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1 ins of demographics and anthropometrics (7), prehospital (11), emergency department (13), diagnosis (
2  onset, 447 (30%) received fibrinolysis (66% prehospital; 97% with subsequent angiography, 84% with s
3 ct-to-device times among groups implementing prehospital activation (88 minutes implementers versus 8
4 nfarction care, performing prehospital ECGs, prehospital activation of the catheterization laboratory
5 a registry participation (N = 311, 84%); and prehospital activation of the laboratory through emergen
6 mergency medical service personnel requested prehospital activation.
7 of the inventory of available medications in prehospital acute myocardial infarction management.
8                   The prospective controlled Prehospital Acute Neurological Treatment and Optimizatio
9                                       In the Prehospital Acute Neurological Treatment and Optimizatio
10                        As such, even routine prehospital administration becomes extremely feasible fo
11                                              Prehospital administration of crushed prasugrel tablets
12                                              Prehospital administration of rPA is a feasible approach
13                                      Whether prehospital administration of ticagrelor can improve cor
14                                              Prehospital administration of ticagrelor in patients wit
15 s have undergone only limited evaluation for prehospital administration.
16 n glucose greater than or equal to 30% below prehospital admission levels (estimated by hemoglobin A1
17  gap at critical care initiation relative to prehospital admission standard anion gap is a predictor
18 tical care initiation standard anion gap and prehospital admission standard anion gap is associated w
19 , primarily focusing on the major problem of prehospital adult cardiac arrest.
20               Risks and benefits of ultimate prehospital airway control is a controversial topic.
21                        Controlled studies in prehospital airway management are few.
22                          Ensuring quality in prehospital airway management is challenging because the
23                                              Prehospital airway management is difficult with a high r
24 on by emergency medical service leaders that prehospital airway management is prone to error.
25 tors must critically evaluate the quality of prehospital airway management that they are providing to
26                                  Analysis of prehospital airway management using a prospective regist
27 ness, timeliness, efficiency, and equity for prehospital airway management, specifically endotracheal
28       Airway management strictly following a prehospital algorithm.
29 gan to be developed in an attempt to improve prehospital and acute care for these patients.
30  technologies could improve the potential of prehospital and early hospital care to pre-empt or more
31  the data were analyzed to determine various prehospital and early in-hospital clinical and logistica
32 cident literature has focused exclusively on prehospital and emergency department resources needed fo
33 , likelihood of the OHCA being observed, and prehospital and hospital-based resuscitative factors des
34  requirements, equipment, and development of prehospital and in-hospital airway algorithms are needed
35 nts did not differ significantly between the prehospital and in-hospital groups.
36     The aim of this study was to analyse the prehospital and in-hospital response to the incident and
37  with abusive head trauma had differences in prehospital and in-hospital secondary injuries which cou
38 jured patient is currently practiced in both prehospital and in-hospital settings.
39 nd the United States differ significantly in prehospital and inhospital management, previous comparis
40                                Adjusting for prehospital and inpatient covariates, cardiopulmonary re
41 ted with 1-year mortality independently from prehospital and intrahospital risk factors, especially i
42 e association between total medical contact, prehospital, and emergency department delays in antibiot
43         Demographics, injury-related scores, prehospital, and resuscitation events were analyzed.
44 ion, hemoptysis, multilobar infiltrates, and prehospital antibiotics.
45 t Association, addresses only around 1-2% of prehospital arrests, and will have a minimal impact on p
46  including age, gender, current tobacco use, prehospital aspirin use, race, and Acute Physiology and
47            This effect may be potentiated by prehospital aspirin use.
48                                              Prehospital blood product transfusion in trauma care rem
49 e aim of this study was to determine whether prehospital blood products reduce 30-day mortality in pa
50 tients with hemorrhagic shock should receive prehospital blood products when available, preferably pa
51 tients with hemorrhagic shock should receive prehospital blood products when available, preferably PR
52      Adults in King County, Washington, with prehospital cardiac arrest and resuscitated by paramedic
53 zed clinical trial that assigned adults with prehospital cardiac arrest to standard care with or with
54 sion criteria were a) emergent operation, b) prehospital cardiac arrest, and c) comfort measures only
55 hermia during CPR (618 patients) or standard prehospital care (580 patients).
