Horizon 2020 (2014 - 2020)

Developing new therapies for Batten disease: BATCure

Last update: Sep 7, 2020 Last update: Sep 7, 2020

Details

Locations:Denmark, Germany, Italy, Latvia, Spain, Sweden, UK
Start Date:Jan 1, 2016
End Date:Jun 30, 2019
Contract value: EUR 6,000,681
Sectors:Health, Science & Innovation
Health, Science & Innovation
Categories:Grants
Date posted:Sep 7, 2020

Associated funding

Associated experts

Description

Programme(s): H2020-EU.3.1.3. - Treating and managing disease

Topic(s): PHC-14-2015 - New therapies for rare diseases

Call for proposal: H2020-PHC-2015-two-stage

Funding Scheme: RIA - Research and Innovation action

Grant agreement ID: 666918

Objective

The goal of BATCure is to advance the development of new therapeutic options for a group of rare lysosomal diseases - neuronal ceroid lipofuscinoses (NCL) or Batten disease. There are > thousand affected across Europe, with a combined incidence of c.1:100 000. The NCLs are devastating and debilitating genetic disorders that mainly affect children, who suffer progressive dementia and motor decline, visual failure and epilepsy, leading to a long period of complete dependence on others, and eventually a premature death. Existing palliative treatment can reduce, but does not eliminate, the burden of seizures and the progressively worsening effects on the whole body due to decreasing CNS influence and control. There are no curative treatments in the clinic for any type of NCL. We will follow a novel integrated strategy to identify specific gene and small molecule treatments for three genetic types of Batten disease that include the most prevalent world-wide, juvenile CLN3 disease, and in southern and mediterranean Europe, CLN6 and CLN7 diseases. To develop new therapies for these 3 types of Batten disease, BATCure will: 1. Create new models, tools and technologies for developing and testing therapies 2. Further delineate disease biology and gene function to identify new therapeutic target pathways utilising yeast and pluripotent stem cell models 3. Identify biochemical therapeutic target pathways, facilitate effective evaluation of preclinical therapies and improve diagnostics 4. Extend a comprehensive natural history beyond the brain to include cardiology, the spinal cord, PNS, psychiatric and metabolic changes 5. Identify new and repurpose existing small molecule therapy 6. Triage new compound treatments in zebrafish, a high-throughput small vertebrate model 7. Deliver and monitor new treatments using mouse models 8. Provide a novel mechanism to involve patients and their families to inform and fully contribute to therapy development and prepare for clinical trials

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