Letter to the Editor

PEDIATRICS ◽  
1978 ◽  
Vol 61 (6) ◽  
pp. 940-940
Author(s):  
Peter Camfield ◽  
Carol Camfield

The riddle of febrile seizures is that despite their high risk of recurrence (35% to 50%), the natural history of the disorder is benign for the vast majority of children.1 If daily phenobarbital administration for several years is to be recommended after the first febrile seizure, it must be shown to be exceedingly effective and safe. The commendable study of Woff et al. is the second2 prospective randomized trial with concurrent controls of the efficacy of phenobarbital to prevent recurrent febrile seizures.

Blood ◽  
2010 ◽  
Vol 116 (21) ◽  
pp. 2082-2082 ◽  
Author(s):  
Adlette C. Inati ◽  
Evelyne Khoriaty ◽  
Nada Sbeiti ◽  
Timothy G St Pierre ◽  
Suzanne Koussa ◽  
...  

Abstract Abstract 2082 Introduction: Stem cell transplantation (SCT) is the only available cure for patients with thalassemia major (TM). Transfusional iron overload is a common complication with SCT. Data defining the natural history of iron overload, its impact on morbidity and mortality, and its treatment in transplant recipients is limited. There are currently no randomized trials addressing post SCT iron removal in children with TM. This prospective randomized trial will compare the efficacy, safety, and convenience of phlebotomy versus deferasirox for the treatment of iron overload in children with TM who have undergone allogeneic SCT. Patients and methods: Chelation naïve patients between 2 – <20 years of age with a serum ferritin (SF) level ≥500 ng/ml on at least 2 monthly occasions, and a liver iron concentration (LIC) >3 mg Fe/g dry liver weight (dw) as determined by R2 MRI will be randomized to two groups: phlebotomy or deferasirox. The starting dose of deferasirox will be 10 mg/kg/day adjusted every 3 months in increments of 5 mg/kg to a maximum dose of 20 mg/kg/day according to monthly SF and its trend. For phlebotomy, 6 ml/kg of blood will be withdrawn every 2 weeks. The amount of blood removed during each phlebotomy session will be recorded, and the hemoglobin and iron concentrations will be calculated. Correlation between total body iron stores (TBISs) and LIC will be undertaken. Patients will undergo monthly SF, quarterly serum/urine iron, and yearly cardiac echo, liver R2 and cardiac T2* MRI measurement. Continuous adverse event monitoring will be made. Total liver iron content will be determined by R2 MRI and liver volume measurement. Quality of life (QoL) will be measured by the PEDSQL questionnaire. Treatment duration will be one year but interrupted if SF drops below 300 ng/ml and/or with major adverse events. We herein describe baseline characteristics of 27 chelation naïve, hepatitits C and B negative children with TM (16 males, 11 females) cured by SCT from an HLA-identical family member (unrelated donor in 1 patient) who are enrolled in the above trial. Result: Patients’ characteristics at enrollment are outlined in Table 1. Ten patients (37.0%) had SF <1000 ng/ml, 11 (40.8%) had SF 1000–2500 ng/ml, while 6 (22.2%) had SF >2500 ng/ml. Twelve patients (44.4%) had LIC 3-<7 mg Fe/g dw, 8 (29.6%) had LIC 7–15 mg Fe/g dw, while 7 (26.0%) had LIC >15 mg Fe/g dw. Five (18.5%) patients had cardiac T2* <20 msec. Overall, 9 patients (33.3%) had significant iron overload defined as SF >2500 ng/ml, or LIC >15 mg Fe/g dw, or T2* <20 msec. On multivariate regression, predictors of change in SF at enrollment relative to transplant were: SF and LIC (P<0.05); whereas predictors of change in LIC at enrollment relative to transplant were: SF, LIC, and total number of transfusions (TNT) (P<0.05). The change in LIC correlated negatively with LIC at SCT (Pearson's correlation, r=-0.52; P=0.006). A negative change in LIC was observed with an LIC at SCT of 10 mg Fe/g dw and above (Figure 1). There were no statistically significant correlations between cardiac T2* and any of LIC, SF, or TNT; or between LIC and any of age, risk, class, or gender. Conclusion: This report sheds light on the natural history of post transplant iron overload in children cured of TM and underscores the fact that such children continue to have iron overload for years post treatment. It also highlights correlations between SF, LIC, and TNTs in this setting. As the trial continues enrolling more patients, it is expected to generate important data comparing 2 modalities of iron overload treatment (deferasirox vs. phlebotomy) in this patient population. Disclosures: Inati: Novartis Pharmaceuticals: Speakers Bureau. St Pierre:Resonance Health: Consultancy, Equity Ownership, Membership on an entity's Board of Directors or advisory committees, Patents & Royalties, Speakers Bureau; Novartis: Consultancy, Research Funding, Speakers Bureau. Taher:Novartis Pharmaceuticals: Speakers Bureau.