56             Medical professionals working in prehospital care and acute care settings are likely to e
57 ains controversial, especially in respect of prehospital care and regionalisation of trauma-care deli
58  whereas in France there is more emphasis on prehospital care coordinated by the Service d'Aide Medic
59 ven after adjustment for patient, event, and prehospital care differences.
60 t advances that have occurred in battlefield prehospital care driven by our ongoing combat experience
61 dy found no benefit associated with advanced prehospital care for patients with severe head injury.
62                  Historic advances in combat prehospital care have been made in the last decade.
63                     Data were collected from prehospital care to 72 h following admission or death.
64 g rapid and correct diagnosis of diseases in prehospital care, emergency, and remote settings.
65                   Despite recent advances in prehospital care, multidetector computed tomographic (CT
66  to be developed for effective and adaptable prehospital care, patient transfer, in-hospital care and
67                  With recent improvements in prehospital care, trauma specialists face more challengi
68 the trauma centre, with a lesser emphasis on prehospital care, whereas in France there is more emphas
69 e seizures (28.6% vs 7.7%; p < 0.001) during prehospital care.
70 take of 4 key care processes increased after prehospital catheterization laboratory activation (62%-9
71 on myocardial infarction networks focused on prehospital catheterization laboratory activation, singl
72 omputerized ICU chart/monitors, hospital and prehospital charts, and the national death index.
73                                              Prehospital chest tube insertions (214 vs 158) and surgi
74 g improves outcome after cardiac arrest, but prehospital cooling immediately after return of spontane
75                              Although use of prehospital cooling reduced core temperature by hospital
76            The task force recommends against prehospital cooling with rapid infusion of large volumes
77 diac arrest to standard care with or without prehospital cooling, accomplished by infusing up to 2 L
78          Observational evaluation of a large prehospital database established as a part of the Excell
79                                       Of 847 prehospital deaths, 758 (89.5%) were nonpreventable.
80 mergency department delay (p = 0.04) but not prehospital delay (p = 0.61).
81 le range, 2.7-8.0 hr), divided into a median prehospital delay of 0.52 hours (interquartile range, 0.
82   However, in contrast to inhospital delays, prehospital delays are unchanged despite substantial eff
83 als were associated with advanced pathology, prehospital delays were more profoundly related to worse
84                  This hinges on well-defined prehospital destination criteria, interfacility transfer
85 a system planning efforts should focus on 1) prehospital destination protocols that allow direct tran
86 tients are also under investigation, such as prehospital differential blood pressure management, reve
87 nded in the following situations: (1) longer prehospital duration; (2) lower National Institute of He
88 n </=8 minutes, on-scene time </=15 minutes, prehospital ECG acquisition to ST-elevation myocardial i
89 elevation myocardial infarction diagnosed by prehospital ECG between May 2007 and March 2009.
90 earest PCI center, initial heart rhythm, and prehospital ECG information was performed.
91 ardial infarction patients identified with a prehospital ECG treated at 371 primary percutaneous coro
92 or-to-activation time include the following: prehospital ECG use (61% shorter, 95% confidence interva
93 ardial infarction patients identified with a prehospital ECG, the rate of ED bypass varied significan
94 ation myocardial infarction care, performing prehospital ECGs, prehospital activation of the catheter
95       Wireless technologies used to transmit prehospital electrocardiograms (ECGs) have helped to dec
96             This process is accelerated with prehospital electrocardiography and notification.
97                       Tracheal intubation in prehospital emergency care is challenging.
98 n be reduced by timely delivery of effective prehospital emergency care.
99                    It was coordinated by the prehospital emergency medical service and encompassed th
100 e in cardiac arrest and were given CPR by 15 prehospital emergency medical service units.
