CS-Manchester
Markus Diesmann
Address:
Laboratory for Computational Neurophysics
RIKEN Brain Science Institute
2-1 Hirosawa
Wako City, Saitama
351-0198, Japan
Affiliate Associate Professor
Division of New Technology Development
Saitama University Brain Science Institute (SUBSI)
Saitama City, Saitama
338-8570, Japan
Brain and Neural Systems Team
RIKEN Computational Science Research Program
Wako City, Saitama
351-0198, Japan
The cortical neuronal network is among the most complex structures found in nature. The functional role of its dynamics exhibited on many spatio-temporal scales is presently not understood. Furthermore, in contrast to other systems, the structure of the cortex is in fact not static but undergoes a continuous activity dependent reorganization. The Diesmann Research Unit studies the mechanisms and functional consequences of spike synchronization and plasticity in biologically realistic models of the cortical network. However, this bottom-up approach alone may not lead to an understanding of brain function. For this reason we also incorporate top-down approaches in our research. At the interface of top-down and bottom up approaches, our strategy is to implement established formal theories of system function like temporal-difference learning in biologically constrained network models. These investigations depend on large-scale simulations requiring non-standard algorithms and high-performance parallel computing. Therefore, the unit is also concerned with the creation of appropriate simulation technology.
See Projects and also the NEST Initiative for detailed descriptions.
Markus Diesmann
Address:
Laboratory for Computational Neurophysics
RIKEN Brain Science Institute
2-1 Hirosawa
Wako City, Saitama
351-0198, Japan
Affiliate Associate Professor
Division of New Technology Development
Saitama University Brain Science Institute (SUBSI)
Saitama City, Saitama
338-8570, Japan
Brain and Neural Systems Team
RIKEN Computational Science Research Program
Wako City, Saitama
351-0198, Japan
The cortical neuronal network is among the most complex structures found in nature. The functional role of its dynamics exhibited on many spatio-temporal scales is presently not understood. Furthermore, in contrast to other systems, the structure of the cortex is in fact not static but undergoes a continuous activity dependent reorganization. The Diesmann Research Unit studies the mechanisms and functional consequences of spike synchronization and plasticity in biologically realistic models of the cortical network. However, this bottom-up approach alone may not lead to an understanding of brain function. For this reason we also incorporate top-down approaches in our research. At the interface of top-down and bottom up approaches, our strategy is to implement established formal theories of system function like temporal-difference learning in biologically constrained network models. These investigations depend on large-scale simulations requiring non-standard algorithms and high-performance parallel computing. Therefore, the unit is also concerned with the creation of appropriate simulation technology.
See Projects and also the NEST Initiative for detailed descriptions.