Head Trauma In Children Research Articles

Abusive Head Trauma in Children: A Comparison of Male and Female Perpetrators

To evaluate the effect of perpetrator gender on victim presentation and outcomes, and perpetrator legal outcomes for abusive head trauma (AHT). We performed a retrospective chart review of AHT cases from 1998 to 2008. Patient clinical data and information regarding perpetrator legal outcome was obtained. Relationship of brain injury and retinal hemorrhages (RHs) and differences in categorical variables of perpetrator gender were compared by using Fisher's exact test. Differences in continuous variables between perpetrator gender were compared by using the Mann-Whitney Test. There were 34 cases of AHT with identified perpetrators, 17 of each gender. Mean age of the victims was 9.4 months (SD: 7.8). Thirty-two (94%) had intracranial hemorrhages, 14 (41%) had both primary and secondary brain injury, 28 (82%) had RHs, and 6 (18%) died. The severity of RH was related to the severity of brain injuries (P = .01). The median age for female perpetrators (34 years) was higher than that for males (27 years; P = .001). Six categorical variables were associated with male perpetrator gender: acute presenting symptoms of cardiopulmonary or respiratory arrest (P = .025), worse clinical outcome (P = .012), neurosurgical intervention (P = .037), death (P = .018), perpetrator confession (P = .0001), and conviction (P = .005). There were significant perpetrator gender differences of AHT in children. Male perpetrators were younger and more likely to confess and be convicted. Victims of male perpetrators had more serious acute presentations and neurosurgical intervention and suffered worse clinical outcomes.

Abusive Head Trauma in Children: A Comparison of Male and Female Perpetrators

Abusive Head Trauma in Children: A Comparison of Male and Female Perpetrators

Intracranial Hemorrhage after Blunt Head Trauma in Children with Bleeding Disorders

To determine computerized tomography (CT) use and prevalence of traumatic intracranial hemorrhage (ICH) in children with and without congenital and acquired bleeding disorders. We compared CT use and ICH prevalence in children with and without bleeding disorders in a multicenter cohort study of 43 904 children <18 years old with blunt head trauma evaluated in 25 emergency departments. A total of 230 children had bleeding disorders; all had Glasgow Coma Scale (GCS) scores of 14 to 15. These children had higher CT rates than children without bleeding disorders and GCS scores of 14 to 15 (risk ratio, 2.29; 95% CI, 2.15 to 2.44). Of the children who underwent imaging with CT, 2 of 186 children with bleeding disorders had ICH (1.1%; 95% CI, 0.1 to 3.8) , compared with 655 of 14 969 children without bleeding disorders (4.4%; 95% CI, 4.1-4.7; rate ratio, 0.25; 95% CI, 0.06 to 0.98). Both children with bleeding disorders and ICHs had symptoms; none of the children required neurosurgery. In children with head trauma, CTs are obtained twice as often in children with bleeding disorders, although ICHs occurred in only 1.1%, and these patients had symptoms. Routine CT imaging after head trauma may not be required in children without symptoms who have congenital and acquired bleeding disorders.

S-100B in Serum and Urine After Traumatic Head Injury in Children

Children with head trauma are frequently seen in many emergency units. The clinical evaluation of these patients is difficult for a number of reasons and improved diagnostic tools are needed. S-100B, a protein found in glial cells, has previously been shown to be a sensible marker for brain damage after head injury in adults, but few studies have focused on its use in children. In this study, 111 children with head trauma were included and venous blood and urine samples were taken at arrival (S1 and U1) and 6 hours later (S2 and U2). S-100B levels were analyzed. Clinical and radiologic evaluations were performed according to hospital routine. Two groups were identified- group 1: no computed tomography (CT) scan performed ora CT scan without any sign of trauma-related intracranial pathology (n = 105). Group 2: A CT scan with signs of trauma-related intracranial pathology (n = 6). In group 1, the median (inter quartile range) serum S-100B value in S1-samples was 0.111 microg/L (0.086-0.153), and in group 2, it was 0.282 microg/L (0.195-1.44) (p < 0.01). Also, S2 values significantly differed between the two groups. Urine values were, however, not significantly differing between the groups. Serum S-100B values within 6 hours after head trauma in children were significantly higher in patients with intracranial pathology compared with those without intracranial complications. Identification of these high-risk patients already in the emergency department is of major importance, and we suggest that S-100B could be a valuable diagnostic tool in addition to those used in clinical practice today.