101 ices are equivalently well suited for use in prehospital emergency tracheal intubation of adult patie
102   Critical care is a continuum that includes prehospital, emergency department (ED), and intensive ca
103 inical information regarding patients across prehospital, emergency department, and acute care hospit
104 ent variables encompassing demographic data, prehospital, emergency department, and pediatric critica
105 l indicators across all treatment locations (prehospital, emergency department, operating room, and I
106 es to simulate conventional treatment in the prehospital, emergency room, and early intensive care un
107 to phases to simulate treatment in a typical prehospital, emergency room, and intensive care unit.
108                                 Among 58,934 prehospital encounters, 2,683 had community-acquired sep
109 ntilation and oxygenation to patients in the prehospital environment and that are safe and effective,
110                    Additional adjustment for prehospital exposure time and intravenous fluid therapy
111                                     However, prehospital factors such as postresuscitation electrocar
112                                              Prehospital fibrinolysis markedly improved access to tim
113 .57 (95% confidence interval, 0.36-0.88) for prehospital fibrinolysis versus pPCI, and 0.63 (95% conf
114                                              Prehospital fibrinolysis with timely coronary angiograph
115                      It is not known whether prehospital fibrinolysis, coupled with timely coronary a
116 tive use of fibrinolytic therapy, especially prehospital fibrinolysis, when primary percutaneous coro
117 s (e.g. ketamine) recommended for use in the prehospital, field setting.
118 t count, hemoglobin, prehospital plasma, and prehospital fluids (100 pg/mL higher adrenaline predicte
119  patients co-morbidities, acuity of illness, prehospital functional status, and preferences with rega
120 ts 15 years or older with blunt trauma and a prehospital Glasgow Coma Scale score of 8 or less who di
121 ) after adjusting for Injury Severity Score, prehospital Glasgow Coma Scale, and plasma catecholamine
122  definite stent thrombosis were lower in the prehospital group than in the in-hospital group (0% vs.
123  .001) and an increase in missions achieving prehospital helicopter transport in 60 minutes or less (
124                               Gates mandated prehospital helicopter transport of critically injured c
125        Detailed data for those who underwent prehospital helicopter transport were analyzed according
126            Twenty-two patients who sustained prehospital hypotension following blunt trauma (15 males
127 d patient cohorts suggest that an episode of prehospital hypotension post trauma leads to early, dyna
128 rs were associated with survival: absence of prehospital hypoxia (adjusted hazard ratios, 0.20; 95% C
129 MI of less than 6 hours' duration, comparing prehospital (in the ambulance) versus in-hospital (in th
130                                 The value of prehospital initiation of glycoprotein IIb/IIIa inhibito
131                                              Prehospital initiation of magnesium sulfate therapy was
132 (ER-TIMI) 19 trial tested the feasibility of prehospital initiation of the bolus fibrinolytic retepla
133 st in contemporary practice characterized by prehospital initiation of treatment, optional use of gly
134 e established as a part of the Excellence in Prehospital Injury Care Traumatic Brain Injury Study.
135                                              Prehospital intravenous (IV) fluid administration is com
136  Variations in care were assessed, including prehospital intubation, intracranial pressure monitoring
137 e was considerable variation in the rates of prehospital intubation, intracranial pressure monitoring
138                           The routine use of prehospital IV fluid administration for all trauma patie
139                     The harm associated with prehospital IV fluid administration is significant for v
140     We compared patients with versus without prehospital IV fluid administration, using patient demog
141 s significantly higher in patients receiving prehospital IV fluids (4.8% vs. 4.5%, P < 0.001).
142 pothesized that trauma patients who received prehospital IV fluids have higher mortality than trauma
143          Approximately half (49.3%) received prehospital IV.
144 60 J (adult dose) therapies during simulated prehospital life support.
145 ated external defibrillators administered by prehospital medical providers.
146                                              Prehospital medications and comorbidities were analyzed
147 and encompassed the public emergency system (prehospital mobile units, community-based emergency unit
148 study included patients aged 18 to 85 years, prehospital modified Rankin Scale </=3, ICH volume < 60m
149                                 In contrast, prehospital mortality from sudden cardiac arrest (SCA) r
150 t-centeredness (n=1) of injury care spanning prehospital (n=8), hospital (n=19), and posthospital (n=
151 ation, but rates and factors associated with prehospital neurologic deterioration (PND) are unknown.
