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NCT06608966
The goal of this multi-site clinical trial is to determine the effectiveness of two components of a web-based intervention (Epilepsy Journey) to improve executive functioning in adolescents with epilepsy. The two components include web-based modules and problem-solving telehealth sessions with a therapist focused on executive functioning. This trial aims to answer the following questions: 1. Which components of Epilepsy Journey (web-based modules or telehealth sessions with a therapist) are essential for improving executive functioning in adolescents with epilepsy? 2. Which components of Epilepsy Journey (web-based modules or telehealth sessions with a therapist) are essential for improving quality of life in adolescents with epilepsy? Participants will be randomly assigned to one of four groups: 1) Epilepsy Journey web-based modules and telehealth sessions, 2) Epilepsy Journey web-based modules only, 3) telehealth sessions with a therapist only, or 4) treatment as usual. Participants will: * Independently review Epilepsy Journey web-based modules focused on executive functioning skills (\~15-30 minutes) and/or have weekly telehealth sessions (\~30-45 minutes) with a therapist for 14 weeks. * Complete measures of executive functioning (parent and teen-report) and quality of life (teen-report) at the start of the study, 14-, 26-, and 66- weeks after randomization. The NIH toolbox will be completed at the start of the study and 26-weeks after randomization. Additional measures will also be collected.
NCT06455384
Genetic testing (GT) (including targeted panels, exome and genome sequencing) is increasingly being used for patient care as it improves diagnosis and health outcomes. In spite of these benefits, genetic testing is a complex and costly health service. This results in unequal access, increased wait times and inconsistencies in care. The use of e-health tools to support genetic testing delivery can result in a better patient experience and reduced distress associated with waiting for results and empower patients to receive and act on medical results. We have previously developed and tested an interactive, adaptable and patient-centred digital decision support tool (Genetics ADvISER) to be used for genetic testing decision making, and have now developed the Genetics Navigator (GN), a patient-centred e-health navigation platform for end-to-end genetic service delivery. The objective of this study is to evaluate the effectiveness of the GN in an RCT in reducing distress with patients and parents of patients being offered genetic testing. Results of this trial will be used to establish whether the GN is effective to use in practice. If effective, GN could fill a critical clinical care gap and improve health outcomes and service use by reducing counselling burden as well as overuse, underuse and misuse of services. These are concerns policy makers seek to address through the triple aims of health care1. This study represents a significant advance in personalized health by assessing the effectiveness of this novel, comprehensive e-health platform to ultimately improve genetic service delivery, accessibility, patient experiences, and patient outcomes.
NCT05140265
This proposal outlines the steps required for the creation of a pilot database of EEG recordings and de-identified medical records from patients internally referred within the UNMH Comprehensive Epilepsy Center. The UNMH EEG Corpus would be the first database of its kind. Other public databases contain either patient EEG signals or medical records, but without both kinds of information, it is impossible to relate pre-treatment neurobiomarkers with post-treatment prognosis. The database will also contain information that can improve seizure localization based off of scalp and intracranial EEG, and the requisite data for the creation of algorithms that forecast seizure activity; a development that could ultimately lead to novel responsive neural stimulation procedures that suppress seizures before they begin.
NCT07656857
What's the clinical value of high-density flexible electrocorticography (ECoG) for guiding the resection of epileptogenic zone (EZ) in epilepsy surgery?
NCT06059157
The goal of this clinical trial is to improve non-invasive identification of epileptogenic networks in drug-resistant epileptic patient. The investigators aim to compare epileptogenic network identification with stereo-EEG (used as glod standard) with the identification of the same network using advanced MRI (rs-fMRI, microstructural analysis of white matter, ...). The main goals are to: 1. Compare the accuracy of network identification. 2. Analyse the effect of the MRI sequences on candidates selection and target identification. Participants will already have been selected for stereoEEG and will undergo a supplementary MRI (about 1h) with the additional MRI sequences. Follow-up MRI are scheduled for patient undergoing a second, therapeutic epileptic surgery.
NCT07116421
This study will investigate the potential benefits of rose scent in reducing the risk of Sudden Unexpected Death in Epilepsy (SUDEP) in patients with epilepsy. Participants will engage in their routine inpatient observational EEG monitoring for 24 hours followed by an additional 24 hours of observational EEG monitoring with continuous exposure to rose scent, during which an essential oil diffusor with rose scent will be placed in their hospital room. During these 48 total hours of the study, participants will wear a respiratory monitoring belt across their upper chest to measure their breathing. Potential risks include distress or discomfort when smelling the rose scent used in the study, a physical reaction to the rose scent, and discomfort or feelings of restrictiveness when wearing the respiratory monitoring belt. The total time commitment of the study is 48 consecutive hours over the course of the participants' inpatient EMU stay, during which there will be no restrictions on daily activities during the standard inpatient EMU admission except that participants must wear their respiratory belt for a majority of this 2-day period.
