Search clinical trials by condition, location and status
The proposed study is an investigator-initiated study that aims to measure the accuracy of a wearable seizure detection and prediction device (Ear-Seizure Detection Device (EarSD)) by simultaneous recording with conventional video-EEG (Electroencephalogram) on patients with epileptic seizures in the Epilepsy Monitoring Unit of the hospital.
The purpose of this study is to determine whether BHV-7000 is effective in the treatment of idiopathic generalized epilepsy with generalized tonic-clonic seizures and includes an additional open-label extension (OLE) phase.
This study will be done in two phases. Using stakeholder input (community advisory board (CAB)), the study team will adapt the SMART program to incorporate education and self-management support for use of Rescue Medication (RM) to manage seizure occurrence among Persons With Epilepsy (PWE) who have repetitive seizures. Additional content/support materials, pending input stakeholder might include posters/hand-outs that present information on the use of RM in a way that is engaging and salient to PWE. It is expected that participants will be in Phase 1 for about 3 months and participate in the CAB 2 or 3 times via zoom for 60-90 minutes/meeting. The advisory board will provide input on needed refinement of an adapted version of SMART based on their individual experiences. It is anticipate the total time commitment to be no more than 6 hours over 3 months, spread out over 2-3 meetings with review of materials possible in between meetings. Phase 2: The investigators will use a 6-month prospective trial design to test engagement with and effects of SMART-RM among approximately 35 adult (≥ 18 years) PWE who have repetitive seizures.
This study is being done to find out if a smartphone app can identify absence seizures. Children who have a history of absence seizures, as well as children without any seizure history, will be testing out the app. If participating the child will be guided through hyperventilation, an activity that asks the child to take quick, deep breaths. The app will record video of the child's face and sounds they make during hyperventilation. Hyperventilation is a safe and established technique frequently used during EEG (electroencephalogram) to encourage seizure occurrence. The App will be used during a regularly scheduled EEG.
Lennox-Gastaut syndrome is a serious and rare form of epilepsy that begins in infancy and early childhood. Seizures and their consequences need medical attention, emergency encounters, and hospitalizations. Seizures disrupt home life for the patient and for family. Lennox-Gastaut syndrome is typically accompanied by disabilities in motor, communication, eating, and other skills needed for daily function. Lennox-Gastaut syndrome (LGS) has no cure. Although current treatments may help reduce the number of seizures, none are expected to eliminate them entirely; these treatments are palliative. The main treatments include anti-seizure medications and some surgical approaches, including the implantation of a vagus nerve stimulator (a pacemaker-like generator implanted in the chest wall and programmed by a physician to stimulate the vagus nerve in the neck) and corpus callosotomy (cutting through the band of fibers that connect the two sides of the brain). While both types of treatment (medications and surgeries) produce some benefit by reducing how often the seizures occur, both also have some risks. All medications can, in some patients, produce moderate to severe side effects. This is true of anti-seizure medications. Most patients with LGS take several anti-seizure medications at a time. Surgeries can also have associated risks and is additionally stressful for parents and family members. Currently, there is no strong evidence to support parents and physicians in deciding which type of treatment (more medicines or surgery) will be most successful for a child with LGS, and whether one or the other approach may lessen the toll that seizures take on a child's development and ability to function. This study has two components. It will engage a network of seven pediatric hospitals in the United States where children with Lennox-Gastaut syndrome are cared for and determine whether seizure-related emergency department visits and hospitalizations are more likely to be reduced following the use of additional medications or adding palliative surgery to existing medications. The investigators will determine whether medical versus surgical treatment is more likely to lessen some of the developmental and functional difficulties that affect patients with LGS. The study will also determine whether starting therapies at a younger versus older age makes a difference. The second component of the study will provide a description of the use of surgical versus medical treatment approaches across 18 pediatric hospitals in the United States (seven plus 11 centers). The investigators will describe how treatments differ across hospitals and over time. The results from this study will help parents and providers make more informed choices about treatment for children with Lennox-Gastaut syndrome and will highlight areas for improvement in providing the best possible health care for this severe, lifelong disorder.
The primary objective is to evaluate the efficacy of carisbamate (YKP509) as adjunctive treatment in reducing the number of drop seizures (tonic, atonic, and tonic-clonic) compared with placebo in pediatric and adult subjects (age 4-55 years) diagnosed with Lennox Gastaut Syndrome (LGS).