152               Adjusting for mode of arrival, prehospital notification, and onset-to-arrival time, the
153                                              Prehospital NSIAD use was independently associated with
154  advanced life support rescuers (paramedics, prehospital nurses, and EMS physicians) who reported at
155  hypothesis that perforation is most often a prehospital occurrence and/or not strictly a time-depend
156                                 No treatment prehospital (odds ratio [OR] 2.4, 95% CI 1.2-4.5) and mo
157                         After adjustment for prehospital (odds ratio, 0.93; 95% confidence interval,
158       61% (147) of 240 episodes were treated prehospital, of which 32 (22%) episodes were terminated.
159 ic Health Evaluation II score), patient age, prehospital or arrival hypotension, admission from a lon
160 mitations in the ability to transfuse in the prehospital or combat setting have stimulated research i
161 initial transfusion, regardless of location (prehospital or during hospitalization), was associated w
162 luded survival at 30 days and a composite of prehospital or in-hospital cardiac arrest or in-hospital
163 es in Afghanistan, blood product transfusion prehospital or within minutes of injury was associated w
164 ents from the PAMPer trial demonstrated that prehospital packed red blood cell and plasma had the gre
165                              The benefits of prehospital packed red blood cells (PRBCs), plasma, or t
166 2013: half-dose tenecteplase was employed in prehospital patients >=75 years) or pPCI.
167                               There were 181 prehospital patients who received percutaneous coronary
168 scoring systems are typically used to assist prehospital personnel determine which patients require t
169                      She was resuscitated by prehospital personnel yet remained comatose at arrival t
170         In the 82 patients >=75 years with a prehospital pharmacoinvasive strategy, similar ST-segmen
171 eased at each stage but was strongest in the prehospital phase (odds ratio, 1.11 [95% CI, 1.06-1.16])
172                               During a 4-hr "prehospital phase," pigs were resuscitated with HBOC-201
173  end of 60 min of resuscitation, a simulated prehospital phase.
174                                              Prehospital physician-led care may produce significant b
175 jects were propensity-score matched based on prehospital physiology and injury severity.
176  The trial randomized 27 helicopter bases to prehospital plasma or standard resuscitation.
177 re, base excess, platelet count, hemoglobin, prehospital plasma, and prehospital fluids (100 pg/mL hi
178                           Patients receiving prehospital PRBC+plasma had the greatest mortality benef
179                                     Among 89 prehospital preventable/potentially preventable (P/PP) d
180 ogic and anatomic injury severity, and other prehospital procedures as covariates.
181                           The changes to our prehospital protocol for adult cardiac arrest that optim
182 from nonshockable initial rhythms treated by prehospital providers in King County, Washington, over a
183               These technologies will assist prehospital providers in quickly identifying and triagin
184 k prediction rules may be safely utilized by prehospital providers, although more data is needed.
185 ught to determine the operational effects of prehospital regionalization of nontrauma, nonarrest crit
186  a retrospective analysis of the London-wide prehospital response and the in-hospital response of one
187 res additional planning precision beyond the prehospital response phase.
188 port restoration of spontaneous circulation, prehospital restoration of spontaneous circulation, hosp
189                                This led to 4 prehospital resuscitation groups: crystalloid only; PRBC
190 s from the Resuscitation Outcomes Consortium Prehospital Resuscitation IMpedance threshold device and
191 s from the Resuscitation Outcomes Consortium Prehospital Resuscitation Impedance Valve and Early Vers
192 OC-PRIMED [Resuscitation Outcomes Consortium Prehospital Resuscitation Using an Impedance Valve and E
193 (AOR, 0.74; 95% CI, 0.62-0.88; P=0.001), and prehospital return of spontaneous circulation (AOR, 0.81
194 uate the association between time of day and prehospital return of spontaneous circulation and 30-day
195 out-of-hospital cardiac arrest patients with prehospital return of spontaneous circulation and evalua
196 ht did not have significantly lower rates of prehospital return of spontaneous circulation compared w
