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1 myocardial injury from the infection (22% of critically ill patients).
2 chnical airway skills involved in managing a critically ill patient.
3 basic knowledge of physicians caring for the critically ill patient.
4 gs attention to the respiratory drive of the critically ill patient.
5 with hypoxia and hemodynamic instability in critically ill patients.
6 e respiratory distress syndrome is common in critically ill patients.
7 ologic outcome compared with normothermia in critically ill patients.
8 oalveolar lavage and cerebrospinal fluids of critically ill patients.
9 ting reversibility of acute kidney injury in critically ill patients.
10 the reversibility of acute kidney injury in critically ill patients.
11 own about their impact on the outcome of non-critically ill patients.
12 nt is not associated with a worse outcome in critically ill patients.
13 was associated with increase risk of harm in critically ill patients.
14 ement of impaired intestinal transit even in critically ill patients.
15 rt toward improving the delivery of care for critically ill patients.
16 Tracheal intubation is commonly performed in critically ill patients.
17 general population and defined subgroups of critically ill patients.
18 nfluencing delivery of early mobilization to critically ill patients.
19 intensive care-applied therapies applied to critically ill patients.
20 clock genes in healthy controls, but none in critically ill patients.
21 gnized clinical problem, typically occurs in critically ill patients.
22 ionale: Acidemia is a severe condition among critically ill patients.
23 es of hyperferritinemia in a mixed cohort of critically ill patients.
24 s with modern emergency airway management in critically ill patients.
25 Consecutive endotracheal intubations in critically ill patients.
26 aining who may be suddenly asked to care for critically ill patients.
27 ment of acquired liver injury and failure in critically ill patients.
28 help expand the donor pool in this subset of critically ill patients.
29 nation method for endotracheal intubation in critically ill patients.
30 ill continue to enhance our ability to treat critically ill patients.
31 xamination findings with 90-day mortality in critically ill patients.
32 gnostic yield of transvenous renal biopsy of critically ill patients.
33 may positively impact the care of high risk, critically ill patients.
34 restricting the ability to effectively treat critically ill patients.
35 ality was 5%, but significantly higher among critically ill patients.
36 n that has consistently reduced mortality in critically ill patients.
37 ctability in extubation failure detection in critically ill patients.
38 i responsible for blood stream infections in critically ill patients.
39 amples from a cohort of septic and nonseptic critically ill patients.
40 nce = end-systolic pressure/stroke volume in critically ill patients.
41 s and may help to prevent volume overload in critically ill patients.
42 contributor to morbidity and mortality among critically ill patients.
43 of iohexol clearance measurement in unstable critically ill patients.
44 gorithm to improve the overall care of dying critically ill patients.
45 ve alcohol consumption on kidney function in critically ill patients.
46 clinical judgment of the risk of seizures in critically ill patients.
47 racy of a blood glucose monitoring system in critically ill patients.
48 ability are associated with poor outcomes in critically ill patients.
49 in modifies duration of delirium and coma in critically ill patients.
50 n MRI at the point of care, particularly for critically ill patients.
51 e, blood pressure, and heart rate in febrile critically ill patients.
52 ains a major cause of respiratory failure in critically ill patients.
53 s and leading to questions over their use in critically ill patients.
54 ily risk of individual organ dysfunctions in critically ill patients.
55 tributor to weaning difficulty in ventilated critically ill patients.
56 atients was observed in this large cohort of critically ill patients.
57 s commonly used to assess immune function in critically ill patients.
58 ed with increased morbidity and mortality in critically ill patients.
59 of AKI, death, and other adverse outcomes in critically ill patients.
60 and contractile weakness of the diaphragm in critically ill patients.
61 lly in hospitalized and immunocompromised or critically ill patients.
62 amage in mechanically ventilated and sedated critically ill patients.
63 should be not used to track contractility in critically ill patients.
64 nary artery occlusion pressure in ventilated critically ill patients.
65 quently required for mechanically ventilated critically ill patients.
66 e of admission to the intensive care unit in critically ill patients.
67 and safe assessing thromboembolic disease in critically ill patients.
68 ten results in significant fluid overload in critically ill patients.
69 ate that is both common and consequential in critically ill patients.
70 e measure of the central circadian rhythm in critically ill patients.
71 N ratio correlated with improved outcome for critically ill patients.
72 gut-associated bacteria) predict outcomes in critically ill patients.
73 of epinephrine administration on outcome of critically ill patients.
74 Hyperferritinemia is frequently seen in critically ill patients.
75 tensive care unit, with a proven benefit for critically ill patients.
76 med for prolonged endotracheal intubation in critically ill patients.
77 the pathophysiology of respiratory drive in critically ill patients.
78 s, our institution prepared for an influx of critically ill patients.
79 ardiography as a predictor of outcomes among critically ill patients.
80 ility, organ injury and improved outcomes in critically ill patients.
81 organ support and of short-term mortality in critically ill patients.
82 smission and subsequent ESBL-E infections in critically-ill patients.
