Cerebral Palsy Infantile

The goal of this observational study is to discover features of normal and disordered motor-voice profiles that are biobehavioral markers of physical disability in infants.. The main questions it aims to answer are: Identify voice factors among infants with newborn-detectable risk. Identify association between individual characteristics (Gestational age at birth, global function, motor-function) and voice factors. Examine unique features of voice production that are present in infants with high-risk for Cerebral Palsy (CP). Participants will be asked to upload a 3-minute videos of their child at term-age, 3.5-, and 9-months of age. At the 3.5-month and 9-month time point parents can choose to attend an optional in-person assessment with their child.

This observational study evaluates functional and developmental outcomes in pediatric participants undergoing a two week intensive multimodal neurorehabilitation program. The program is designed for children with neurodevelopmental disorders, including but not limited to cerebral palsy, autism spectrum disorder, developmental delay, hypoxic ischemic encephalopathy (HIE), and chromosomal or genetic abnormalities. Participants receive individualized therapy sessions for approximately 2.5 hours per day over a two week period. The intervention is not standardized but is tailored to each child's specific needs and may include components such as sensory integration, motor planning, reflex integration, oculomotor training, executive functioning activities, communication support, and other brain based therapeutic approaches. The purpose of this study is to observe changes in functional abilities, including attention, motor coordination, emotional regulation, communication, and activities of daily living. Outcomes are assessed using clinician observation and parent reported changes before and after the intensive program, with limited follow-up when available. This study does not assign participants to a specific treatment as part of a research protocol. Instead, it collects real world data from children already participating in a clinical therapy program to better understand potential benefits of intensive, individualized neurorehabilitation approaches.

This study focuses on the caregiver's knowledge, comfort, and confidence in interacting with and supporting their infant with Cerebral Palsy (CP) or at high risk for Cerebral Palsy. Four caregivers with their infants will be in one cohort to assess the benefits of group intervention. The intervention is delivered in a group, bootcamp-style educational format led by clinical team including pediatric physiatrist, physical therapist and occupational therapist.

This pilot study aims to assess the feasibility, adherence, and preliminary efficacy of a home-based telerehabilitation protocol using the HOME Kit Tablet system in children aged 6 to 18 years with cerebral palsy. The study follows a randomized controlled design with parallel groups and single-blind evaluation. The intervention group will use a digitally supervised rehabilitation system, while the control group will follow a traditional home therapy protocol without technological tools.

Cerebral palsy is the leading cause of motor disability in children. Children with little or no walking (GMFCS III, IV and V) represent 43% of children with cerebral palsy, the majority of whom present pelvic and spinal deformities in the frontal and sagittal planes. However, sagittal pelvic spinal statics have been little studied, especially in the sitting position, which is the functional position of these children. Moreover, there are currently no recommendations on how to perform follow-up radiographs of the spine in children who do not walk much. A better understanding of pelvic and sagittal spinal statics would help prevent deformities and their complications. Standardizing the method of performing pelvic-spinal radiographs in the sitting position will make monitoring of spinal statics more reliable.

The AID2GAIT project aims to develop a biofeedback system with the aim of improving the outcomes of robot-assisted gait training (RAGT) in pediatric patients with cerebral palsy. The physiological signals of children during RAGT therapy sessions, acquired through non-invasive technologies, will be analyzed. These technologies specifically are: * wearable technology (smartwatch), from which the HRV (Heart Rate Variability) signal will be measured; * infrared thermography, from which the temperature in salient facial regions will be obtained; * fNIRS (functional near-infrared spectroscopy), from which information on brain activity and its changes over time will be obtained. Information on the kinematics of the exoskeleton used during RAGT will be extracted. The RAGT will be performed using the Lokomat orthosis (Hocoma), the most widely used exoskeleton in rehabilitation that facilitates a bilaterally symmetrical gait, as the individual actively tries to advance each limb during walking, combined with a patented dynamic body weight support system.