197                        Of 1507 patients with prehospital return of spontaneous circulation, 1359 (90.
198 esignated referral centers using a validated prehospital risk score; we studied three regionalization
199 as compared between study patients receiving prehospital rPA and sequential control patients from 6 t
200 plase (rPA) and determined the time saved by prehospital rPA in the setting of contemporary emergency
201             More than 1 of 20 STEMI presents prehospital SCA after EMS arrival.
202 ristics associated with an increased risk of prehospital SCA and used these variables to build an SCA
203     At the early phase of STEMI, the risk of prehospital SCA can be determined through a simple score
204 f the patients with STEMI at higher risk for prehospital SCA could facilitate rapid triage and interv
205 dence, outcome, and prognosis' predictors of prehospital SCA occurring after emergency medical servic
206 analyzed, 749 (5.6%) presented EMS-witnessed prehospital SCA.
207 e and effective as intravenous lorazepam for prehospital seizure cessation.
208 nstrumental variable to adjust for potential prehospital selection bias.
209      We investigated the association between prehospital serum 25-hydroxyvitamin D [25(OH)D] concentr
210 ervice guidelines to stop futile OHCA in the prehospital setting and the strict use of inclusion and
211 Endotracheal intubation success rates in the prehospital setting are variable.
212  neurologist can provide thrombolysis in the prehospital setting faster than treatment in the hospita
213                     Airway management in the prehospital setting has substantial challenges.
214 or use of supraglottic airway devices in the prehospital setting improves outcomes following out-of-h
215 between time of day and OHCA outcomes in the prehospital setting is unknown.
216 urden of acute cardiovascular illness in the prehospital setting nor make progress toward reducing th
217             RECENT FINDINGS: Research in the prehospital setting to evaluate the need for cervical sp
218     As a result of the dynamic nature of the prehospital setting, coordination and communication can
219                                       In the prehospital setting, countershock terminates ventricular
220 se, by how interventions are provided in the prehospital setting, making that venue critical for life
221 ents for haemorrhagic stroke) options in the prehospital setting, thus functioning as a tool for rese
222  focused on early seizure termination in the prehospital setting.
223 Laryngoscope and direct laryngoscopy for the prehospital setting.
224 atients who did not receive IV fluids in the prehospital setting.
225 e and rapid reperfusion, particularly in the prehospital setting.
226  focus of stroke research has shifted to the prehospital setting.
227 le alternative to direct laryngoscopy in the prehospital setting.
228              Although seizures are common in prehospital settings, standardized emergency medical ser
229 tment protocols and outcomes in hospital and prehospital settings.
230 ded use of REBOA in emergency department and prehospital settings.
231 esuscitation in 44.7%, 30.3%, and 23.4%; and prehospital shock from a defibrillator in 54.7%, 45.0%,
232 n on hospital arrival and had not received a prehospital shock from a defibrillator.
233 atched to recipients by mechanism of injury, prehospital shock, severity of limb amputation, head inj
234 ax, abdomen, extremities), and occurrence of prehospital shock.
235 aluated whether this is true in a real-world prehospital ST-segment elevation myocardial infarction n
236 al mortalities for patients with and without prehospital statin use (odds ratio 1.06, 95% confidence
237                                              Prehospital statin use was not associated with delirium
238 % CI, 0.44-1.66; p = 0.18), yet the longer a prehospital statin user's statin was held in the ICU, th
239 Evaluation II was 25 (19-31), 257 (34%) were prehospital statin users and 197 (26%) were ICU statin u
240 n the field, has been suggested as a primary prehospital strategy.
241 esent reviewing early treatment with tPA and prehospital stroke evaluation and treatment.
242 , thus functioning as a tool for research on prehospital stroke management.
243 ication algorithm at dispatcher level; and a prehospital stroke team.
244                                   Studies of prehospital stroke treatment consistently report a reduc
245                            Implementation of prehospital stroke triage is a public policy interventio
246                          Implementation of a prehospital stroke triage policy in Chicago resulted in
247                                              Prehospital sudden cardiac arrest (SCA) became one of th
248 ng the study period and partly accounted for prehospital survival trends.