Initial predictive factors of outcome in severe non-accidental head trauma in children

The aim of this study is to evaluate the outcome of young children hospitalized for non-accidental head trauma in our PICU, to evaluate PRISM II score in this sub-population of pediatric trauma and to identify factors that might influence the short-term outcome. Files of all children less than 2 years old with the diagnosis of non-accidental head trauma over a 10-years period were systematically reviewed. We collected data on demographic information, medical history, clinical status, and management in the PICU. Three severity scores were then calculated: PRISM II, Glasgow Coma Scale (GCS), and Pediatric Trauma Score (PTS). Prognosis value of qualitative variables was tested with a univariate procedure analysis (anemia, diabetes insipidus...). Then, quantitative variables were tested with univariate procedure too (age, weight, PRISM II, GCS, Platelet count, fibrin, prothrombin time (PT)...). Potential association between variables and death was tested using univariate procedure. Variables identified by univariate analysis were then analyzed with multivariate analysis through a forward-stepping logistic regression. Thirty-six children were included. Mean age was 5.5 months (8 days-21.5 months). Mortality rate was 27.8%. At admission, PTS, PRISM II, GCS, PT, PTT, and diabetes insipidus were significantly altered or more frequent in non survivors. Cutoff value for PRISM II at which risk of mortality increased was 17.5 (sensitivity = 0.8; specificity = 0.88). PRISM II is a reliable and easy performing tool for assessing the prognosis of non-accidental cranial traumatism in young children. GCS and PTS, scores even simpler than PRISM II, showed good accuracy regarding survival prediction.

Head Trauma in Children, Part 3: Clinical and Psychosocial Outcome After Head Trauma in Children

With the aim of determining long-term outcome, the authors approached 38 families (average 2.1 years after trauma) with a questionnaire, following the acute-clinical treatment of head trauma of their children. Long-term damage was restricted almost exclusively to patients presenting with a Glasgow Coma Score < or =8. Paresis (16%), cranial nerve damage (13%), incontinence (5%), or coordinative disturbances (18%) continued. The older children stated that they influenced their life to a great extent (11%). Furthermore, many had mental and cognitive problems that occur quite frequently even in children with light head trauma and often only manifest after release from hospital. This causes problems and results in inferior performance (26%), especially at school, which is further complicated through lengthy periods of absence. The parents, especially, mentioned behavioral problems such as social withdrawal or aggressive demeanor, which led to tension also inside the family. A persistent vegetative state is rare after head trauma in children.

軽症小児頭部外傷におけるCTの適応 : 2歳未満という年齢は危険因子になりえるか

軽症小児頭部外傷におけるCTの適応 : 2歳未満という年齢は危険因子になりえるか

Head Trauma: When Is a CT Not Indicated?

Head Trauma: When Is a CT Not Indicated?

Continuous Monitoring of Cerebrovascular Pressure Reactivity After Traumatic Brain Injury in Children

We hypothesized that pressure reactivity index (PRx) values indicating preserved cerebrovascular pressure autoregulation would be associated with survival in children with traumatic brain injury (TBI). This hypothesis was tested in a prospective, blinded, observational, pilot study. Twenty-one children admitted between May 2006 and September 2008 with severe TBI necessitating invasive intracranial pressure monitoring were enrolled in this study. The PRx was continuously monitored as a moving, linear correlation coefficient between low-frequency waves of intracranial and arterial blood pressures. Positive values of PRx approaching 1 indicate impaired cerebrovascular pressure reactivity, whereas negative PRx values or values close to 0 indicate preserved cerebrovascular pressure reactivity. Survival was the primary outcome and was compared with the average PRx value obtained during the intracranial pressure-monitoring period. PRx was associated with survival in this cohort; survivors (N = 15) had a mean PRx +/- SD of 0.08 +/- 0.19, and nonsurvivors (N = 6) had a mean PRx of 0.69 +/- 0.21 (P = .0009). In this sample, continuous PRx monitoring suggested impaired cerebrovascular pressure reactivity at low levels of cerebral perfusion pressure (CPP) and intact cerebrovascular pressure reactivity at higher levels of CPP. Intact cerebrovascular pressure reactivity quantified with the PRx is associated with survival after severe head trauma in children. The PRx is CPP dependent in children. The PRx may be useful for defining age-specific and possibly patient-specific optimal targets for CPP after TBI.

Clinically important head injuries after head trauma in children

Clinically important head injuries after head trauma in children

Head Trauma in Children, Part 1: Admission, Diagnostics, and Findings

The objective of this study is to describe and to determine the preclinical situation and early in-clinical situation, diagnostic findings, and factors influencing the outcome of severe head trauma in children. Records of 48 children (0-16 years) were analyzed during a 3-year interval. Correlations with the outcome (Glasgow Outcome Scale) were determined by focusing on different scales, clinical findings, biochemistry, and clinical course features. The initial shock index had a major relevance (P = .0089). Systolic blood pressure (P = .0002) and bradycardia (P = .035) were important factors. Assessing the severity of trauma according to the Glasgow Coma Score, the most accurate parameter for outcome is based on the detailed quality of ''eye opening'' (P = .0155). Pupillary motoricity at the accident site (P = .002) and emergency room (P = .0004) are strong predictors. Preclinical measurements of stabilization and oxygenation have the same impact as the in-clinical management.

