New Blue Gene Project to Model the Brain



IBM and the Swiss research institute Ecole Polytechnique Fédérale de Lausanne (EPFL) have announced a joint research initiative dubbed the Blue Brain Project to create a 3D model of the brain.

Scientists from both organizations will use data from more than 10 years of wet lab experimental and research data collected at EPFL to develop a computer model of the brain’s workings at the molecular level. Specifically, the researchers will develop a 3D model of the neocortex that takes into account the high-speed electro-chemical interactions of the brain’s interior.

The model will then be used to run simulations to better understand how the brain functions.

“Modeling the brain at the cellular level is a massive undertaking because of the hundreds of thousands of parameters that need to be taken into account,” said Henry Markram, founder of the EPFL Brain and Mind Institute and the EPFL professor heading up the project. “With our [IBM’s and EPFL’s] combined resources and expertise we are embarking on one of the most ambitious research initiatives ever undertaken in the field of neuroscience.”

To perform the simulations, the project will use a four-rack Blue Gene/L system that will deliver a peak processing of about 22.8 teraFLOPS (22.8 trillion operations per second). To put this processing power into perspective, a year ago such a system would have been roughly the world’s second most powerful computer, according to the June 2004 list of the Top 500 supercomputers.

“This modeling is not possible without the processing power of Blue Gene/L,” says Tilak Agerwala, vice president, systems, IBM Research. He notes that the work with EPFL is a collaborative effort, and that researchers from both organizations will develop the model and interpret the results.

The project will start with the collection of data Markram has gathered over the last decade. This information will be used to develop the computer model of the neocortex.

“The model will simulate the observable results,” says Charles Peck, an IBM researcher whose area of expertise is biometaphorical computing. “Once the model is validated, it can then be used to [accelerate] the research.” For example, the model could be used to help researchers select what type of experiments to do in the lab.

One benefit of the model is that it will allow researchers to “see” things – interactions, for example – that cannot be observed in the lab. For instance, researchers will be able to “play back” simulations and note interactions that lead to changes in the brain’s workings.

The group expects the simulation and modeling work will significantly accelerate research efforts. “With an accurate computer-based model of the brain, much of the pre-testing and planning normally required for a major experiment could be done in silico rather than in the laboratory,” says Markram. “With certain simulations we anticipate that a full day’s worth of wet lab research could be done in a matter of seconds on Blue Gene.”

Related Bio-IT World Stories:

First 'Blue Gene Paper' Published

Life Science HPC: 2004 Year in Review

IBM, SGI Earn Top Bragging Rights at SC2004 Conference

Click here to login and leave a comment.  

0 Comments

Add Comment

Text Only 2000 character limit

Page 1 of 1



White Papers & Special Reports

sgi whp 2
Managing the Modern Genomics Data Flood
Sponsored by SGI

Managing and storing the perfect storm of multi-disciplined data pouring from next generation sequencers and other omics instruments is a central challenge in life sciences. Discover in this paper how the SGI ArcFiniti storage solution, optimized for unstructured genomics and life sciences data can: 

  • Reduce costs, proactively protect data integrity, and deliver the high performance I/O required for genomics data processing and analysis.  
  • Effectively manage capacities from 156TB to 1.4PB as a disk based, integrated hardware and software platform 


sgi - whp 1
Turning Genomics Data into Practical Insight
Sponsored by SGI

With worldwide sequencing capacity approaching 13 quadrillion DNA bases annually turning genomics data into knowledge is a true computational challenge. Read this paper and learn how the SGI UV coherent shared memory platform can:  

  • Speed results time while cost competitively tackling the most difficult computational problems across all omics disciplines. 
  • Push performance by scaling to extraordinary levels, up to 256 sockets (2,560 cores, 4,096 threads) per single system (one OS image). 

Provide support for up to 16TB of coherent shared memory in a single system image enabling extreme efficiency across a wide range of compute demands. 



accerlys-logo_2012_wh
New Complimentary Market Survey…
Collaborations and Communications Within Drug Discovery Research
Sponsored by Accelrys
This survey was conducted by the Cambridge Healthtech Media Group in January, 2012. It was sponsored by Accelrys related to their HEOS initiative to gather valid information around externalizing collaborative research while improving communications in the cloud. With 310 qualified industry respondents the survey findings reveal useful usage and trends patterns.  An insightful follow-on discussion and webinar related to this survey, and the HEOS by Scynexis SaaS portal is also available on the Bio-IT World website for complementary viewing.
 


Job Openings

tessella logo 
Scientific Software Engineer
Boston MA
$70,000 to $95,000
 
Apply at http://jobs.tessella.com   

oxford nanopore logo 


Early Access Collaborations ManagersClick here to find out more and apply   

Oxford Nanopore's GridION technology, VP, Sales and Marketing Click to  Apply  

For reprints and/or copyright permission, please contact  Tim McLucas, (781) 972-1342, tmclucas@healthtech.com .