NCT06847152
Temporal lobe epilepsy (TLE) can cause memory disorders, including long-term forgetfulness due to a failure to consolidate verbal but also spatial information. The forgetting phenomenon presented by these epileptic patients is called accelerated forgetting in the literature and remains difficult to objectify during cognitive assessments. It is indeed particularly complicated to evaluate long-term spatial memory and to account for the topographical complaint, although recurrent, of patients with this TLE. A navigation task being proposed as part of the neuropsychological assessment of patients with a spatial memory complaint, it is interesting to study the performance pattern of patients with TLE by comparing them to a group of control subjects matched in age and gender in order to verify whether there is significant long-term forgetting and whether there is a significant difference between Right TLE and Left TLE. Indeed, several studies have demonstrated this accelerated long-term forgetting in epileptic patients (Cassel et al., 2016; Lemesle et al., 2017; Landry et al., 2022; Blake et al., 2020) but few with a retention delay of several weeks (Tramoni et al., 2009). This study allows us to statistically analyze the effects of these two groups: epileptic patients and healthy volunteers, but also to combine the effect of the laterality of epilepsy specifically on spatial memory performance.
NCT07605858
Interactions between epilepsy and sleep are numerous and bidirectional. Sleep can facilitate epileptic activity and seizures in several syndromes, while sleep deprivation increases cortical excitability and seizure susceptibility. Conversely, sleep disturbances are highly prevalent in patients with epilepsy (PWE). Using simultaneous stereoelectroencephalography (SEEG)-polysomnography, the investigators previously showed that sleep fragmentation in focal drug-resistant epilepsy is associated with both ictal and interictal epileptic activity, with increased interictal epileptiform discharges (IED) immediately before and during arousals. However, causality remains unclear, as sleep instability itself may promote epileptic discharges. Determining whether nocturnal seizures and IED directly induce awakenings is clinically important. Nocturnal epileptic activity is often considered less disabling than daytime seizures and rarely guides treatment decisions, yet demonstrating a direct impact on sleep continuity could support therapeutic strategies specifically targeting nocturnal epileptic activity to improve sleep quality. Beyond sleep continuity, epilepsy may also influence cognitive processes during sleep, including subjective sleep depth and dreaming. While the cognitive consequences of epilepsy during wakefulness are well established, relationships between epileptic activity, sleep architecture and subjective sleep experiences remain poorly understood. In a survey of 300 PWE, the investigators observed altered dream recall frequency and dream content, with seizure-related dreams associated with nocturnal seizures. However, retrospective morning reports cannot establish temporal relationships between epileptic discharges and dream phenomena, nor determine the influence of discharge localization or sleep stage. SEEG combined with direct electrical stimulation (DES) provides a unique framework to address these questions. DES is routinely used during presurgical evaluation to identify epileptogenic and eloquent cortex, but is mainly performed during wakefulness. Yet sleep modifies functional connectivity and facilitates epileptic activity, suggesting that DES during sleep may increase the sensitivity of stimulation-based localization of the seizure-onset zone. The EPIDREAM 3 study will investigate whether DES-induced epileptic activity during sleep provokes arousals, alters dream recall or content, and modifies perceived sleep depth. It will also assess whether sleep-related DES improves delineation of epileptogenic networks, particularly in sleep-related epilepsies. Detailed description: Patients with frontal or temporal drug-resistant focal epilepsy investigated with SEEG as part of presurgical evaluation will be included in the Department of Functional Neurology and Epileptology of the HCL, Lyon. The investigators will use intra-cranial DES performed during the SEEG investigation to explore the impact of focal induced epileptic activity on arousal and dreams. 1. DES will be first performed during wake as part of routine SEEG evaluation with the double purpose of localizing the seizure onset zone and providing a functional mapping. This step identifies channels: (i) in the assumed SOZ, where DES induces after-discharges with/without seizure symptoms; (ii) in the assumed SOZ, where DES induces no after-discharge/seizure but may induce clinical symptoms; (iii) in non-epileptic areas, where stimulation induces neither. For temporal lobe epilepsy, control channels will be selected in the frontal lobe; for frontal lobe epilepsy, in the temporal lobe 2. Stimulations will be repeated in REM and NREM sleep (N2/N3) during the first two sleep cycles of a single night with simultaneous PSG. The investigators will assess for each stimulation: (1) the precise location of the channel (2) the presence and characteristics of an induced after-discharge or seizure (3) presence of a spontaneous arousal (3-15 sec) or awakening (\> 15 sec) (4) presence of objective symptoms (5) in case of awakening: presence of subjective reported symptoms, sleep depth and mind content
NCT04782869
This project aims to conduct a pilot study based on the targeting of the epileptogenic zone previously localized very precisely by stereoelectroencephalography (SEEG). SEEG is used as part of the pre-surgical assessment. It consists, thanks to the intracerebral implantation of electrodes in the brain of patients, to perform an intracerebral electrophysiological recording and thus to precisely explore the epileptogenic regions. In order to study the neuromodulatory and therapeutic effects of tDCS on epileptic brains, non-invasive techniques for measuring electrophysiological brain activity such as magnetoencephalography (MEG) and high-resolution electroencephalography (HR EEG) will be used. Finally, since epilepsy is considered to be a disorder of brain functional networks associated with disturbed brain connectivity, the effects of tDCS on cortical excitability by studying the variations in functional connectivity induced by stimulation will be studied.
NCT06701084
The goal of this study is to discover new genetic causes of infantile epilepsies and evaluate the impact of these discoveries on infants with epilepsy and their families.
NCT02531880
Background: \- The blood-brain barrier separates the brain from the rest of the body. Epilepsy is a neurological disease that causes seizures. It can affect this barrier. Researchers think a contrast agent called mangafodipir might be better able to show areas of the brain that epilepsy affects. Objective: \- To see if mangafodipir is well tolerated and safe. To see if it can show, on an MRI, areas of the brain that epilepsy affects. Eligibility: * People ages 18-60 who: * Have epilepsy not controlled by drugs * Prior or concurrent enrollment in 18-N-0066 is required Design: * Participants will be screened with: * Medical history * Physical exam * Blood and urine tests * Participants will have up to 6 visits in 1-3 months. Those with epilepsy will have an inpatient stay lasting 2-10 days. Visits may include: * Video-EEG monitoring for participants with epilepsy * An IV catheter put in place: a needle guides a thin plastic tube into an arm vein. * Getting mangafodipir through the IV. * 5 MRI scans over a 10-day period: a magnetic field and radio waves take pictures of the brain. Participants lie on a table that slides into a metal cylinder. They are in the cylinder for 45-90 minutes, lying still for up to 10 minutes at a time. The scanner makes loud knocking sounds. Participants will get earplugs. * A final MRI at least 2 weeks after receiving mangafodipir. Gadolinium is given through an IV catheter....
NCT06352372
For this study, the proposed intervention will be noninvasively delivered near infra-red (NIR) light - transcranial Photobiomodulation (tPBM) - to the brains of autistic children with abnormal EEGs with epileptiform discharges or with epilepsy. This will occur, twice a week, for 10 weeks. The NIR light is delivered to specific brain areas by Cognilum, a wearable device developed by Jelikalite. The expected outcome is improved focus, improved eye contact, improved speech, improved behavior, and gains in functional skills. Cognilum may impact the clinical practice of treating autism. At the beginning, at five weeks, and at the end of study, the clinician will complete the CARS-2, SRS, CGI, and a caregiver interview; additionally, questionnaires will be administered to caregivers during one of the 1-hour weekly treatment sessions.
NCT07281222
The success of epilepsy surgery depends largely on the reliability of the preoperative localization of the epileptogenic zone. The conventional method for determining the area to be removed is based on a complex assessment involving an electroencephalogram (EEG) coupled with simultaneous video recording of seizures (video SEEG), a brain MRI, and a fluorodeoxyglucose positron emission tomography scan (PET-FDG). At present, epilepsy surgery cannot cure all patients. Since the prognosis for surgery depends primarily on the ability to delineate the epileptogenic zone, it is essential to develop new diagnostic approaches that can accurately detect epileptic foci. MEG (magnetoencephalography) is a non-invasive brain mapping technique based on the magnetic fields created by neuronal activity. Numerous studies have shown that it is a highly effective technique for locating epileptic foci, and more accurate than EEG. However, MEG remains relatively uncommon (three centers in France) because current conventional systems (MEG SQUID) are difficult to use, expensive, require significant structural constraints for installation, and are not very sensitive (sensors are distant from the scalp). Mag4Health has developed a new MEG device, the "MEG FYNA Research", which records brain magnetic activity using 48 or 96 sensors (4He optical pumping magnetometers, or "OPMs"). Compared to conventional MEG (SQUID MEG), this OPM MEG technology is more compact, less expensive, more sensitive, and allows the sensors to be placed directly on the scalp. The EPI-OPM study is a prospective, uncontrolled, bicenter clinical investigation that aims to evaluate the diagnostic performance of this device. The main objective is to assess the value of the OPM MEG device for localizing the epileptogenic zone compared to the reference method in epileptic patients undergoing epilepsy surgery. Patients (children and adults) will be enrolled at the Lyon University Hospital and the Marseille University Hospital. Each patient will undergo an OPM MEG examination and a SQUID MEG examination (SQUID MEG only for patients in Lyon), in addition to the clinical procedures performed as part of routine care: intracranial EEG recording (SEEG) and MRI if necessary, followed by surgery to resect the epileptic focus. The performance of the OPM MEG device in locating epileptic foci will be validated by surgical results and invasive EEG recordings. The localization of epileptic foci using the OPM MEG system will be compared with that obtained using the SQUID MEG system (conventional MEG) and other pre-surgical assessment tests carried out as part of routine care. Finally, we will describe tolerance to the recordings and assess overall comfort and feasibility using appropriate questionnaires.
NCT07547501
The objective of this study is to develop and validate deep learning algorithms for automated sleep stage and sub-stage classification using overnight polysomnography data. The models will be trained and evaluated on at least three independent datasets to ensure generalizability. \- Primary Outcome Measure : Accuracy of deep learning-based sleep stage classification compared to expert manual scoring (\>80% target agreement), evaluated across multiple polysomnography datasets including AP-HP (Assistance Publique - Hôpitaux de Paris) data. This is a retrospective, observational study.
NCT06252532
Purpose: The purpose of this pilot study is to investigate the dynamics between theta and alpha oscillations in the control of working memory. These findings will be informative of what types of brain stimulation are most effective at modulating brain activity. Deep brain stimulation and transcranial magnetic stimulation are used for an increasing number of neurological and psychiatric disorders. Participants: Eligible participants are patients who have previously had electrodes implanted to monitor epilepsy (outside of research activity). 50 participants will be recruited, 25 participants for each phase of the study. Procedures (methods): The participants will perform a cognitive control task. During the task, rhythmic trains of direct cortical stimulation will be delivered to the frontal cortex alone or to the frontal and parietal cortex. Electrocorticography will be collected concurrent with stimulation.
NCT06097195
Neuronostics plan a prospective multisite trial to determine the clinical utility of BioEP in the context of diagnostic decision making. Neuronostics will use findings from the trial to improve user experience of the Neuronostics platform (the tool which clinicians use to obtain a BioEP score from EEG and the aligned report). The data coming from the trial will also enable Neuronostics to iterate the BioEP algorithms and so improve future performance.
NCT07537283
This study evaluates the efficacy and safety of coenzyme Q10 supplementation as adjunctive therapy in patients with drug-resistant epilepsy.
NCT01345058
This is a study to determine whether a combination of low dose lacosamide and levetiracetam is more effective than high dose levetiracetam in patients who have failed low dose levetiracetam.
NCT06315322
The purpose of the study is to investigate the long-term safety and tolerability of brivaracetam in study participants with childhood absence epilepsy or juvenile absence epilepsy.
NCT07010445
Epilepsy is one of the most common neurological chronic conditions with a serious burden on patients, their caregivers, and society. Drug-resistant epilepsy (DRE) heightens this burden. New approaches are thus a priority. Studies in animal models and humans have shown the link between gut microbiota (GM) and the central nervous system in health, neurological conditions, and neurodevelopmental disorders. DRE has been linked to GM dysbiosis. Preliminary findings in children with DRE showed GM modifications when responding to a ketogenic diet. The mediator role of GM has not yet been studied in DRE patients undergoing surgery/vagal nerve stimulation. CARE's central hypothesis is that the GM and its metabolic profile could contribute to clinical outcomes following these different therapeutic procedures. Identifying microbial biomarkers will enable us to deepen the knowledge of the role of gut-brain axis in epilepsy and to tailor the intervention to each patient based on GM modulation.