More than 50 million people of all ages suffer from epilepsy, otherwise known as seizure disorder, the fourth most common neurological disease in the world. Patients diagnosed with epilepsy often experience recurrent seizures triggered by the firing of a large collection of neurons in the brain. This ultimately generates a high-energy wave that spreads across the surface of the brain, resulting in numerous physical effects such as erratic body shaking, unconsciousness, exhaustion, and pain.
My Daughter Salina had a seizure at school the other day. He was wide awake at the time. That’s a first because until that day, he’d only ever had seizures in his sleep. I’m not sure what this means. My husband says it’s probably a one-time thing, nothing to worry about. But in our experience with epilepsy, there’s no such thing as a one-time thing.
Scientists may have found a way to improve brain connectivity. The findings may boost short-term working memory, and in the future, they may help to repair brain damage in patients with traumatic brain injury, stroke, or epilepsy.
New King’s College London research reveals how genetic defects can lead to epilepsy in children. In their new study, published in Scientific Reports and funded by Eli Lilly and Co., the researchers set out to understand how genetic defects affect electrical transmission in the brain. Understanding exactly how nerve cells are misfiring and creating seizures in children with epilepsy will allow researchers to design better, more personalised treatments for epilepsy.
A novel statistical approach to analyzing patients with epilepsy has revealed details about their brains’ internal networks. The findings may lead to better understanding and treatment of the disease, according to Rice University researchers.
Neuronal degeneration is the most severe long-term consequence of repetitive seizures in patients with epilepsy, which until now was thought to be primarily caused by excitotoxicity, or over-stimulation of the neurons. New findings indicate hypoxia, or lack of oxygen, due to abnormal blood flow may be to blame for as much as half the neuronal death caused by the condition.
An epilepsy patient’s emotional well-being may be negatively impacted when changes are made to their antiepileptic drug (AED) regimen. These are the findings from a study published online in the journal Epilepsy and Behavior. In order to understand how AED changes affect patient emotions, researchers asked members of an online epilepsy community to participate in an online survey which consisted of 31 questions that rated their feelings on a recent AED change. In addition to the survey results, comments from epilepsy-related online forums and social media websites where people expressed their experiences with AED changes were also analyzed (termed passive listening statements).
Prolonged epileptic seizures may cause serious problems that will continue for the rest of a patient’s life. As a result of a seizure, neural connections of the brain may be rewired in an incorrect way. This may result in seizures that are difficult to control with medication. Mechanisms underlying this phenomenon are not entirely known, which makes current therapies ineffective in some patients.
Epileptic activity appear to be more frequent in patients with Alzheimer’s disease than in healthy individuals and may be linked to disease progression, according to a recent study. These findings, previously seen in animals, suggest that increased neuronal excitability, a feature of epilepsy, may also contribute to the onset and progression of Alzheimer’s disease. Of the study’s patients, as many as 42.4 percent presented subclinical epileptiform spikes, especially during sleep. The study, “Incidence And Impact Of Subclinical Epileptiform Activity In Alzheimer’s Disease,” was published in the journal Annals of Neurology. The exchange of electrical signals in the brain is the basis of neuronal communication and activity. But in epileptic seizures, these signals are propagated in an exagger...
Neurological diseases are best studied using human neurons, and a longtime goal — once thought impossible — has been to grow such neurons in the lab. Now researchers have su cceeded, maintaining adult neurons in culture for months, an achievement that opens a way to better understand how epilepsy treatments affect the brain.
Medtronic plc (NYSE: MDT) announced today that the first procedure using the Visualase(TM) MRI-Guided Laser Ablation System has been performed in the pivotal SLATE (Stereotactic Laser Ablation for Temporal Lobe Epilepsy) clinical trial at Mayo Clinic in Rochester, Minn.
This article appears in the AAP News and Journals Gateway Increasing Awareness of Sudden Death in Pediatric Epilepsy Together Gardiner Lapham, William Davis Gaillard, Joanna Sexter, Madison M. Berl The death of any child is tragic. When the death is sudden and unexpected, it can seem especially incomprehensible. Henry was 4 years old when he died only a few weeks after his epilepsy diagnosis; his parents were devastated and never knew that death could occur; no physician had discussed the possibility with them. Henry was an otherwise healthy child, had a history of febrile seizures, and died in his sleep before his epilepsy workup was complete and before his medication was likely therapeutic. Since Henry’s death 8 years ago, together and independently, Henry’s parents, pediatrician, and ne...