249 val was attributable to both higher rates of prehospital survival, where risk-adjusted rates increase
250 pears to occur after hospitalization, not in prehospital survival.
251                                       Use of prehospital systemic corticosteroid therapy may prevent
252 We found a linear association between lowest prehospital systolic blood pressure and severity-adjuste
253 region severity score of 3 or greater) and a prehospital systolic pressure between 40 and 119 mm Hg w
254 d the management of combat casualties in the prehospital tactical setting.
255 ver-triage rates were reduced where advanced prehospital teams did initial scene triage.
256                                              Prehospital time intervals were as follows: 9-1-1 call r
257 ctive of this study was to determine whether prehospital time intervals were associated with ST-eleva
258 ics, wounding mechanism, injuries sustained, prehospital times, location of first laparotomy (Role 3
259                  In this patient population, prehospital timing benchmarks were associated with syste
260  consciousness was also associated with more prehospital tonic-clonic activity (22.7% vs 4.2%; P < .0
261                    Education and fielding of prehospital tourniquets in the military environment shou
262                                              Prehospital tourniquets were applied in 194 patients of
263                                Initiation of prehospital transfusion and time from MEDEVAC rescue to
264                To examine the association of prehospital transfusion and time to initial transfusion
265                         The findings support prehospital transfusion in this setting.
266 e range, 22 to 29 years]; 98% male), 3 of 55 prehospital transfusion recipients (5%) and 85 of 447 no
267 d hazard ratio for mortality associated with prehospital transfusion was 0.26 (95% CI, 0.08 to 0.84,
268 To balance injury severity, nonrecipients of prehospital transfusion were frequency matched to recipi
269                                              Prehospital transport time and treatment capability are
270 of low surgeon-to-population ratios and poor prehospital transport, even living within a 2-h access z
271 have limited value for prediction of LSIs in prehospital trauma patients with normal standard vital s
272 ocardiographic recordings collected from 159 prehospital trauma patients with normal standard vital s
273                                      Current prehospital traumatic brain injury guidelines use a syst
274 without adversely affecting ICU occupancy or prehospital travel time.
275 tment of status epilepticus and suggest that prehospital treatment is beneficial, that therapeutic dr
276 to these criteria to develop the Air Medical Prehospital Triage (AMPT) score.
277 e impact that a citywide policy recommending prehospital triage of patients with suspected stroke to
278                     Regionalization based on prehospital triage of the critically ill can allocate hi
279                                              Prehospital triage policy of patients with stroke to pri
280                               The success of prehospital triage protocols for patients with ST-elevat
281                                        While prehospital triage to the closest comprehensive stroke c
282                                            A prehospital trial in trauma patients has been proposed t
283                                            A prehospital uDCD protocol to bring all OHCA patients who
284                             Patients who had prehospital use of both statins and aspirin had the lowe
285  We also investigated the effect of combined prehospital use of both statins and aspirin.
286                                              Prehospital use of iron or erythropoietin and platelet t
287                                              Prehospital use of statins may be protective against sep
288                                              Prehospital use of systemic corticosteroids neither decr
289                                              Prehospital use of the GlideScope was associated with so
290 as strongly associated with saved lives, and prehospital use was also strongly associated with lifesa
291 rch should further explore smoking and other prehospital variables as risks for IF.
292 iatric dosing in a piglet model of prolonged prehospital ventricular fibrillation (VF).
293                  High rates of survival from prehospital ventricular fibrillation have been documente
294  for shock (weak or absent radial pulse) and prehospital versus emergency department (ED) tourniquet
295 ical status among patients resuscitated from prehospital VF or those without VF.
296  investigation was to compare the outcome of prehospital VF victims shocked into asystole or PEA with
297                                              Prehospital whole blood may be ideal in this population.
298                    Among patients identified prehospital with ST-segment-elevation myocardial infarct
299          We studied 1687 patients identified prehospital with ST-segment-elevation myocardial infarct
300                    Among patients identified prehospital with ST-segment-elevation myocardial infarct

 
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