85 ependently predicts in-hospital mortality in critically ill patients across the glycemic spectrum.
86 conducted a prospective cohort study of 350 critically ill patients admitted to intensive care units
87 nd platelet activation in critically and non-critically ill patients admitted to the hospital with CO
89 We considered any outcome related to the critically ill patient and/or their family member, outco
90 ied in serum from 321 prospectively enrolled critically ill patients and compared with clinical outco
91 ghlighted other important considerations for critically ill patients and evaluated interventions to r
92 evidence on fluid overload and mortality in critically ill patients and have performed a meta-analys
94 lternative complement pathway in a series of critically ill patients and in a mouse pneumonia model.M
96 is a common cause of respiratory failure in critically ill patients and is defined by the acute onse
97 the dominant acute kidney injury etiology in critically ill patients and is often associated with a n
99 of any intervention or monitoring system in critically ill patients and reported mortality as a prim
100 for development of axonal polyneuropathy in critically ill patients and since insulin therapy may be
101 d that granular and autonomous monitoring of critically ill patients and their environment is feasibl
102 ve consensus and improve decision-making for critically ill patients and their family members at the
103 ze acute alterations of circadian rhythms in critically ill patients and to evaluate associations bet
104 e multicentral database of perioperative and critically ill patients and to use this automatic algori
106 ean Outcome Registry in ICUs) enrolled 2,087 critically ill patients, and AdrenOSS-1 (Adrenomedullin
107 ll patients, very specific subpopulations of critically ill patients, and on early goal-directed ther
109 ctives: To determine if clinical outcomes of critically ill patients are predicted by features of the
112 equations against indirect calorimetry among critically ill patients at different phases of critical
114 strategies that improve clinical outcomes of critically ill patients boarded in the emergency departm
115 entral venous catheters, are often needed in critically ill patients, but also are associated with co
116 s are preparing for the anticipated surge in critically ill patients, but few are wholly equipped to
118 n was effective in enhancing the recovery of critically ill patients, but more large-scale, multicent
120 due to sepsis remains a persistent threat to critically ill patients confined to the intensive care u
121 lasma concentration-time data from 214 adult critically-ill patients (creatinine clearance 0-236mL/mi
125 gly considered as a bedside gold standard in critically ill patients due to its overwhelming advantag
126 de YY and ghrelin in control subjects and in critically ill patients, during feeding and fasting, and
128 d a high diagnostic yield for these selected critically ill patients, even in the presence of multipl
129 thy should be managed as it would be for any critically ill patient, following the established practi
136 ute lung injury (ALI), a common condition in critically ill patients, has limited treatments and high
139 (CKRT) can be a lifesaving intervention for critically ill patients; however, mortality remains high
143 rowding and limited critical care resources, critically ill patients in the emergency department may
145 P tool may be used in the future to stratify critically ill patients in the ICU according to their im
148 remains in identifying the immune profile of critically ill patients in the intensive care unit (ICU)
149 clearance are known predictors of outcome in critically ill patients in the intensive care unit (ICU)
151 ture of COVID-19 and the large population of critically ill patients included in these analyses, the
152 benefit in several disease states impacting critically ill patients including pain, alcohol withdraw
156 to address emergency department boarding of critically ill patients, including emergency department-
157 among patients with ESKD compared with other critically ill patients, including those with diseases o
158 ith early occurrence of new organ failure in critically ill patients, independently of respiratory st
160 Emergency department-based boarding of the critically ill patient is common, but no nationally repr
161 apted pathobiota." Under this framework, the critically ill patient is viewed as a host colonized by
162 t that chronic and current alcohol misuse in critically ill patients is associated with kidney dysfun
163 aims at showing that anxiety at admission in critically ill patients is associated with new organ fai
167 onale: Recent studies have revealed that, in critically ill patients, lung microbiota are altered and
168 al distress in family members of chronically critically ill patients may need to target ICU nurses fo
169 rving hospitals using an inception cohort of critically ill patients.Measurements and Main Results: U
171 h combined antibiotic and steroid therapy in critically ill patients not fitting into established dis
172 o supraphysiologic Pa(O(2)) (hyperoxemia) in critically ill patients.Objectives: To examine the assoc
176 ncentives for physicians to provide care for critically ill patients, particularly at institutions wi
177 enous extracorporeal membrane oxygenation in critically ill patients, particularly regarding safety a
178 alyzed data from a prospective cohort of 996 critically ill patients presenting with acute trauma and
180 the prevalence of venous thromboembolism in critically ill patients receiving different regimens of
181 nctive intermittent pneumatic compression in critically ill patients receiving pharmacologic thrombop
182 s of a hospital, and all hospitals will have critically ill patients regardless of designating a spec
185 y and predicting in-hospital mortality among critically ill patients require time-consuming, error-pr
186 overload and major adverse kidney events in critically ill patients requiring continuous renal repla
187 sed as an inotropic and vasopressor agent in critically ill patients requiring hemodynamic support.
