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Projects at the Computational Science research group

Project Virolab
The HIV virus genome consists of only 9 genes that code for 19 proteins. The complexity of HIV infection and virus reproduction in the human host is a result of the multitude of interactions that HIV has with its host. Many of these interactions have been studied on a protein level and can be collected in a so called protein interaction network where these 19 HIV proteins interact with thousands of human proteins. Visualization and analysis of this complex network using a graph-theoretic approach can bring new insight into the workings of the HIV virus and its relation to the human host. Where classical biology looks at individual interactions, in complex systems we study the system as a whole. Using this integrated approach and with the help of state-of-the-art computational techniques we envisage today what biological and medical research will be like in the future.
Project Multi-scale modelling of calcification in scleractinian corals
The project is financed by the Netherlands Organisation for Scientific Research, NWO, research program Computational Life Sciences. The project is a collaboration with the research groups from Prof. R.P.M. Bak (Netherlands Institute for Sea Research (NIOZ) and Prof. D.J. Miller (James Cook University, Australia The central research question we propose to investigate in this project is to characterize the genes that control the differences in coral morphology for related coral species. We do this by a quantitative comparison of gene expression patterns. We especially focus on genes involved in the process of calcification. To test the hypothesis that these genes can explain the differences in morphology, we plan to use the estimated quantities in a simulated network controlling calcification. We want to study the emergence of the micro-morphology structure and link gene expression patterns to the corallite structure. This polyp (corallite) based model will be coupled with a macroscopic growth form model describing Ca2+ and HCO3- fluxes from the environment. A better understanding of calcification in corals is of fundamental importance in research on the potentially detrimental impact of increasing atmospheric carbon dioxide concentrations, reducing ocean pH and carbonate ion concentrations on the calcification process in corals and other calcifying organisms.
Project HemoSolve
Provide an environment for simulation of blood flow in patient specific arteries.
Project Sparse Grid Finite-Difference Methods for Pricing of Multi-Asset Options
Numerical approximations of the Libor Market Model by using Sparse Grid techniques.
Project Understanding Volatility Smile in Option Markets
It is well known that the Black-Scholes model cannot account for the volatility smile observed in financial markets. To explain the deviations of option prices from the Black-Scholes formula, models based on processes other than the geometric Brownian motion, such as stochastic volatility and jump diffusion processes, have been proposed. While these models can include the smile effect on the valuation of options to some extent, they do not explain the origin of the smile phenomenon.
Project UvA-DRIVE
The UvA Distributed Real-time Interactive Virtual Environment
Project ACGT
Advancing Clinico-Genomic Trials on cancer
Project COAST
Complex Automata Simulation Technique
Project Epiwork
The EPIWORK project proposes a multidisciplinary research effort aimed at developing the appropriate framework of tools and components-epiwork knowledge needed for the design of epidemic forecast infrastructures to be used in by epidemiologists and public health scientists. The project is a truly interdisciplinary effort, anchored to the research questions and needs of epidemiology research by the participation in the consortium of leading epidemiologists, public health specialists and mathematical biologists.
Project MeDDiCa
Medical Devices Design in Cardiovascular Applications
Project Multi-Vis
A Multi-modal Visualisation Environment for Interactive Analysis of Medical Data
Project DynaNets
DynaNets studies and develops a new paradigm of computing through Dynamically Changing Complex Networks reproducing the way nature processes information.
Project Advanced Visualisation
A collaboration between the visualization groups of SARA and Computational Science.
Project VEARD
A Visual Exploration environment for Analyzing Gene Regulation in Developmental Processes
Project MORPHEX
Morphogenesis and gene regulatory networks in plants and animals: a complex systems modelling approach
Project QosCosGrid
Quasi Opportunistic Supercomputing for Complex Systems in Grid Environments
Project Genetic and Cellular Mechanisms for Controlled Growth
 
Project BIOMINTEC
Biomineralization: understanding of basic mechanisms for the design of novel strategies in nanobiotechnology (BIOMINTEC)
Project From individuals to emergence
 
Project Direct gravitational N-body simulations on graphics processing units
Mapping of a N-body code on a GPU using NVIDIA's CUDA.
Project Lattice Boltzmann Research
Overview of Lattice Boltzmann Research in Computational Science research group
Project CellMath
Mathematics and Computation for the Systems Biology of Cells
Project Simulation of developmental regulatory networks
Simulation of developmental regulatory networks
Project Grid-enabled workflow management system for scientific applications
grid-enabled workflow management system (WS-VLAM) following the OGSA/WSRF
Project Urban Flood
UrbanFlood is a project supported by the EC 7th Framework Programme, investigating the use of sensors within flood embankments to support an online early warning system, real time emergency management and routine asset management.
Project MAPPER
Multiscale Applications on European e-Infrastructures
Project VPH-Share
Virtual Physiological Human: Sharing for Healthcare - A Research Environment
Project THROMBUS
Development of a multiscale computational model for stent-induced thrombosis in intracranial aneurysms: understanding the biology, model the crucial processes, validate the model (In Vitro – In Vivo – In Silico), and develop an end-user software providing a virtual simulation of the thrombosis leading to the optimal stent for a specific patient’s aneurysm.
Project Twilight
Twilight is an interactive workbench for the visualization and exploration of graphs/networks.
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