Head Trauma in Children, Part 2: Course and Discharge With Outcome

To minimize the secondary brain damage, we analyzed the effect of cerebral perfusion pressure-orientated management and tried to find factors of clinical management and biochemical findings that influence clinical, cognitive, and psychosocial outcome. Management at intensive care unit was standardized. A standardized (short form 36 health survey) and nonstandardized split questionnaire explored long-term outcome. Glutamic-oxaloacetic-transaminase, creatine kinase MB or glucose are markers for bad outcome (P < .05). Patients with cerebral perfusion pressure values below the recommended standard for just a single occurrence had significantly worse outcome (P = .0132). Mean arterial pressure, central venous pressure, and heart rate alone do not correlate with outcome. At least 1 occurrence of mean arterial pressure and central venous pressure below the lower limits resulted in a poor outcome (P = .035). Cerebral perfusion pressure-guided therapy seems to prevent further brain damage and results in outcome scores that are comparable to those children with head trauma exhibiting symptoms of mild brain edema.

Registro de traumatismos craneoencefálicos leves: estudio multicéntrico de la Sociedad Española de Urgencias Pediátricas

Objective To determine management practices of minor head trauma in children evaluated at Spanish Hospital Emergency Departments and to determine patient variables associated with intracranial injury. Methods Multicenter and prospective study during 18 months in 9 hospitals in Spain. Patients up to the age of 18 years with minor head trauma (Glasgow Coma Scale score higher than or equal to 13 on admission), treated in Emergency Departments and with a maximum onset of 72 h since the traumatism, were included in the study. Results A total of 1070 patients were studied with a median age of 2.4 years (p25-75 0.9–6.4 years); 61.2% were male. The median time between head trauma and medical consultation was 1 hour (p25-75 0.6–2.5 h). Skull X-rays were performed on 64.5% of the children and a head CT scan on 9%; 91.4% of X-ray and 84.4% of CT were normal. The prevalence of intracranial injury was 1.4% (95% CI: 0.8–2.3). Twenty-five point three percent of the patients were admitted; 4 (3.7%) required neurosurgical intervention during admission. None of the patients died. Multiple logistic regression analysis identified loss of consciousness (OR 4.2, 95% CI: 1.1–17; P=0.045), neurological deterioration (OR 8.8, 95% CI: 2.1–37.6; P=0.003) and cephalhaematoma (OR 14.6, 95% CI: 4.9–44; P <0.001) as independent predictors of intracranial injury. Conclusions The combination of clinical parameters allows selection of patients with minor head trauma who need complementary explorations. In consequence, the routine use of skull X-ray in their initial evaluation is unnecessary.

NGF, DCX, and NSE upregulation correlates with severity and outcome of head trauma in children

Secondary brain damage after traumatic brain injury (TBI) involves neuroinflammatory mechanisms, mainly dependent on the intracerebral production of specific biomarkers, such as cytokines, neurotrophic factors, and neuron-specific enolase (NSE). NSE is associated with neuronal damage, while neurotrophic factors play a neuroprotective role due to their ability to modulate neuronal precursor biosynthesis, such as doublecortin (DCX). However, the relationships between the expression of these factors and the severity and outcome of TBI are not understood. To determine whether the concentrations of neurotrophic factors (nerve growth factor [NGF], brain-derived neurotrophic factor [BDNF], glial-derived neurotrophic factor [GDNF]), DCX, and NSE in the CSF of children with TBI correlate with the severity of brain damage and neurologic outcome, we prospectively collected CSF samples from 32 children at 2 and 48 hours after admission for severe TBI and from 32 matched controls. Severity of TBI was evaluated by Glasgow Coma Scale and neurologic outcome by Glasgow Outcome Score. Early NGF, DCX, and NSE concentrations correlated significantly with the severity of head injury, whereas no correlation was found for BDNF and GDNF. Furthermore, NGF and DCX upregulation and lower NSE expression were associated with better neurologic outcomes. No significant association was found between BDNF and GDNF expression and outcome. Nerve growth factor (NGF), doublecortin (DCX), and neuron-specific enolase concentrations in the CSF are useful markers of brain damage following severe traumatic brain injury (TBI). NGF and DCX upregulation correlates also with better neurologic outcome and could be useful to obtain clinical and prognostic information in children with severe TBI.

133: Retinal hemorrhages are present—so what does it mean?

