View clinical trials related to Motor Disorders.
Filter by:Injuries affecting the central nervous system may disrupt the cortical pathways to muscles causing loss of motor control. Nevertheless, the brain still exhibits sensorimotor rhythms (SMRs) during movement intents or motor imagery (MI), which is the mental rehearsal of the kinesthetics of a movement without actually performing it. Brain-computer interfaces (BCIs) can decode SMRs to control assistive devices and promote functional recovery. Despite rapid advancements in non-invasive BCI systems based on EEG, two persistent challenges remain: First, the instability of SMR patterns due to the non-stationarity of neural signals, which may significantly degrade BCI performance over days and hamper the effectiveness of BCI-based rehabilitation. Second, differentiating MI patterns corresponding to fine hand movements of the same limb is still difficult due to the low spatial resolution of EEG. To address the first challenge, subjects usually learn to elicit reliable SMR and improve BCI control through longitudinal training, so a fundamental question is how to accelerate subject training building upon the SMR neurophysiology. In this study, the investigators hypothesize that conditioning the brain with transcutaneous electrical spinal stimulation, which reportedly induces cortical inhibition, would constrain the neural dynamics and promote focal and strong SMR modulations in subsequent MI-based BCI training sessions - leading to accelerated BCI training. To address the second challenge, the investigators hypothesize that neuromuscular electrical stimulation (NMES) applied contingent to the voluntary activation of the primary motor cortex through MI can help differentiate patterns of activity associated with different hand movements of the same limb by consistently recruiting the separate neural pathways associated with each of the movements within a closed-loop BCI setup. The investigators study the neuroplastic changes associated with training with the two stimulation modalities.
The patients who had COVID-19 infection, and after that reported for one of the signs of gastrointestinal disorder (esophageal and anorectal) will be underwent to esophageal and anorectal motor monitoring investigation (HRM manometry) on standard protocol.
This study focuses on the mobile robot assist device for tele-interaction: the "COVEALINK 2" robot. This telepresence robot is designed for remote use inside the home. It works with an Internet connection (Wifi or 4G). It consists of a control interface (an application installed on the smartphone or tablet of the hospitalized patient) and a mobile robot placed in the home of the hospitalized patient (composed of a mobile platform, a visualization screen whose tilt is adjustable remotely for better adaptation to the interlocutors and an audio communication system). From the app installed on his smartphone or tablet, the patient hospitalized in the center for a long time (2 months minimum) will be able to start remotely (from the center where he is hospitalized) the robot and have it move within his home to communicate with the people present at the time of use (family, friends, neighbors etc.).
The purpose of this preliminary study is to apply AI technology on a sample of infants aged 4 to 18 months to develop an action tracking and recognition algorithm for infant motor screening and to determine the accuracy of the captured movements during the Alberta Infant Motor Scale (AIMS) assessment using an experienced physical therapists' assessment results as the reference.
In our study, we tested the hypothesis of the safe effect applicability of motor training in the immersion high-tech polymodal VR system not only on the parameters of balance, gait, and motor status of the patient, but also on his cognitive functions and mental health in patients with a degree of disability no more than 3 points on a scale Rankin.
Stroke represents one of the main causes of adult disability and will be one of the main contributors to the burden of disease in 2030. However, the healthcare systems are not able to respond to the current demand let alone its future increase. There is a need to deploy new approaches that advance current rehabilitation methods and enhance their efficiency. One of the latest approaches used for the rehabilitation of a wide range of deficits of the nervous system is based on virtual reality (VR) applications, which combine training scenarios with dedicated interface devices. Market drivers exist for new ICT based treatment solutions. IBEC/ Eodyne Systems has developed and commercialised the Rehabilitation Gaming System (RGS), a science-based ICT solution for neurorehabilitation combining brain theory, AI, cloud computing and virtual reality and targeting motor and cognitive recovery after stroke. RGS provides a continuum of evaluations and therapeutic solutions that accompany the patient from the clinic to the therapy centre. RGS has been clinically validated showing its superiority over other products while reducing cost also through its use of standard off-the-shelf hardware and a Software as a Service model (SaaS). Commercial evaluations have shown that RGS acts as a workforce multiplier while delivering a high quality of care at clinical centres (RGS@Clinic). However, in order to achieve significant benefits in the patients' QoL, it is essential that RGS becomes an at home solution providing 24/7 monitoring and care. For this reason, this project aims at investigating the RGS acceptability and adoption model. The findings derived from this study will contribute to establish a novel and superior neurorehabilitation paradigm that can accelerate the recovery of hemiparetic stroke patients. Besides the clinical impact, such achievement could have relevant socioeconomic impact.
