Gait Disorders Neurologic

It is the clinical experience of the authors that some children with cerebral palsy who walk in crouch gait show sufficient knee extension during the clinical gait analysis, but walk in considerable knee flexion when they leave the gait laboratory. Possible differences between walking in a gait lab and walking in daily life may be caused by the effect of observational awareness in the lab (also known as the Hawthorne effect), and the lack of dual-tasks (DT) during the analysis (which are common during daily life walking). Since so far there is no technique to reliably measure gait kinematics in children with CP outside of the laboratory, the researchers aim to objectify the influence of both the Hawthorne effect and dual-tasks by introducing different conditions during a standard clinical 3D gait analysis.

The goal of this observational cross-sectional study is to investigate the relationship between functional measures of balance and gait and objective kinetic and kinematic parameters in people with Multiple Sclerosis (MS). The main questions it aims to answer are: i) What is the relationship between kinetic and kinematic gait and balance parameters measured using the Vicon motion analysis system and performance on clinical functional assessments in people with Multiple Sclerosis? ii) Which biomechanical parameters are most strongly associated with functional balance, gait, and physical performance outcomes? Participants will attend a single laboratory-based assessment session. During this session, they will undergo biomechanical gait and balance analysis using the Vicon motion capture system, complete functional assessments of balance, gait, and physical performance, complete questionnaires assessing fear of falling and fatigue, and undergo assessment of lower-limb spasticity.

The aim of the study is to examine suitability of data and processed reports acquired from the Smart Hallway system for clinical settings in terms of user acceptability and accuracy for use in clinical practice.

The goal of this clinical trial is to learn if percutaneous ultrasound-guided neuromodulation (NMP-e) can improve gait rehabilitation in adults who have suffered a stroke. The main questions it aims to answer are: * Does NMP-e improve walking speed in stroke survivors? * Does NMP-e enhance muscle strength, functional mobility, reduce spasticity, improve balance, and increase health-related quality of life? Researchers will compare the addition of NMP-e to conventional physiotherapy versus conventional physiotherapy alone to see if the intervention provides additional benefits in gait rehabilitation and other functional outcomes. Participants will: * Continue their regular physiotherapy treatment consisting of passive and active-assisted mobilizations and strength exercises. * Receive NMP-e targeting the sciatic nerve at mid-thigh and the common peroneal nerve at the fibular head (experimental group only). * Undergo stimulation with an electrostimulator at 10 Hz for 10 seconds per trial, repeated 10 times, with intensity adjusted for comfort. * Be evaluated before the intervention, immediately after, and one week later using: * 10-Meter Walk Test for gait speed * Dynamometry for ankle plantarflexor and dorsiflexor strength * Time Up and Go test for functional mobility * Modified Modified Ashworth Scale for spasticity * Berg Balance Scale for balance * EuroQoL-5 Dimensions for health-related quality of life Participants must be adults aged 18-70, able to walk 10 meters without assistance, currently receiving physiotherapy, and able to provide informed consent. Key exclusions include pregnancy, bleeding disorders, needle allergies, systemic inflammatory disorders, or recent invasive physiotherapy. This randomized controlled trial will be conducted at ATECE, \*\*a Spanish association dedicated to the care and rehabilitation of individuals with acquired brain injury\*\*, where participants will be recruited and receive their interventions. The study aims to evaluate the potential of NMP-e as an adjunctive therapy for improving gait and related functional outcomes in subacute and chronic stroke patients.

This pilot, parallel-group randomized controlled trial will evaluate the feasibility, safety, usability, and preliminary efficacy of the Rise\&Walk InHome (RWH), a novel robotic gait training device designed for home use after stroke. Twenty adults with lower-extremity motor impairment following a first-ever stroke (3 months to 5 years post-event) will be randomized 1:1 to either (1) RWH-assisted home walking plus usual care or (2) usual care alone for 12 weeks. Participants in the intervention group will receive an in-home RWH device, complete a structured device training program, and be instructed to perform 30-minute RWH walking sessions four times per week (48 sessions total). All participants will undergo standardized outcome assessments at baseline, weeks 4, 8, and 12, including the 6-Minute Walk Test (primary outcome), 10-Meter Walk Test, daily step count via wearable activity tracker, and health-related quality of life (SF-36). Additional feasibility and usability outcomes include device use and adherence, patient satisfaction and motivation, ease of use, perceived exertion, and adverse events. Findings will inform the feasibility of in-home deployment of the RWH device and provide preliminary effect-size estimates to guide the design of a larger efficacy trial.

The aim of this study is to assess the safety and the feasibility of two versions of TWIICE Rise for exoskeleton-assisted ambulation in patients with a spinal cord injury. This study is done in two phases: The first phase evaluates the safety and feasibility of TWIICE Rise 0.0 with 5 patients over 6 sessions in clinic. The second phase is being conducted with TWIICE Rise 1.0. This version has potentially improved functionalities based on feedback from Phase 1. Safety and feasibility will be assessed with 10 patients over 10 sessions in different settings (clinic, home, and community environment).