Shaken baby syndrome/abusive head trauma in children refers to repetitive violent acceleration–deceleration head and neck movements, with or without blunt head trauma in children typically younger than 3 years of age. It is characterized by a combination of fractures, intracranial hemorrhages, or intraocular hemorrhages with retinal hemorrhages being the most characteristic type of ocular finding. Although the ophthalmologic examination is an important component in the evaluation of the young child whose injuries are suspicious for child abuse, one can not assume that the presence of any retinal hemorrhage means that the child has been a victim of abusive head trauma.

Epilepsy Risk Is Elevated for More Than 10 Years After Head Trauma in Children

Risk for new-onset epilepsy is elevated after traumatic brain injury, but for how long? Using public databases, researchers studied a cohort of 1.6 million people who were born in Denmark between 1977 and 2002. During that period, nearly 79,000 of them incurred traumatic brain injuries, and …

Rare retinal haemorrhages in translational accidental head trauma in children

The characteristic findings in accidental head injury consist of linear skull fracture, epidural haematoma, localized subdural haematoma, or cortical contusion because of a linear or translational impact force. Retinal haemorrhages have been found, although uncommon, in accidental head trauma. We performed a retrospective study of 24 consecutive cases of children with severe head injuries caused by falls. Inclusion criteria were skull fractures and/or intracranial haemorrhages documented by computerized tomography. All patients underwent a careful ophthalmic examination including dilated indirect fundoscopy within the first 48 h following admission. No retinal haemorrhages could be found in patients whose accidents were plausible and physical and imaging findings were compatible with reported histories. Excessive bilateral retinal haemorrhages were found in only three children with the typical signs of shaken baby syndrome. In eight children, trauma had led to orbital roof fractures. Retinal haemorrhages were not found in any of the patients with accidental trauma despite the severity of their head injuries. Hence, we add more evidence that there are strong differences between the ocular involvement in accidental translational trauma and those in victims of non-accidental trauma. Fall-related injuries carry a very low risk of retinal haemorrhages.

Pediatric head trauma: the evidence regarding indications for emergent neuroimaging

Traumatic brain injury (TBI) is a leading cause of childhood death and disability worldwide. In the United States, childhood head trauma results in approximately 3,000 deaths, 50,000 hospitalizations, and 650,000 emergency department (ED) visits annually. Children presenting to the ED with seemingly minor head trauma account for approximately one-half of children with documented TBIs. Despite the frequency and importance of childhood minor head trauma, there exists no highly accurate, reliable and validated clinical scoring system or prediction rule for assessing risk of TBI among those with minor head trauma. At the same time, use of CT scanning in these children in recent years has increased substantially. The major benefit of CT scanning is early identification (and treatment) of TBIs that might otherwise be missed and result in increased risk of morbidity and mortality. Unnecessary CT imaging, however, exposes the child needlessly to the risk of radiation-induced malignancies. What constitutes appropriate criteria for obtaining CT scans in children after minor blunt head trauma remains controversial. Current evidence to guide clinicians in this regard is limited; however, large studies performed in multi-center research networks have recently been conducted. These studies should provide the foundation of evidence to guide CT decisions by clinicians, help identify TBIs in a timely fashion, and reduce unnecessary radiation exposure.

Ocular involvement after subgaleal hematoma

Subgaleal hemorrhage (SGH) is a known complication of both major and minor childhood head trauma. Rarely, it can be associated with intraorbital hemorrhage and ocular compromise. We report a child who presented with SGH and later developed orbital hemorrhages bilaterally with loss of vision necessitating surgical intervention. We also review the literature for this condition.

Peripheral blood picture following mild head trauma in children

The aim of the present study was to investigate changes in peripheral white blood cell, and differential counts following mild head trauma in a pediatric population. Fifty-one patients (mean age, 79 +/- 62 months) with mild head trauma (Glasgow Coma Scale [GCS] score 15) who were admitted to the emergency department, were studied. Two blood specimens were collected from each patient, one on arrival and one after 24 h at the emergency department. Complete blood count was performed using a hemocytometer and the absolute cell counts for each sample were calculated after examination of peripheral smear. No patient developed any complication during the hospital stay or after discharge. Significant differences were found for white blood cell, neutrophil, and immature cell counts just after and 24 h after trauma (P = 0.047, 0.039 and 0.009, respectively). Mild head trauma may cause an increase in white blood cell, neutrophil and band counts in children just after trauma. In a child with a mild head trauma, who is asymptomatic, with GCS score of 15 and absence of risk factors, and without clinical deterioration, complete blood cell count may be omitted from laboratory workup. But a prospective randomized study comparing mild head trauma patients with good and bad clinical outcome is needed to draw a definite conclusion.