Clinical features of Multiple Sclerosis (MS) vary widely from patient to other. About the 60% of patients with MS presents cognitive deficits associated with motor disability. The principal consequences of the motor disabilities concern difficult in gait and balance. The principal cognitive deficits concern the speed in elaborating information, the complex attention and the memory. During walking in daily life, it is often required to turn the head for looking something happening in the surrounding environment, for example when a sudden noise is heard, while crossing the street, when there's something interesting around or when is required to verbally answer to someone without stopping walking. All these examples are referred to a common daily life mechanism that has been defined as dual task (DT). Considering that the attention is a limited function, divide it in two different and simultaneous tasks (motor and cognitive), cause a cognitive-motor interference (CMI) that lead to a loss of efficacy in one or in both the tasks. The main aim of the study is to verify the impact of a brief rehabilitation training that combining motor and cognitive therapy using a dual-task paradigm, on balance and gait in MS patients, compared with the traditional therapies that provide a specific postural stability rehabilitation approach. Recruited patients will be randomized in two different groups which perform two different training. Each group perform the allocated training 3 times a week for 4 weeks. All the patients will be evaluated at the baseline (T0), at the end of the training (T1) and 60 days after the end of the training (T2).
This study is a group controlled clinical trial. Parallel study, patients aged 40-70 years, with Parkinson disease. Twelve sessions, three times a week, for 30 minutes, simultaneously to the rehabilitation program. Training will consist of Transcranial Direct Current Stimulation linked dual-task exercises or dual-taks exercises with cognitive training, applied three times a week during four weeks. The investigators will used instruments: dual-task gait speed (Auditory Stroop Task ), executive function (Wisconsin Card Sorting Test , Auditory Stroop Test, Trail Making Test, Verbal Fluency Test and Montreal Cognitive Assessment), and, the objective is to examine task-dependency in enhancing the effects of tDCS-linked rehabilitation training on PD and the relationships between baseline outcomes in responders and non-responders to therapy.
Central sensitization is a condition that represents a cascade of neurological adaptations, resulting in an amplification of nociceptive responses from noxious and non-noxious stimuli. This phenomenon presents itself in a vast majority of chronic pain syndromes. Previous evidence has shown that central sensitization results in afferent nociceptor and dorsal horn abnormalities; however, a link between whether this abnormality translates into motor output and more specifically, ventral horn abnormalities, needs to be further explored. Twenty participants were recruited and either a topical capsaicin or a placebo topical cream was applied to their back to induce a transient state of sensitization. Surface electromyography(sEMG) and intramuscular electromyography(iEMG) were used to record motor unit activity from the trapezius and infraspinatus muscles before and after application of capsaicin/placebo. Motor unit recruitment and variability were analyzed in the sEMG and iEMG respectively
Stroke is a leading cause of long-term disability. Cost-effective post-stroke rehabilitation programs are critically needed. Brain-Computer Interface (BCI) systems which enable the modulation of EEG sensorimotor rhythms are promising tools to promote early improvements of motor rehabilitation outcomes after stroke. This project intends to boost this BCI application beyond the state of art by providing: i) evidence for a short/long-term efficacy in enhancing post-stroke functional hand motor recovery; and ii) quantifiable indices (beyond clinical scales) sensitive to stroke participant's response to a Promotoer (BCI system compatible with clinical setting) -based intervention. To these aims, a longitudinal randomized controlled trial will be performed in which, subacute stroke participants will undergo a Promotoer- assisted hand motor imagery training.