Neurological Diseases Or Conditions

Type I interferonopathies are rare autoinflammatory disorders caused by genetic defects and associated with significant morbidity and mortality. These diseases are refractory to conventional immunosuppressive therapies. They typically occur in childhood, although disease onset in adulthood has been observed. The clinical spectrum is wide and mainly involves the central nervous system. Joint involvement is also common, and more rarely, haematological features such as cytopenias or immunodeficiency may be observed. Nearly all patients show consistent over-activation of the type I IFN pathway, as evidenced, the expression of IFN-stimulated genes, the so-called 'interferon signature'. To date, the natural history of interferonopathies remains unclear. In this context, the establishment of a natural history of type I interferonopathy in patients is proposed to elucidate the pathophysiological mechanisms and identify biomarkers for diagnosis, prognosis, and disease activity, with the aim of better characterising the diversity of interferonopathies. The main objective is to characterise the evolution of the pathology in paediatric and adult patients with type I interferonopathies. The overall aim of this research is to propose therapeutic options tailored to patient phenotypes and to better define patient sub-groups in order to optimise the preparation of future clinical trials.

The purpose of this study is to evaluate the use of Cereset Research to improve autonomic function in participants with symptoms of stress, anxiety, or insomnia.

The Natural History of Mitochondrial (MITO) Diseases (a longitudinal study observing the natural history of mitochondrial diseases) The goal of this observational study (non-randomised retrospective and prospective) is to fully characterise primary MITO disease; that includes both sexes/genders, over 18 years of age and healthy volunteers\]. The main question\[s\] it aims to answer is to: • better characterise MITO phenotypes (organ involvement, severity, progression) and collect biospecimens to create a biobank that can be used for future biomarker discovery to improve early diagnosis, prognostication and management of mitochondrial disease. The study will be a longitudinal, retrospective, prospective, observational study of participants (400) with confirmed MITO and relevant controls followed for up to 10 years. Data will be collected at regularly scheduled standard-of-care (SOC), 6 to 12 monthly appointments. The 100 control participants will therefore be comprised of (i) unaffected asymptomatic family members of MITO participants with no genetic risk; (ii) participants with non-MITO movement disorders that are not classified as MITO by their clinical presentation and genetic tests (for example Parkinson's disease) and/or (iii) age-matched healthy controls recruited from the NeuRA database of volunteers. Demographic data, medical history, biochemical, histological, genetic, social and other clinical SOC data will be collected. Additionally, seizure and migraine frequency in participants who experience these, will be collected and a quality-of-life questionnaire (SF-12v2), as part of the validated neurological assessment using the Newcastle Mitochondrial Disease Adult Scale (NMDAS).

CU-Med Biobank collaborates with different researchers for collecting and distributing human biospecimens and clinical data for assisting scientific research.

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 our study is to investigate the effect of high-frequency Repetitive Transcranial Magnetic Stimulation(rTMS) therapy applied to the dorsolateral PFC (DLPFC) area on neuropathic pain in patients with spinal cord injury. In this area, there are very few studies on the effectiveness of rTMS treatment added to medical treatment in neuropathic pain. In addition, the number of studies comparing the effect of rTMS therapy applied to the DLFPC area is very few.

The unhide® Project is a non-interventional, longitudinal research study designed to establish a secure data repository of demographic, health, and lifestyle information from individuals with brain inflammation and related neuroinflammatory conditions. Participants in the United States aged 2 years and older will provide self-reported health data, biometrics, and symptom diaries through the MyDataHelps™ app (branded as unhide® for this study). The goal is to create comprehensive longitudinal profiles to facilitate research into disease subtypes, causes, diagnostics, and potential treatments, as well as to identify potential participants for future optional studies. "Healthy" individuals without brain inflammation are also eligible to participate. The digital health research platform used in this study was originally developed and designed by Solve M.E and was called SolveTogether. The Brain Inflammation Collaborative (BIC) expanded upon Solve M.E.'s work to include related diagnoses, pediatric participants, enhance symptom tracking, and more. BIC and Solve M.E. combined Solve Together and unhide®, to create The unhide® Solve Together Unified Platform in 2025.

This research project examines the prevalence of medication-related dysphagia in patients with dysphagia-associated diseases. Its primary aim is to assess how frequently swallowing difficulties occur during medication intake and to evaluate the impact of different consistencies-such as semi-solid formulations and commercial swallowing gels-on the swallowing process. Flexible endoscopic evaluation of swallowing serves as the diagnostic gold standard to determine whether alternative administration forms can facilitate safer swallowing. The findings are intended to support the optimization of medication intake and the prevention of complications in patients with dysphagia.

The neurological examination (NE) is a cornerstone of clinical neurology, with ocular motor assessment being a key component. Technology offers an opportunity to augment and standardize parts of the NE. Eye-tracking systems provide objective quantitative data on eye movements by continuously tracking the eye over time. This data can be used to derive parameters like saccadic latency, gaze velocity, and fixation stability with a precision that is impossible to achieve through human observation by neurologists. The integration of such technology could enhance the traditional NE. Before such technology can be widely adopted, its feasibility and acceptability in a clinical population must be established. The primary purpose of this study is to assess the usability of a novel eye-tracking system from the patient's perspective when used in a clinical settings. A secondary purpose is to determine if quantitative data from the eye-tracker correlate with the findings of the traditional clinical neurological examination and to explore whether eye-tracking can provide additional, complementary information not typically captured by standard clinical assessment. To achieve these aims, the study will assess several outcome measures. The primary outcome measure is the Usability of the Eye-Tracking System, which will be measured using the System Usability Scale (SUS). Beyond the primary objectives, this study will investigate two secondary objectives. The first involves assessing the relationship between quantitative eye-tracking parameters and clinical ocular motor assessment. Specifically, the investigators will analyze objective, numerical data obtained from eye-tracking systems and the clinician's subjectively graded assessment of ocular movements derived from the standard neurological examination. The second is the exploratory analysis of novel eye-tracking biomarkers. This involves quantifying and analyzing eye-tracking parameters not typically assessed during a routine NE. For example, the dynamics of the pupillary light reflex or the frequency of microsaccades. The aim is to identify potential digital biomarkers that could provide additional objective insights into ocular motor function and neurological status.

