BrainTrain program
Events
Training: students can apply for the oncoming courses and workshops >Read more
Video
JoVE video paper
JoVE, the Journal of Visualized Experiments gives the opportunity to share a method with the science community by actually showing how to prepare and perform an experiment. We used the opportunity to create a video-methods paper of the well-established calcium imaging technique in immature brain slices.
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brain consortium brain diseases brain disorders brain dysfunction brain research BrainTrain dementia depressive disorder diseased brain Early Stage Researcher ESR EUsynapse gene mapping genetic approach Genetics of the brain genomic genomic databases genomics Heidi de Wit human knowledge transfer laboratories mental illnesses mouse NeuroCypres Neuromics EST neuronal communication neuronal networks neuroscience neurotransmission Parkinson’s PhD research team Research Teams Robert J. Feulgen synapse synapses synaptic interactome Synaptic plasticity synaptopathies therapeutic strategies The synaptic interactome transfer-of-knowledge Transmission workflow
WP Cumulus Flash tag cloud by Roy Tanck requires Flash Player 9 or better.
Phenotypes
Weblog
BrainTrain trainees keep a weblog about research results, highlights and other program related issues.Webinar Aug. 2011

Goals
Main goals of the BrainTrain project
To find therapeutic strategies for diseased brain and training young researchers with an excellent integrative and multidisciplinary perspective on brain research are the main objectives of the project:
1. Applying novel gene mapping strategies to identify new disease loci.
This effort will build on our novel models for inheritance patterns of complex traits and our well-phenotyped patient populations and mouse models.
2. Identifying the gene and protein networks that orchestrate basal neuronal communication and connectivity and to ask how these networks are altered in these brain diseases.
This effort will build on our novel models for gene-networks and several new biophysical methods to monitor neuronal communication and connectivity.
3. Integrating our knowledge of neuronal communication and connectivity to the performance of neuronal networks.
This effort will build on our capacity to record neuronal activity patterns from many individual cells and to detect multiple brain rhythms.
4. The designing of therapeutic strategies for these brain diseases.
This effort will integrate information from all other objectives and build on behavioural and histological assessments of animal models. BrainTrain will build on the availability of completed genomic databases to facilitate forward (phenotype to genotype) and reverse (genotype to phenotype) genetic approaches and combining mouse and human studies.
The research objectives of BrainTrain: