 5% male; mean +/- SD, 60 +/- 14 yr old) with septic shock (30%), hemorrhagic shock (15%), cardiogenic
84 10.3%), severe sepsis (20.3% vs 10.3%), and septic shock (33.5% vs 15.9%) was higher in prolonged ac
86 most costly complications were postoperative septic shock (4.0-fold, 95% CI 3.58-4.43) renal insuffic
87 nd chemotherapy (94 patients) were sepsis or septic shock (46 patients [19%] for quizartinib vs 18 [1
89 .9% received starch, and among patients with septic shock, 68.3% had lactate measured and 64% receive
90 without the characteristic) are as follows: septic shock, 7.27 (7.19-7.35); metastatic cancer and ac
91 ication codes for severe sepsis (995.92) and septic shock (785.52) identified a smaller, more accurat
92 pticemia (038.x), severe sepsis (995.92), or septic shock (785.52), as well as all subsequent hospita
96 ated Protein C and Corticosteroids for Human Septic Shock, adjunctive hydrocortisone therapy showed a
97 id Treatment in Critically Ill Patients with Septic Shock, adjunctive hydrocortisone therapy showed a
98 rting enzyme inhibitors had a higher risk of septic shock (adjusted hazard ratio, 1.45; 95% CI, 1.26-
99 fected patients: 1) patients in the ICU with septic shock and 2) hospitalized patients with Staphyloc
100 hours and first 24 hours after the onset of septic shock and 30-day in-hospital mortality; 2) determ
101 ases, 9th Edition codes for severe sepsis or septic shock and a positive blood culture during their h
102 id Treatment in Critically Ill Patients with Septic Shock and Activated Protein C and Corticosteroids
103 id Treatment in Critically Ill Patients with Septic Shock and Activated Protein C and Corticosteroids
104 characteristic of critical illnesses such as septic shock and acute respiratory distress syndrome.
105 its potential as a driver of inflammation in septic shock and autoimmune diseases, GSDMD represents a
106 rning algorithm to predict severe sepsis and septic shock and evaluate the impact on clinical practic
107 We then analyze plasma from patients with septic shock and find that increasing levels of IL-6 and
108 id Treatment in Critically Ill Patients with Septic Shock and hydrocortisone at a 50 mg IV bolus ever
109 we validated the known genes and pathways in septic shock and identified the unexplored septic shock-
110 o validate this association in children with septic shock and in a juvenile murine model of sepsis.
111 GITB in transplant patients, complicated by septic shock and multiple organ failure, including acute
112 irculating endothelial progenitor cells from septic shock and nonseptic shock patients showed evidenc
113 s in the durvalumab plus tremelimumab group (septic shock and pneumonitis), and one (<1%) patient in
114 ccurred in one patient in the placebo group (septic shock and pulmonary oedema) and one patient in th
116 his study we selected patients admitted with septic shock and treated for more than 4 days from a pro
117 id Treatment in Critically Ill Patients with Septic Shock) and $30,911 (Activated Protein C and Corti
119 eceiving invasive mechanical ventilation and septic shock, and 0.99 (0.99-0.99) for acute respiratory
120 groups have a 76.5% and 10.4% prevalence of septic shock, and 43% and 18% mortality, respectively.