The presence of damage to the central and/or peripheral nervous system resulting from various pathologies, such as Multiple Sclerosis (MS), Amyotrophic Lateral Sclerosis (ALS), Parkinson's disease (PD), Alzheimer's disease (AD), dementia, traumatic brain injury (TBI), stroke, or other neurological syndromes, is commonly a cause of both physical and mental disability. This leads to symptoms in the patient, including: pain, migraines, headaches, neuropathic pain, trigeminal neuralgia, depression, anxiety, apathy, fatigue, cognitive decline, aphasia, functional motor disorders (FMD), neuromuscular tone alterations, and hyposthenia, in addition to involvement of various cognitive functions, such as decision-making, problem-solving, learning, memory, executive functions, social cognition, and emotional cognition. The presence of these neurological symptoms is often evident in a first clinical examination and is one of the main reasons for further healthcare consultations. These difficulties have a profound impact on the quality of life, affecting work, social, and family functioning. In recent years, several non-invasive brain stimulation (NIBS) techniques have emerged, aimed at eliciting brain neural networks, such as transcranial static magnetic field stimulation (tSMS) and transcranial direct current stimulation (tDCS). tSMS is an NIBS technique that involves the application of a neodymium magnet on the scalp. Since the first study proposing this method, several others have confirmed that tSMS can reduce corticospinal excitability. tDCS involves the application of weak electrical currents capable of generating an electric field that can modulate neural activity in an excitatory or inhibitory manner. NIBS techniques can be used experimentally to modulate cortical activity. The primary aim of this proposal is to address the impact of neurological symptoms through the combination of tSMS with tDCS and rehabilitation techniques. Specifically, it aims to understand whether the combination of these neuromodulatory therapeutic NIBS methods can enhance symptom improvement in patients with neurological conditions. To assess the impact of this intervention, a series of tests and questionnaires, described in detail below, will be used to evaluate the severity of the reported symptoms and secondary outcomes. Moreover, the contribution of specific brain areas to the symptom will be evaluated through the direct modulation of brain activity. This modulation will be achieved using an additional NIBS technique, such as Transcranial Magnetic Stimulation (TMS). TMS, in particular, is a non-invasive method for stimulating neurons in the brain's superficial areas, which has been frequently used in neurology as a diagnostic and research tool since its introduction. TMS uses magnetic fields to induce electrical currents capable of facilitating or inhibiting cortical activity.

\*\*Brief Summary\*\* The study aims to explore how the integration of visual and motor systems can be trained and enhanced to improve gait rehabilitation in patients with various neurological and cardiovascular conditions. Scientific evidence highlights that physical activity requires coordination and precise processing of visual, auditory, and sensory information from the external environment, which is then integrated at the brain level. This process establishes synaptic connections that direct the movement of arms, hands, legs, and the trunk through bottom-up and top-down mechanisms. However, inaccurate or incomplete perceptual information can impair performance, even when accurate visual stimuli are provided, emphasizing the importance of assessing and enhancing visuo-motor integration. The research investigates the central mechanisms controlling peripheral muscle activation patterns during gait. While over-ground walking in healthy individuals generally does not activate the prefrontal cortex except in dual-task scenarios, evidence suggests that post-stroke patients exhibit increased prefrontal cortex metabolism during walking. Recent studies have shown that gait training with exoskeletal systems improves walking patterns in post-stroke patients by altering muscle activation patterns and increasing fronto-parietal connectivity. This study seeks to answer the following question: How do central and peripheral mechanisms interact to influence gait rehabilitation outcomes, and what role do visuo-motor integration and neuroplasticity play in this process? To address this, advanced neuroimaging technologies such as fMRI, dtMRI, and NIRS will be employed to investigate these mechanisms in vivo.

The SUNAN (Single Unit Neurophysiological Architecture of the Neocortex) study aims to understand how individual brain cells called neurons interact and communicate, and how the neurons can be affected in neurological disease. Using an advanced digital probe called the "Neuropixels probe," which is as thin as a human hair, the investigators can record electrical activity from individual neurons on the outmost layer of the brain (cerebral cortex). This electrical (neurophysiological) activity recording technique allows the investigators to isolate and monitor single-neuron activity from the human brain during planned neurosurgical operations in real time.

TARGET-NEURO is an observational research study to conduct a comprehensive review of outcomes for patients living with chronic neurological diseases: Alzheimer's disease and related dementia (ADRD), mild cognitive impairment (MCI), Parkinson's disease (PD), and multiple sclerosis (MS).

The aim of this study is to assess the prevalence of gag reflex in healthy young and healthy older subjects as well as in acute stroke patients, in patients with Parkinsons´s Disease, Myasthenia gravis, Multiple Sclerosis and in geriatric patients.