Cerebral palsy (CP ) is one of the most prevalent motor disabilities in childhood, significantly impacting both children and their caregivers. This study explores the experiences, psychological well-being, and unmet needs of caregivers of children with CP. Using an explanatory sequential design (QUAN → QUAL), first it will be assessed burden, stress levels, and quality of life of caregivers through standardized questionnaires (PedsQL-FIM , ZBI , PSS-14 ).

The goal of this clinical trial is to test the effectiveness of a trunk and upper extremities exercise program. The main questions it aims to answer are: Whether the program decreases compensation patterns in unilateral cerebral palsy children Whether the program decreases pain in unilateral cerebral palsy children Whether the program improves bimanual ability in unilateral cerebral palsy children Participants will undertake and 8-week program exercise at home If there is a comparison group: Researchers will compare with the control group to see if this program decreases compensation patterns.

Cerebral palsy (CP) is the most common chronic disability in childhood, burden by motor, sensation, cognition, feeding and communication impairment. A serious concern in children with CP is bone/muscle health deterioration, which negatively impacts the already reduced quality of life (QoL). Children with CP show low bone density, vitamin D deficiency, sarcopenia and high risk of fragility fractures, with heavy effects on what is already limited home, school and community life. The causes for muscle-bone impairment are low weight-bearing deambulation during skeletal formation with low bone mineralization, poor nutrition and low calcium intake, low sun exposure, use of anticonvulsant medications with a negative profile on bone. Understanding the causes affecting bone quality and setting up interventions to reduce the impact of physical disability are essential in young subjects with CP. This project combines complementary expertise and resources in the fields of Endocrinological Biochemistry, Paediatric Neurological Disorders and Neuroimaging, to allow an innovative, technology-assisted workup for bone/muscle health evaluation in young subjects with CP, which could drive novel therapeutics, nutritional and rehabilitation programs. The first aim of this project is to evaluate bone/muscle health in young subjects with CP compared with sex-age matched healthy subjects, providing i) serum biomarkers of mineral metabolism and the metabolome of Vitamin D, assessed with last generation Mass Spectrometry, ii) muscle sarcopenia markers like Irisin and other myokines, depicting the response of the muscle to exercise iii) neuronal damage and inflammatory markers, iv) densitometric data by the low-cost and safe Quantitative ultrasound (QUS) at phalanges of the hand, plus the novel and very promising Radiofrequency Echographic Multi Spectrometry (REMS) served by the software for fragility fractures risk. We also aim to correlate the previous mentioned markers of bone/muscle health with a combination of demographic, clinical, cognitive and technological parameters, the last obtained by an innovative use of wearable sensors or actigraphs, positioned at the wrists, which depicts movements, physical activity (PA), energy expenditures (EE) and, together with heart-rate monitors, metabolic data during a normal like week in subjects with CP and healthy controls. Finally, a newly validated scoring for brain lesions in subjects with CP and the production of imaging "biomarkers" of neuronal damage, will be correlated with their bone/muscle health data, PA and EE to understand the impact of brain damage on functional performance and bone metabolism.

The goal of this clinical trial is to determine whether the use of a mobility platform can improve response time in children with cerebral palsy. The primary question it seeks to answer is: Can the use of a mobility platform enhance cognitive development in children with severe disabilities? Children are randomly assigned to two equal-sized groups: the control group, where participants will continue with their standard therapy, and the intervention group, where participants will use the mobility platform. Researchers will compare outcomes between the two groups. Participants in the control group will engage in a traditional cause-and-effect therapy, using a video that frequently pauses, requiring them to press an adapted button to continue watching. Participants in the intervention group will use the mobility platform during their sessions. Movement begins when the participant presses the adapted button, and the platform advances, adjusting its direction using sensors to detect obstacles. Once the preset time limit is reached, the platform stops, and the child must press the button again to resume movement. This stop-start process mirrors the cause-and-effect training in the control group.