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Therapeutics and Innovations in Neuropediatrics and other paediatric rare diseases

Many rare diseases of genetic origin affect neurodevelopment, causing severe motor problems that are difficult to treat. Our team uses a multidisciplinary approach to develop personalized treatments based on precision medicine with these objectives:

  • Early and precision diagnosis by applying technological advances in genetics and imaging of the nervous system.
  • Clinical and preclinical development of advanced therapies and facilitation of access to those already available.
  • Deep brain stimulation program for symptomatic treatment of refractory movement disorders.
  • Technological innovation and digital transformation of rare diseases.

Our team promotes clinical and translational research in hospital care programs, such as units specialized in Dystonia and other Movement Disorders, Ataxias and Paraparesis, the Fetal Medicine Unit for Prenatal Diagnosis of Neurological Diseases and the Gene Therapy group for Neuromuscular pathology. Our researchers lead projects in the ERN-RND.

Research lines

Gene Therapy for the Treatment of Congenital Muscular Dystrophy Due to Merosin Deficiency

Development of a new gene therapy strategy based on high-capacity adenoviral vectors, in collaboration with the Gene and Cell Therapy group at VHIR, led by Dr. Jordi Barquinero and Dr. María Pallarès-Masmitjà.

IP: David Gómez Andrés

Imaging Biomarker Study in Neuropediatric Diseases

The application of advanced magnetic resonance imaging (MRI) techniques enables an objective and quantitative characterization of the progression of various neurological diseases. This research focuses on developing imaging biomarkers to identify radiological patterns. For neuromuscular diseases, the aim is to identify specific patterns of fat replacement and muscle inflammation, as well as to correlate these changes with motor function and other clinical parameters. For patients with movement disorders, specific imaging patterns will be studied to establish efficacy biomarkers for deep brain stimulation. This will contribute to better patient stratification and evaluation of responses to different experimental treatments.

IP: David Gómez Andrés, Belen Perez Dueñas

Molecular Basis of Dystonia: The SGCE Paradigm

In collaboration with the Molecular Physiology of Synapses group at the Sant Pau Research Institute, led by Dr. Àlex Bayés, a mouse model of myoclonic dystonia caused by defects in the SGCE gene has been created. Using this animal model and human samples, we study the brain expression pattern of SGCE and its role in synapses and the proper establishment of neuronal connections. The goal is to understand the pathophysiological mechanism underlying dystonia and its potential relationship with other genes that trigger this movement disorder.

IP: Belen Perez Dueñas, Anna Marcé Grau

Precision Genetic Diagnosis

Application of new genetic diagnostic tools such as Whole Genome Sequencing, RNAseq, or Optical Genome Mapping to optimize the diagnosis of patients with various motor disorders, including neuromuscular diseases, dystonias, and other movement disorders.

IP: David Gómez Andrés, Anna Marcé Grau, Belen Perez Dueñas

Blog

News

Over the course of one week, it will host in-person assessments for 35 families to better understand the progression of the disease and contribute to the development of new therapies.

The event focused on advances in disease-modifying therapies and on the value of alliances between patients and professionals to promote more participatory care and research.

The donation will enable further characterisation of patients with this rare disease, the identification of new biomarkers and the exploration of innovative therapies.