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1 children were included (n = 35 with abusive head trauma).
2 pact to the head (hereinafter referred to as head trauma).
3 hage in infants at increased risk of abusive head trauma.
4 hemorrhage (ICH) associated with stroke and head trauma.
5 hat placed them at increased risk of abusive head trauma.
6 hemia results from cardiac arrest, stroke or head trauma.
7 and management of children with minor blunt head trauma.
8 risk of intracranial injury following minor head trauma.
9 fective in lowering the incidence of abusive head trauma.
10 progressive neuronal injury after stroke and head trauma.
11 anism of avoidable neuronal injury following head trauma.
12 Three patients had predisposing head trauma.
13 presentations of this form of non-accidental head trauma.
14 ly present for medical care after sustaining head trauma.
15 al outcome after focal cerebral ischemia and head trauma.
16 tive cytokine produced in response to severe head trauma.
17 or longer) changes in the hippocampus after head trauma.
18 dentate gyrus 1 week after fluid percussion head trauma.
19 ation hardware, and general neurosurgery and head trauma.
20 eath was listed as cerebrovascular stroke or head trauma.
21 disease incidence cases without a history of head trauma.
22 of neurological disorders such as stroke and head trauma.
23 rachnoid bleeds in infants who have suffered head trauma.
24 s a genetic susceptibility to the effects of head trauma.
25 aluation as a neuroprotectant for stroke and head trauma.
26 of intracranial hypertension as a result of head trauma.
27 A 12% mortality was experienced after head trauma.
28 known to contribute to neuronal damage from head trauma.
29 ease were evaluated in rat brain cells after head trauma.
30 The effect was particularly strong for mild head trauma.
31 ntervals of 3, 10, 24 h, 3 and 10 days after head trauma.
32 dichotomized based on likelihood of abusive head trauma.
33 o history of loss of consciousness or direct head trauma.
34 hild was acting abnormally after minor blunt head trauma.
35 o our institution for possible nonaccidental head trauma.
36 emorrhages are an important sequela of fatal head trauma.
37 aining as a sign of axonal injury in abusive head trauma.
38 A history of LOC after minor blunt head trauma.
39 in patients with a baseline elevated ICP or head trauma.
40 department evaluation of children with blunt head trauma.
41 ecrease morbidity and mortality from abusive head trauma.
42 to minimize neuronal death after a stroke or head trauma.
43 ense of smell in people undergoing recurrent head traumas.
45 nt of the brain was reduced in patients with head trauma (2.8 +/- 1.4 to 1.1 +/- 0.9 [SEM]) and in pa
46 here was no difference in mortality (abusive head trauma, 25.7% vs nonabusive head trauma, 18.7%; haz
47 s were more frequent among the subjects with head trauma (27.8%) than among the population controls (
48 acranial hypertension in each group (abusive head trauma, 66.7% vs nonabusive head trauma, 69.0%).
56 ,412 children aged 0 to 18 years with blunt head trauma and Glasgow Coma Scale scores of 14 and 15 e
57 ildren younger than 2 years with minor blunt head trauma and guardian reports of the child acting abn
60 imer's disease and to the poor outcome after head trauma and stroke associated with apoE4 in humans.
63 to the emergency department with acute blunt head trauma and were examined with multidetector CT veno
64 Children with severe thrombocytopenia plus head trauma and/or hematuria appeared to be at particula
65 osis and is implicated in cerebral ischemia, head trauma, and age-related neurodegenerative diseases.
70 ts without headache, coma triggered by minor head trauma, and slowly progressive cerebellar ataxia) w
71 nical evaluation of ACEA 1021 for stroke and head trauma, and suggests that glycine site antagonists
72 s have suggested that outcomes after abusive head trauma are less favorable than after other injury m
74 nts; DGF; donor age older than 35 years; and head trauma as a cause of initial injury (relative risk
75 ing sports today that have a similar risk of head trauma as high school football played in the 1950s.
76 A and therefore eliminated the occurrence of head trauma associated with other preclinical stroke mod
77 ision rules can identify patients with minor head trauma at low risk of severe intracranial injuries.
