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Informatics CRN: Spotlight on Projects


Spotlight on Projects
- CancerGrid: open standards for clinical cancer informatics
- Climate and Atmospheric Modelling
- Cognitive Systems for Cognitive Assistants (CoSy)
- coliBASE
- Computational Chemistry
- The Digital Cuneiform Project
- Distributed Simulation and Virtual Worlds
- Gravitational Waves
- GridPP Collaboration
- Integrative Biology: cancer modelling
- The Lab of Tomorrow: wearable computers in science education
- Mathematical Modelling of Fluid Flows
- Metabolomics
- Mid ReC e-Science
- Natural Computation
- Neuroinformatics
- Probabilistic Model Checking with PRISM
- Relativistic Heavy Ion Collisions
- Science Education Through Emerging Informatics Technologies
- Studies of Fluidised Beds of Cohesive Particles
- Studying Proteins
- Understanding the Causes of Childhood Cancer
- Understanding the Internet: modelling communications networks
- Uptake Signal Sequences in Bacterial DNA
 

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Neuroinformatics

Contact:
Prof John Jefferys
Department of Neurophysiology, Division of Neuroscience
The School of Medicine

The University of Birmingham
Vincent Drive
Edgbaston, Birmingham
B15 2TT, United Kingdom

Email:
informatics-crn-enquiries[at]cs.bham.ac.uk
Website: http://www.neuroscience.bham.ac.uk/neurophysiology/


The brain is the most complex known object. It is arguably the ultimate challenge to science in general and informatics in particular. The human brain contains at least 1012 neurons, each receiving ~103 inputs from other neurons. Understanding how the brain works needs to integrate many different approaches, with the complexity of the brain demanding studies at multiple levels. The complexity of the data collected at each level provides a substantial challenge for neuroinformatics in the analysis of macro- and micro-scopic images, EEG recordings, cellular and subcellular recordings, gene expression, etc. Linking these different levels together into a coherent whole is, if anything, an even greater challenge.

Compartmental models help us understand how the properties of neuronal membranes combine to produce the excitability properties of individual neurons. Similar models help us understand how networks of neurons produce their collective “emergent” properties, such as epileptic seizures and physiological oscillations (or brain waves). At Birmingham, studying the brain involves both experimental research and neuroinformatics which is increasingly important. Key areas are signal analysis, image analysis and realistic computer modelling of neurons and neuronal networks, in collaboration with CERCIA.


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