Active clinical trials for "Syndrome"

The goal of this basic science study is to learn about the brain mechanisms of chronic pain across different chronic pain syndromes in pediatric patients. The main questions it aims to answer are: Are there shared and distinct brain systems engaged by different forms of pediatric chronic pain? What are predictors of recovery from chronic pain? What brain systems are associated with the spread of pain? For this study participants will undergo: Functional Magnetic Resonance Imaging (fMRI) Quantitative Sensory Testing Psychological Assessments

Heterokaryotypic monozygotic twins discordant for Down syndrome (DS) are very rare, with an incidence estimated to be less than 1 over 7,000,000 pregnancy in the general population. Sharing the same genetic patrimony, except for an additional chromosome 21 for one of them, any gene-expression difference between them could be attributed only to the supernumerary chromosome 21 and not to polymorphic variability in the rest of the genome. The setting up of a prospective longitudinal study will offer the major advantage of allowing genetic and epigenetic comparisons between them and to obtain important information on the impact of the environment in which they live and grow up.

Biofeedback equipment is classified by the Food and Drug Administration (FDA) as medical device class II and this type of equipment/treatment has shown evidence regarding stress management in post-Covid-19 syndrome. The main objective of the study is to verify the feasibility of an HVR biofeedback training protocol in patients with long covid, and also to verify improvement induced by the technique in relation to: cognitive performance; pain perception; fatigue; quality of life; depressive and anxious symptoms

This study aim to evaluate the effect of virtual reality distraction on symptom management and anxiety in children aged 7-18 years with leukemia.

Introduction: About 50% of patients who undergo rectal resection (mostly as a treatment for rectal cancer) suffer from various and partly severe functional problems, despite the preservation of the anal fold. These complaints are summarized as low anterior resection syndrome (LARS). So far, there are no randomized clinical trials that would definitively confirm or deny the hypothesis regarding the most effective treatment for LARS. Objectives: To evaluate whether transanal irrigation improves bowel function and quality of life in patients after rectal resection compared with the best supportive care. Methods and analysis: Patients who have undergone low anterior resection will be approached for this study. During the patient's visit, we will assess their complaints regarding defecation problems, as well as any deterioration in their overall quality of life. To gather this information, we will have the patients fill out questionnaires such as the LARS (Low Anterior Resection Syndrome) and Wexner scale, along with quality of life questionnaires. Questionnaires and scales will be filled out again during the visit every 3 months for 1 year. Discussion: This multicentre, randomized controlled trial will lead to a better understanding of LARS treatment. Moreover, it will be hypothesis generating and inform areas needing future prospective studies.

The investigators will implant and monitor 8 research subjects with a subcortical closed-loop system for detection and suppression of tics. The project will use the FDA-approved "Medtronic Percept PC" device, which is an implantable neurostimulator capable of recording neural signals. The study will target the CM nucleus of the thalamus and the aGPi in each brain hemisphere from each subject and we will connect the two leads placed in each brain hemisphere to two Percept devices.

The purpose of this study is to demonstrate safety and efficacy of a new spinal cord stimulation paddle electrode which is able to target the dorsal horns, dorsal nerve roots, and dorsal columns. The research electrode ("Study Electrode") is designed to answer basic physiological clinical research questions. It may inform future device therapy development, but the Study Electrode is not a product that will be marketed or sold. The Investigators believe the protocol is a Non-Significant Risk study answering basic physiological research questions, which may be performed under hospital IRB approval.

Down Syndrome (DS) is characterized by an additional copy of chromosome 21, which also increases risk of Alzheimer's Disease (AD). The investigators' lab found a non-invasive way to remove toxic proteins from the brain in AD mouse models. Remarkably, treated mice also have improved memory on behavioral testing. The investigators then translated this non-invasive method, which uses light and sound to stimulate the brain, to be used in mild Alzheimer's patients and cognitively normal adults. The investigators have also translated this research into a vibrating speaker device to study tactile vibration to stimulate the brain as well. For the present study, 30 participants with Down Syndrome and 30 cognitively normal adult controls will be recruited, and the investigators will assess their brain waves with electroencephalogram (EEG) during light, sound, and tactile stimulation. The investigators will also test for safety, feasibility, and cognitive performance before and after a 30-60 minute session of light and sound stimulation to optimize the stimulation devices for use in the DS population.

Progressive age-related cognitive deficits occurring in both AD and DS have been connected to the degeneration of several neuronal populations, but mechanisms are not fully elucidated. The most consistent neuronal losses throughout the progression of AD are seen in cholinergic neurons where these losses negatively affect cognition, particularly in attention, learning, and memory formation. Evidence of reduced cholinergic integrity in DS is largely limited to animal models and post-mortem human data. The investigators propose to use molecular, functional, and structural biomarkers to assess the cholinergic integrity in adults with DS. The investigators anticipate using the data gathered in this pilot study to inform future study designs to determine AD risk stratification in DS by identifying individuals who show an accelerated decline in cholinergic integrity that correlates with cognitive and neurobehavioral changes. Also, our cholinergic biomarkers may identify whether individuals with DS are likely to respond to pro-cholinergic interventions, including the novel cholinergic modulators that are being developed to enhance cholinergic-sensitive cognitive functioning. The investigators anticipate using the data gathered here to inform future treatment studies in TRC-DS and beyond where novel cholinergic treatments may offer opportunities for early intervention in DS and be complementary to disease-modifying approaches such as anti-amyloid treatments.

Infants with Down syndrome show significant delays and weaknesses in motor, cognitive, and language development compared to typically developing infants. This project aims to examine the developmental cascade effects of specific gross and fine motor experience on motor, cognitive and language development in infants with Down syndrome. We propose that both gross and fine motor experience will facilitate cognitive and language development in infants with Down syndrome, and particularly, fine motor experience will help advance gesture and early words production.