78 children aged 0-2 years treated for abusive head trauma at our institute between 1997 and 2009 were
80 Common predisposing factors include closed head trauma, blood pressure alterations, history of pitu
83 oduced by experimental status epilepticus or head trauma can be replicated by focal interneuron loss
84 cale scores </=8, without gunshot or abusive head trauma, cardiac arrest, or Glasgow coma scale score
85 uality RetCam images of 21 eyes from abusive head trauma cases with varying degrees of retinal hemorr
89 ever, whether a single episode of concussive head trauma causes a persistent increase in neuronal exc
91 her elucidate the association of exposure to head trauma, clinical features, and the development of p
93 and involved more retinal layers in abusive head trauma compared to controls (OR 2.7, CI 1.7-4.4; P
98 ermine the relationships between measures of head trauma exposure and other potential modifiers and c
100 ors that differentiate children with abusive head trauma from those with traumatic brain injury from
102 ecember 31, 2010, with severe TBI (ie, blunt head trauma, Glasgow Coma Scale score of <9, and abnorma
105 e, multicenter series, children with abusive head trauma had differences in prehospital and in-hospit
108 ve telephone clinical assessments (including head trauma history) with informants were performed blin
109 vous system are elevated, such as stroke and head trauma, homocysteine's neurotoxic (agonist) attribu
110 acerebral hemorrhage (ICH) caused by stroke, head trauma, hypertension, and a wide spectrum of disord
113 story, it is important to consider inflicted head trauma in infants and young children presenting wit
118 that a single episode of experimental closed head trauma induces long-lasting alterations in the hipp
126 hs suggest that children with severe abusive head trauma may benefit from therapies including invasiv
127 ic lateral sclerosis (ALS) and that repeated head trauma might have contributed to this increase.
129 neurotoxicity has been implicated in stroke, head trauma, multiple sclerosis and neurodegenerative di
130 after closed-head injury, particularly mild head trauma, must include consideration of the effect of
131 ospital emergency room in 1999 with an acute head trauma (n = 737) were followed up until February 20
132 e, has been described in ischemic stroke and head trauma, no information exists regarding their possi
133 orthodromically evoked [K+]o elevation after head trauma occurred in association with a greater popul
134 We sought to determine the impact of abusive head trauma on mortality and identify factors that diffe
137 ury is clearly evident whether the injury is head trauma or ischemia, or whether the measurements wer
141 alformation, intracranial venous thrombosis, head trauma, or tumour; haemorrhagic transformation with
145 ation in therapies and outcome for pediatric head trauma patients by patient characteristics and by p
148 ld of child maltreatment, addressing abusive head trauma, physical abuse, sexual abuse, and global is
151 focusing on home visiting programs, abusive head trauma primary prevention, parent training programs
153 concentration was observed in patients with head trauma (r2 = .91, p = .03), and postoperative edema
155 mography scans for children with minor blunt head trauma resulting in potentially harmful radiation e
156 fter 40 days because of mechanical fall with head trauma resulting in subdural hematoma with no assoc
157 essing epidemiology, physical abuse, abusive head trauma, sexual abuse, sequelae, and prevention.
158 Individuals were excluded for history of head trauma, significant substance abuse, and medical co
159 Patients with a history of stroke, burn, head trauma, spinal cord injury, or joint replacement we
161 pressive craniectomy is often required after head trauma, stroke, or cranial bleeding to control subs
163 findings that are characteristic of abusive head trauma--subdural hemorrhages, optic nerve sheath he
170 ce of compressive deformations in most blunt head trauma, this information is critically important fo
171 rs in the cortex after a latent period after head trauma; this delay has been attributed to the desta
172 reated in 25 emergency departments for blunt head trauma, traumatic brain injury was identified on CT
174 function and the influences of etiology (eg, head trauma, upper respiratory infection), sex, age, smo
175 ases in the dentate gyrus after experimental head trauma, using a combination of whole-cell recording
177 ces of spinal subdural hemorrhage in abusive head trauma versus those in accidental trauma was statis
178 tion is often compromised by such factors as head trauma, viruses, and toxic agents, the olfactory ep
179 ention) among the 23,079 patients with minor head trauma was 7.1% (95% CI, 6.8%-7.4%) and the prevale
180 The DNA fragmentation induced after severe head trauma was accompanied by an increase in the activi
184 PK organs were younger, more often died from head trauma, were less often female, and more often blac
186 This is most evident with regards to abusive head trauma, wherein both lay and scientific press chall
187 for ophthalmic findings in suspected abusive head trauma, which has excellent interobserver and intra
188 teen patients with acute stroke and two with head trauma who had undergone intraarterial or intraveno
189 nt in more than 60% of children with abusive head trauma who underwent thoracolumbar imaging in this
190 nger than 18 years presenting within 24 h of head trauma with Glasgow Coma Scale scores of 14-15 in 2
191 whether they had experienced an MMTBI (blunt head trauma with loss of consciousness, amnesia, or diso
193 t is not known why long-term mortality after head trauma without traumatic brain injury is elevated.
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