188 and will advance the study and management of critically ill patients requiring mechanical ventilation
189 To observe how surrogates of chronically critically ill patients respond to information about pro
190 ibe the determinants of respiratory drive in critically ill patients, review the tools available to a
194 ere form of antibiotic-associated colitis in critically ill patients signified by microbiota depletio
196 specially compared with other populations of critically ill patients such as sepsis or severe communi
198 100% occurrence of venous thromboembolism in critically ill patients supported by venovenous extracor
199 or of TimeSignature was higher in individual critically ill patients than healthy patients (4.90 vs 1
200 pecific clinical characteristics of infected critically ill patients that mediate the associated path
202 for continuous kidney replacement therapy in critically ill patients, the evidence for this recommend
204 ranging from the morbidity and mortality of critically ill patients to the diagnosis and prognosis o
205 de evidence that rapid admission of the most critically ill patients to the ICU might reduce hospital
206 egy on organ injury are less well studied in critically ill patients treated with continuous kidney r
207 e analysis of circulating cytokine levels in critically ill patients treated with mesenchymal stem/st
210 atient-ventilator asynchrony is common among critically ill patients undergoing mechanical ventilatio
211 e accuracy in predicting 6-month outcomes of critically ill patients varied depending on the outcome
219 n.Measurements and Main Results: Lungs of 91 critically ill patients were sampled using miniature BAL
220 n prominent IFN signatures were only seen in critically ill patients who also exhibited augmented inf
221 systemic inflammatory markers compared with critically ill patients who do not develop ICU-acquired
226 strategies for renal replacement therapy in critically ill patients with acute kidney injury conduct
227 alysate temperature on hemodynamic status of critically ill patients with acute kidney injury during
230 5 volatile organic compounds were greater in critically ill patients with acute kidney injury than in
234 a potential infective complication affecting critically ill patients with acute respiratory distress
241 Ogilvie syndrome, mesenteric ischemia) among critically ill patients with coronavirus disease 2019 (C
242 mor necrosis factor alpha, IL-6, and IL-8 in critically ill patients with coronavirus disease 2019 (C
244 organ failure, and could improve survival in critically ill patients with coronavirus disease 2019 in
245 We reviewed thromboelastography studies in critically ill patients with coronavirus disease 2019 to
248 rohemorrhages were brain imaging features in critically ill patients with coronavirus disease 2019.
249 he cytokine milieu in the lungs and blood of critically ill patients with COVID-19 acute respiratory
252 Care) genome-wide association study in 2,244 critically ill patients with COVID-19 from 208 UK intens
253 idemiology, clinical course, and outcomes of critically ill patients with COVID-19 in this setting ar
254 nsive care unit (ICU) stay suggest that many critically ill patients with COVID-19 will face long-las
255 authors report brain imaging features in 11 critically ill patients with COVID-19 with persistently
259 arries a high risk of complications; half of critically ill patients with difficult airways experienc
260 atients with diseases of other major organs, critically ill patients with ESKD were not more likely t
261 retrospective, observational study included critically ill patients with influenza associated with p
262 pared to late treatment in a large cohort of critically ill patients with influenza of all types.
263 d easily available technique for identifying critically ill patients with intracranial hypertension.
265 This is a retrospective cohort study of critically ill patients with laboratory-confirmed MERS f
267 rferon (RBV/rIFN) therapy on the outcomes of critically ill patients with Middle East respiratory syn
270 the most challenging problems in the care of critically ill patients with oliguric acute kidney injur
272 mendations for the use of corticosteroids in critically ill patients with sepsis and septic shock, ac
280 m the Adjunctive Corticosteroid Treatment in Critically Ill Patients with Septic Shock and Activated
281 m the Adjunctive Corticosteroid Treatment in Critically Ill Patients with Septic Shock and Activated
282 d for Adjunctive Corticosteroid Treatment in Critically Ill Patients with Septic Shock and hydrocorti
283 ,658 (Adjunctive Corticosteroid Treatment in Critically Ill Patients with Septic Shock) and $30,911 (
284 Per Adjunctive Corticosteroid Treatment in Critically Ill Patients with Septic Shock, adjunctive hy
287 The trial was terminated early after 596 critically ill patients with severe acute kidney injury
288 viral replication patterns, and outcomes of critically ill patients with severe acute respiratory in
289 hypotension during vasopressor support among critically ill patients with shock and to determine whet
290 on and adverse kidney-related outcomes among critically ill patients with shock.Objectives: To invest
291 trophilia can exclude bacterial pneumonia in critically ill patients with suspected infection and to
294 ssue biomarkers for prognostic evaluation in critically ill patients with traumatic brain injury.
295 wever, the evidence base guiding the care of critically ill patients with tuberculous meningitis is p
296 gest that we should limit the PaO2 levels of critically ill patients within a safe range, as we do wi
297 r positive end-expiratory pressure (PEEP) in critically ill patients without acute respiratory distre
299 compared with placebo or no intervention in critically ill patients without neutropenia, but the qua
300 It allows prolonged hemodialysis sessions in critically ill patients without the need to systemically