123 ects mice against lipopolysaccharide-induced septic shock, and knockdown of Usp15 in Hrd1-knockout ma
124 zyme inhibitors had a higher risk of sepsis, septic shock, and mortality than those receiving angiote
125 hemophagocytic lymphohistiocytosis, sepsis, septic shock, and other conditions were distinctly diffe
127 on score, LogEuroSCORE, acute heart failure, septic shock, and paravalvular complications were risk f
128 Incident thrombocytopenia occurs early in septic shock, and platelet recovery lags behind clinical
130 the trials were performed in the setting of septic shock, and the most frequent comparator was a com
131 ubpopulation of neutrophils in patients with septic shock, and those with a high percentage of olfact
132 onstrates that early prediction of impending septic shock, and thus early intervention, is possible m
134 sepsis inpatient admission remain high: for septic shock, approximately 60%; for severe sepsis, appr
139 outcomes in patients with severe sepsis and septic shock as a result of the full implementation of t
140 of vasopressin infusion among patients with septic shock as well as vasoplegic shock after cardiotho
141 ng patients with sepsis who will progress to septic shock, as defined by Sepsis- 3 criteria, with the
144 ration of HAT therapy among U.S. adults with septic shock before and after study publication and to c
146 ented to the emergency department with early septic shock between October 2008 and April 2014, and we
147 tified 53 differentially expressed pediatric septic shock biomarkers using gene expression data sampl
148 equiring intensive care and/or patients with septic shock), blending together mortality estimates fro
151 ided resuscitation strategy in patients with septic shock, but the difference in the primary outcome,
152 sis of sepsis but enables the development of septic shock by maintaining NK cell numbers and integrit
153 R had the best discrimination for predicting septic shock (c-statistic 0.90), respiratory failure req
156 s proinflammatory cytokine production during septic shock caused by cecal ligation and puncture or en
158 The cohorts consisted of 120 patients with septic shock (cohort 1) and 88 patients with S. aureus b
160 an age greater than 18 years old, fulfilling septic shock criteria according to "Sepsis-3" at accepta
161 ne the outcomes of patients meeting Sepsis-3 septic shock criteria versus patients meeting the "old"
164 nting to the emergency department with early septic shock, early goal-directed therapy compared with
166 d 12 months following PICU admission for the septic shock event, 8%, 11%, 12%, and 13% of patients ha
167 randomized controlled trials in the field of septic shock failed to demonstrate a benefit on mortalit
168 improvement initiative for severe sepsis and septic shock focused on the resuscitation bundle on 90-d
169 d febrile neutropenia (five [5%]), sepsis or septic shock (four [4%]), pneumonia (two [2%]), and pyre
171 btained serum samples from 529 patients with septic shock from 22 ICUs in Australia and New Zealand.M
174 nal capillary density and/or RBC velocity in septic shock, heart failure, hypovolemia, obstructive sh
176 dney injury was 2.212 (95% CI: 1.334-3.667), septic shock (HR = 1.895, 95% CI: 1.081-3.323) and model
177 rvival benefit was observed in patients with septic shock (HR, 0.80 [CI, .26-2.46]), in NVIE (HR, 0.7
178 s for all patients with suspected sepsis and septic shock, ideally within 1 hour of recognition.
179 revealed the role of caspase-11 in mediating septic shock in response to lethal doses of lipopolysacc
180 a central mediator of systemic inflammation, septic shock in the Plasmodium chabaudi-infected mice an
182 pective observational study of children with septic shock in whom the PERSEVERE biomarkers were measu
188 repinephrine, the first-line vasopressor for septic shock, is not always effective and has important
190 osis and prognosis of acute ischemic stroke, septic shock, lung injuries, insulin resistance in diabe
191 Studies have indicated that patients with septic shock may benefit from extracorporeal membrane ox
192 ephrine, the cornerstone vasopressor used in septic shock, may contribute to immune dysregulation and
193 cytokines was assessed in 195 patients with septic shock.Measurements and Main Results: Norepinephri
194 ated AKI on Day 3 (D(3) SA-AKI) in pediatric septic shock.Methods: We performed secondary analysis of
195 ified complications were hepatitis (n = 36), septic shock (n = 22), and pulmonary complications/pneum
196 ded diabetic ketoacidosis (n = 8), sepsis or septic shock (n = 9), and acute kidney injury (n = 4).
197 he chlorambucil plus obinutuzumab group (n=1 septic shock, n=1 metastatic skin squamous carcinoma).
198 he 208 cases of KPC-Kp bacteremia identified septic shock, neutropenia, Charlson comorbidity index >=
199 ntial Organ Failure Assessment scores in the septic shock nonsurvivors patients but not in nonseptic
200 lial and fibrotic proteins was higher in the septic shock nonsurvivors patients but not in nonseptic
202 t failure, sepsis severity (severe sepsis vs septic shock), obesity, Mortality in Emergency Departmen
203 stimate baseline mortality risk in pediatric septic shock.Objectives: To assess the association betwe
204 ting consensus criteria for severe sepsis or septic shock on manual chart review were entered into th
206 e ICU admission (OR 5.07, 95% CI 3.18-8.07), septic shock (OR 1.92, 95% CI 0.93-3.98), corticosteroid
207 ST16 (OR 21.4; CI95% 2.3-202.8; p=0,008) and septic shock (OR 11.9; CI95% 4.2-34.1; p<0,001) were ind
208 R 1.943; 95% CI 1.209-3.123), development of septic shock (OR 25.896; 95% CI 8.970-74.765), and the p
209 ence interval [CI], 2.3-202.8; P = .008) and septic shock (OR, 11.9; 95% CI, 4.2-34.1; P < .001) were
211 base using explicit codes for severe sepsis, septic shock, or Dombrovskiy criteria (concomitant codes
213 Consecutive sample of all severe sepsis and septic shock patients (defined: infection, >/= 2 systemi
215 talloid resuscitation provided to sepsis and septic shock patients at initial presentation and 2) det
218 he timing of antibiotics and mortality among septic shock patients has not been examined among patien
219 mean arterial pressure with noradrenaline in septic shock patients improves density and flow in small
220 ng samples from 10 healthy volunteers and 20 septic shock patients stratified using human leukocyte a
221 e whether progressive loss of muscle mass in septic shock patients was associated with mortality.