The Pediatric Dose Optimization for Seizures in Emergency Medical Services (PediDOSE) study is designed to improve how paramedics treat seizures in children on ambulances. Seizures are one of the most common reasons why people call an ambulance for a child, and paramedics typically administer midazolam to stop the seizure. One-third of children with active seizures on ambulances arrive at emergency departments still seizing. Prior research suggests that seizures on ambulances continue due to under-dosing and delayed delivery of medication. Under-dosing happens when calculation errors occur, and delayed medication delivery occurs due to the time required for dose calculation and placement of an intravenous line to give the medication. Seizures stop quickly when standardized medication doses are given as a muscular injection or a nasal spray. This research has primarily been done in adults, and evidence is needed to determine if this is effective and safe in children. PediDOSE optimizes how paramedics choose the midazolam dose by eliminating calculations and making the dose age-based. This study involves changing the seizure treatment protocols for ambulance services in 20 different cities, in a staggered and randomly-assigned manner. One aim of PediDOSE is to determine if using age to select one of four standardized doses of midazolam and giving it as a muscular injection or nasal spray is more effective than the current calculation-based method, as measured by the number of children arriving at emergency departments still seizing. The investigators believe that a standardized seizure protocol with age-based doses is more effective than current practice. Another aim of PediDOSE is to determine if a standardized seizure protocol with age-based doses is just as safe as current practice, since either ongoing seizures or receiving too much midazolam can interfere with breathing. The investigators believe that a standardized seizure protocol with age-based doses is just as safe as current practice, since the seizures may stop faster and these doses are safely used in children in other healthcare settings. If this study demonstrates that standardized, age-based midazolam dosing is equally safe and more effective in comparison to current practice, the potential impact of this study is a shift in the treatment of pediatric seizures that can be easily implemented in ambulance services across the United States and in other parts of the world.
Electrographic seizures are common in critically ill patients leading to increased use of resource-intense continuous EEG monitoring for seizure identification and management. When identified, electrographic seizures are generally treated with anti-seizure medications, but there are very limited data available regarding optimal treatment in terms of the efficacy or safety of specific anti-seizure medications or overall management strategies. This is a single-center prospective observational study. The investigators aim to: (1) track critically ill patients undergoing clinically indicated EEG monitoring and seizure management to identify risk factors for electrographic seizures, (2) create prediction models guiding EEG monitoring resources to the patients at highest risk for seizures, and (3) evaluate our current management strategy in terms of safety.
This is a Phase 3 open-label extension study to evaluate the long-term safety and efficacy of SPN-817.
The purpose of this project is to assess the feasibility, tolerability, and preliminary efficacy of using an accelerated, intermittent theta burst stimulation (a-iTBS-rTMS) protocol targeting the left dorsolateral prefrontal cortex (l-dlPFC) for Psychogenic Non-Epileptic Seizures (PNES) or Seizure-Type Functional Neurologic Disorder (FND-seiz) in an open-label fashion. Following screening, consent, and enrollment, participants will receive 6-to-10 iTBS-rTMS sessions per day (i.e., theta burst; 600 pulses per session; 6000 pulses per day) over a 3-to-5 treatment days with a target of 30 total sessions (18,000 total pulses). TMS will be targeted to Beam F3 for comparison to the bulk of the literature and to most mimic replicable and clinical use. This proposed iTBS-rTMS protocol was chosen given its previously shown safety, tolerability, and effectiveness in other conditions, but also as it has the potential to shorten treatment to only 3 days, which investigators theorize will be more feasible for patients with FND-seiz. Feasibility will be measured as the percentage of participants who receive at least 20 treatment sessions within the 3-to-5-day window. Other than self-assessments used in the safety screening process or to monitor TMS benefits and risks, secondary subjective measures will assess previously investigated FND-seiz-specific outcomes, which will be obtained prior to intervention and 4-weeks post-intervention. In addition to monthly seizure frequency, this will include validated measures regarding stigma, health-related QOL, depression, PTSD, somatic symptoms, psychosocial functioning, psychological distress, and clinical and participant impression of improvement and satisfaction. Sub-analysis will further divide participants with mild to no depression and/or PTSD versus moderate to severe depression and/or PTSD to further assess how the TMS effects known to effect other highly comorbid disorders with FND-seiz, may indirectly affect FND-seiz outcomes.