This study focuses on children with spastic cerebral palsy and aims to examine how muscle morphology and tissue characteristics, as assessed by ultrasound, may relate to functional motor abilities. It is designed as a prospective, cross-sectional, observational study. Planned ultrasound-based assessments include parameters such as muscle thickness, pennation angle, fascicle length, echo intensity, tissue stiffness (via shear wave elastography), and microvascular flow (via superb microvascular imaging). These measurements are intended to be compared with standard clinical evaluations, including the GMFCS, GMFM-66, MAS, MACS, and Tardieu Scale. The study seeks to contribute to a better understanding of the relationship between muscle architecture and functional outcomes, with the goal of generating insights that may inform individualized rehabilitation planning.

This study will investigate whether adding electromagnetic field therapy (EMT) to a standard physical therapy program is more effective than physical therapy alone for improving balance and walking ability in paraparetic patients. Thirty patients with paraparesis (weakness in the lower limbs) due to spinal cord lesions between levels T6 and T12 will be randomly assigned to one of two groups. Both groups will receive a 45-minute physical therapy session, three times per week for two months. The physical therapy program will include stretching, strengthening, balance, and gait training exercises. The key difference will be that one group (Group II) will also receive active low-frequency (0.5 Hz) electromagnetic therapy applied to their spine during their sessions, while the other group (Group I) will receive a placebo (inactive) EMT device. Patients will be assessed before and after the 2-month treatment period. The assessments will measure muscle spasticity (using the Modified Ashworth Scale), balance (using the Biodex Balance System), and detailed gait parameters like step length, stride length, and base of support (using a 3D motion analysis system

While there are a number of prospective studies evaluating powered exoskeletons in SCI patients, to date, not a single well-designed, randomized clinical trial has been published. However, there is evidence for beneficial effects of over-ground exoskeleton therapy on walking function post-intervention from a meta-analysis on non-randomized, uncontrolled studies. Functional electrical stimulation (FES), on the other hand, is a common and established method for the rehabilitation of persons with SCI and has been demonstrated to be beneficial in, e.g., improving muscle force, power output and endurance. Combining FES and overground robotic therapy within the same therapy session could potentially merge and potentiate the effects of each separate treatment, making it a very powerful and efficient therapy method. Up to date, however, comparative studies evaluating benefits of this combined approach (i.e., powered exoskeleton and FES) to robotic therapy without FES are missing.

To determine whether the combination of non-invasive spinal cord stimulation together with gait rehabilitation reduces spasticity and facilitates recovery of lower limb motor strength and gait function in patients with incomplete SCI, as well as studying the underlying physiopathological changes following incomplete SCI and its modulation by non-invasive stimulation techniques.

The purpose of this research study is to evaluate the usefulness of a wearable robotic exoskeleton device (Ekso-GT), to improve learning and memory, and gait therapy in persons with walking disability due to Multiple Sclerosis. The study will evaluate the mobility, learning and memory, and walking abilities of individuals with multiple sclerosis who went through the traditional as compared to others who used the robotic exoskeleton as part of their therapy.

Cerebral palsy (CP) is defined as a group of movement and posture disorders that cause activity limitation due to brain damage during fetal development or in the first year of life. Motor activities, and in particular walking, can be affected by many factors including sensory deficits, biomechanical and postural limitations, muscle weakness and spasticity. Theories of gait training guide rehabilitation management strategies. Among these, intensification, variability and specific training of walking parameters (speed, step length, cadence) have shown their effectiveness. Delivering sensory feedback during gait rehabilitation exercises is a complementary approach to improve motor learning during rehabilitation. On the other hand, motivation is a key factor in the success of rehabilitation. The addition of walking exercises performed through a serious game in augmented reality (AR) appears relevant for the rehabilitation of children with CP after surgery. The serious game ARRoW-CP is based on the latest advances in the literature in terms of gait rehabilitation protocol but also on the results of a clinical study conducted by our team, to identify the best feedback modalities to be delivered during the serious rehabilitation game.

The aim of this clinical trial is to determine if cerebello-spinal direct current stimulation (csDCS) is effective in treating gait disorders in individuals with chronic stroke. Additionally, the trial seeks to evaluate the safety of this technique. The primary objectives include: Investigating whether cerebello-spinal direct current stimulation improves gait and functional mobility in participants with chronic stroke. Assessing any potential side effects associated with the method. Researchers will conduct a comparative analysis between cerebello-spinal direct current stimulation and a sham procedure (which mimics the stimulation without any actual effect) to assess its effectiveness in addressing gait disorders and enhancing mobility. Participants in the trial will: Undergo cerebello-spinal direct current stimulation combined with treadmill training or a sham procedure with treadmill training daily over a two-week period.