PEDIATRICS ◽  
1990 ◽  
Vol 86 (4) ◽  
pp. 624-624
Author(s):  
JOHN M. FREEMAN

A seizure, even a febrile seizure, is terrifying to the family. Seeking reassurance that their child will not die and does not have epilepsy, parents turn to their physician. What is he or she to do? Often the physician prescribes medication "to prevent further seizures" and then reassures the family that the child will be fine if the medicine is given daily as directed. Both the recommendation and the reassurance are wrong. A Consensus Development Conference on Febrile Seizures held by the National Institutes of Health in 19801 concluded that they would only "consider" anticonvulsant prophylaxis when the child (1) had abnormal neurologic development, (2) had long or focal seizures, (3) had more than two seizures in 24 hours, (4) had a history of nonfebrile seizures in parent or sibling, or (5) was younger than 1 years of age.


2010 ◽  
Vol 51 (3) ◽  
pp. 785
Author(s):  
P.A. Hansen ◽  
J.M.J. Richards ◽  
A.L. Tambyraja ◽  
L.R. Khan ◽  
R.T.A. Chalmers

Critical Care ◽  
2006 ◽  
Vol 10 (3) ◽  
Author(s):  
Suzana M Lobo ◽  
Francisco R Lobo ◽  
Carlos A Polachini ◽  
Daniela S Patini ◽  
Adriana E Yamamoto ◽  
...  

PEDIATRICS ◽  
1953 ◽  
Vol 11 (4) ◽  
pp. 341-357
Author(s):  
WILLIAM G. LENNOX

In a child, a convulsive seizure in association with fever may mean 1 of 6 things. 1. The fever may be a consequence of a spontaneous seizure, the results of an excess of muscular energy and heat. 2. The seizure may be the result of excess hydration or of antibiotics given to combat an infection. 3. The fever may be a seizure phenomenon, the result of a paroxysmal seizure discharge in the region of the hypothalamus. 4. The seizure may be due not to the fever but to bacterial toxins. 5. It may be the secondary result of cerebral pathology induced by an invasion of the brain by the infectious organisms. 6. The seizure may be due to no one of these, but be the direct response of the young child's organism to high fever in association with some infection. In addition, the seizure may not be the consequence of fever, but both fever and seizure a consequence of toxic action on brain cells. Curious features as yet not satisfactorily explained are. 1. Fever-induced seizures belong predominantly to the very young. 2. Almost invariably the febrile seizure, if there is such, is the child's initial seizure. 3. Response to fever is almost invariably a convulsion rather than some other manifestations of epilepsy. A study was made of 1,136 persons whose first convulsive seizure occurred in the first decade of life, 298 having had fever-induced seizures (usually with subsequent non-febrile), 838 having had none. The two groups were compared with respect to age at the first seizure, the presence of antecedent brain pathology, the sex of patients and whether seen in clinic or office. Extreme youth and absence of pathology were most often associated with febrile seizures. Among a total of 407 fever-activated cases, 76.9% subsequently experienced nonfebrile seizures. In 22% an interval of five years or longer separated the last febrile seizure from the first nonfebrile one. With respect to the type of subsequent seizures, an undue proportion of patients had only psychomotor seizures, suggesting that febrile seizures may sometimes be attended by temporal lobe lesions. Febrile seizures are usually innocuous, but if prolonged, focal or attended by much cyanosis or protracted coma, they may cause brain damage. Of 392 patients who sustained brain injury in the first 10 years of life, febrile seizures were blamed for the injury and the continuing epilepsy in 5.4%. Most notable of these findings, however, is the confirmation of what others have reported, that the genetic influence in children having fever-induced seizures is unduly high. In the author's group, this influence, as measured by the incidence of epilepsy among near relatives, is approximately double the genetic influence in young children having only nonfebrile seizures. If we accept the view that evidence of hereditary transmission is the hall-mark of essential epilepsy, then a febrile seizure is epilepsy; but more than that, it is an unusually pure culture of epilepsy. This conclusion has a corollary. Fever-activated epilepsy is short lived. The majority of children with a history of fever-induced seizures have had only one or two. Therefore, the more pure or essential the epilepsy, the better the outlook for spontaneous recovery. Seizures uncomplicated by some acquired pathology of the brain tend to be short lived, perhaps even self-limited—limited by the stabilizing influence of age.


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