222 es: healthy volunteers, intermediate mHLA-DR septic shock patients, and low mHLA-DR septic shock pati
223 erbate elevated cytokine levels in plasma of septic shock patients, consistent with a safe response.
224 (TNF-alpha) secretion by single monocytes in septic shock patients, to study immune responses by meas
229 ts (n = 274) diagnosed with severe sepsis or septic shock per Sepsis-2 criteria from September to Nov
235 able intensive care patients with or without septic shock (recommended threshold for RBC transfusion,
237 hepatitis related to atezolizumab [n=1] and septic shock related to nab-paclitaxel [n=1]) and one (<
239 hypotensive and was admitted to ICU in frank septic shock requiring inotropes, and with demonstrable
240 that included adult patients (n = 868) with septic shock requiring more than 5 mug/min of norepineph
242 ational Consensus Definitions for Sepsis and Septic Shock (Sepsis-3) criteria in the emergency depart
243 ational Consensus Definitions for Sepsis and Septic Shock (Sepsis-3) uses the Sequential Organ Failur
244 ted to the early management of severe sepsis/septic shock (SS/SS) in Emergency Department (ED) has ye
246 four clusters following early prediction of septic shock, stratifying by outcome: the highest-risk a
251 t GNB had a significantly lower incidence of septic shock than nontransplant GNB (10.3% vs 30.7%, p =
252 for >/= 3 days at full dose in patients with septic shock that is not responsive to fluid and moderat
253 irical treatment of patients with sepsis and septic shock, that is, moxifloxacin, meropenem, and pipe
255 0.92-0.98).Conclusions: Among children with septic shock, the PERSEVERE biomarkers predict severe D(
256 acid were not.Conclusions: In patients with septic shock, there was no heterogeneity in effect of ad
257 epsis who are at elevated risk of developing septic shock therefore has the potential to save lives b
258 ation of fluid for infants and children with septic shock (this latter topic was evaluated by evidenc
260 of hereditary angioedema and is involved in septic shock, traumatic injury, Alzheimer's disease (AD)
261 all group of patients with severe sepsis and septic shock treated with hydrocortisone, high-dose asco
263 In genotyped patients in the Vasopressin and Septic Shock Trial trial, we found that the 3-Hydroxy-3-
265 In 632 patients enrolled in Vasopressin and Septic Shock Trial, Proprotein Convertase Subtilisin/Kex
267 patients with AKI in VASST (Vasopressin and Septic Shock Trial; n = 271), and differences in treatme
272 a double-blind, randomized clinical trial in septic shock (VANISH [Vasopressin vs. Norepinephrine as
273 ntensive care unit (ICU) stay for >24 hours, septic shock, vasoactive agents, positive-pressure venti
276 re initiating therapy, whereas patients with septic shock warrant emergent broad-spectrum antibiotics
277 ng intensity during the first 24 hours after septic shock was associated with increased mortality.
282 ncer patients admitted to ICUs for sepsis or septic shock were extracted from the Groupe de Recherche
286 oclax group (two from pneumonia and one from septic shock) were considered treatment-related; no deat
288 tcomes of 82 patients (aged >=18 years) with septic shock who received VA-ECMO at five academic ECMO
290 tients meeting criteria for severe sepsis or septic shock who were admitted to the ICU from the emerg
291 Two deaths were deemed treatment related (septic shock with 60 mg/m(2); pneumonia with 90 mg/m(2))
292 ong all groups (septic shock: 12.6% to 6.7%; septic shock with acute respiratory failure receiving in
293 patients with septic shock (22.1% to 15.5%), septic shock with acute respiratory failure receiving in
294 ients with septic shock (21.2% to 10.8%) and septic shock with acute respiratory failure receiving in
296 kers can identify subgroups of patients with septic shock with differential treatment responses to hy