Every-day life means being part of a complex environment and performing complex tasks that usually involve a combination of motor and cognitive skills. However, the process of aging or the sequelae of neurological diseases such as atypical Parkinson's disease (APD) compromises motor-cognitive interaction necessary for an independent lifestyle. While motor-cognitive performance has been identified as an important goal for sustained health across different clinical populations, little is known about underlying brain function leading to these difficulties and how to best target these motor-cognitive difficulties in the context of rehabilitation and exercise interventions. The challenge of improving treatments of motor-cognitive difficulties (such as dual-tasking and navigation) is daunting, and an important step is arriving at a method that accurately portrays these impairments in an ecologically valid state. The investigators aim therefore to explore brain function during complex walking in healthy and APD by investigating the effects of age and neurological disease on motor-cognitive performance and its neural correlates during three conditions of complex walking (dual-task walking, navigation and a combination of both) using non-invasive measures of brain activity (functional near infrared spectrometry, fNIRS) and advanced gait analysis in real time in older healthy adults and people with APD.

The goal of this clinical trial is to learn if trans-spinal magnetic stimulation works to treat gait disorders in chronic stroke adults. It will also learn about the safety of trans-spinal magnetic stimulation. The main questions it aims to answer are: Does trans-spinal magnetic stimulation enhance chronic stroke participants gait and functional mobility? Does the technique cause any side effects? Researchers will compare trans-spinal magnetic stimulation to a sham (a look-alike stimulation with no real effect) to see if trans-spinal magnetic stimulation works to treat gait disorders and improve functional mobility. Participants will: Receive trans-spinal magnetic stimulation with treadmill training or a sham stimulation with treadmill training every day for 2 weeks.

The purpose of this research is to determine how deep brain stimulation (DBS) for Parkinson's disease affects attention and visuospatial function. Additionally, this study will evaluate how deficits in visual attention are associated with freezing of gait (FOG) in Parkinson's disease. There is currently no reliable treatment for FOG and little is understood about the underlying reason this occurs. Some recent research has found that stimulating the right side of the brain seems to improve FOG. The right side of the brain is also paramount for visual attention, which is why investigators are conducting this study.

This pilot study will determine the feasibility of implementing a combinatory rehabilitation strategy involving testosterone replacement therapy (TRT) with locomotor training (LT; walking on a treadmill with assistance and overground walking) in men with testosterone deficiency and walking dysfunction after incomplete or complete spinal cord injury. The investigators hypothesize that LT+TRT treatment will improve muscle size and bone mineral density in men with low T and ambulatory dysfunction after incomplete or complete SCI, along with muscle fundtion and walking recovery in men with T low and ambulatory dysfunction ater incomplete SCI.

The goal of this clinical trial is to explore the usefulness of information from insole-type gait analyzer in adults with subjective gait and balance disorders. The main questions it aims to answer are: How useful is an insole-type gait analyzer for collecting gait data from patients with gait disturbances? Researchers will explore the usefulness of collected data and does not establish a control group. Participants will: Participants will conduct survey and perform the Timed up and go test wearing an insole-type gait analyzer.

Walking is a crucial daily activity that requires complex coordination of muscular systems. It is essential for bone and muscle health, cardiovascular fitness, and activities of daily living, making it an important indicator of prognosis and patient function. Insole gait analysis devices are affordable and easy to use, and they align well with standardized 3D gait analysis. However, their use outside of hospital settings is limited. This study aims to assess the usability and satisfaction of utilizing insole gait analysis devices for monitoring and providing feedback on the walking status of children with cerebral palsy exhibiting walking impairments in a home environment. Additionally, adherence to a home-based exercise program developed in this study will be evaluated.

This observational study's main goal is to learn more about the neural mechanisms during movement in Parkinson's disease. Furthermore, it aims to inspire personalised treatment options. Participants will undergo a protocol that involves walking and gait-related motor tasks, such as seated stepping. During the protocol, brain activity will be recorded.

In 2019, approximately 2.4 billion people worldwide required rehabilitation for various health pathologies, a 63% increase since 1990. It has been suggested that current rehabilitation frameworks (inpatient, outpatient, and community-based) are insufficient to meet local population needs due to issues like long waiting times, lack of facilities, prioritization, funding, and accessibility.Patients with lower limb weaknesses, resulting from various conditions (for example stroke, traumatic brain injury, spinal cord injury and others) require long-term management and motivation for engagement, which are crucial for functional outcomes. This highlights the need for sustainable gait and balance rehabilitation. New technologies like exoskeletons have shown promising results in short-term inpatient programs, improving gait, balance, and quality of life, however, long-term follow-up data are still needed. The present clinical investigation is a national, prospective, open-label interventional trial, proposing a 12-month outpatient rehabilitation program with the Atalante X exoskeleton to treat lower limb weakness and/or impairments in 100 participants. The rehabilitation program consists of at least one exoskeleton rehabilitation session per week. At the end of the first-year experimental phase, participants can continue for an additional year in the voluntary phase. The program aims to explore the potential long-term effects of supervised robotic rehabilitation on motor, cognitive, bowel, bladder functions, quality of life, and well-being. Assessments are conducted at baseline, after 4 and 12 months of exoskeleton rehabilitation, and at 16 and 24 months for participants in the voluntary phase.

The purpose of this research study is to test the utility of an ankle robot, when used during treadmill walking, in people with ankle weakness and foot drop from a peripheral nervous system injury due to neuromuscular or orthopedic injury.

The purpose of this research study is to test the utility of an ankle robot in people with ankle weakness and foot drop from a peripheral nervous system injury due to neuromuscular or orthopedic injury.