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Team:Aachen/Attributions
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<h4>RWTH Institute for Applied Microbioloy (iAMB)</h4> | <h4>RWTH Institute for Applied Microbioloy (iAMB)</h4> | ||
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| - | <img class="imgshadow" style="float: left;" src="https://static.igem.org/mediawiki/2014/4/42/Aachen_LarsBlank.jpg" width=" | + | <img class="imgshadow" style="float: left;" src="https://static.igem.org/mediawiki/2014/4/42/Aachen_LarsBlank.jpg" width="150px" /> |
Prof. Blank focuses in his research on fundamental and applied aspects of microbial metabolism. Of specific interest is the interaction between the metabolic network and the introduced genetic and environmental perturbations. The research on in silico/in vivo metabolic network operation is aimed at a deeper understanding of cell function, with the ultimate goal of rational cell engineering. | Prof. Blank focuses in his research on fundamental and applied aspects of microbial metabolism. Of specific interest is the interaction between the metabolic network and the introduced genetic and environmental perturbations. The research on in silico/in vivo metabolic network operation is aimed at a deeper understanding of cell function, with the ultimate goal of rational cell engineering. | ||
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(IGB-1) </h4> | (IGB-1) </h4> | ||
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| - | <img class="imgshadow" style="float: left;" src="https://static.igem.org/mediawiki/2014/8/88/Aachen_WolfgangWiechert.jpg" width=" | + | <img class="imgshadow" style="float: left;" src="https://static.igem.org/mediawiki/2014/8/88/Aachen_WolfgangWiechert.jpg" width="150px" /> |
Prof. Wiechert's main area of work lies within the field of applied systems bio(techno)logy of microorganisms with a special focus on methodological developments for quantitative biology. Characteristics of his research work are a close integration of experimental and theoretical work within multi disciplinary projects. As the head of the Systems Biotechnology research division at Jülich Research Centre, he is developing methods for quantitative metabolomics, fluxomics and proteomics including model based mathematical methods for experimental design, parameter estimation, and process optimization in biotechnological systems. Within the framework of systems biology mathematical models at different levels of details are formulated and used to integrate multi-omics data. These models are then used for process development in industrial biotechnology. Future work will also incorporate micro fluidic methods for single cell analysis. In general all research results are used to drive forward the process of gaining knowledge in the course of an iterative improvement of industrial production systems. This proceeds in close cooperation of all working groups at the IBG-1. Together with industrial partners also diverse examples from industry are investigated and further developed. Read more about Prof. Wiechert's work on the <a href=http://www.fz-juelich.de/SharedDocs/Personen/IBG/IBG-1/EN/Research_groups/general/wiechert.html/">IBG-1 website</a>. | Prof. Wiechert's main area of work lies within the field of applied systems bio(techno)logy of microorganisms with a special focus on methodological developments for quantitative biology. Characteristics of his research work are a close integration of experimental and theoretical work within multi disciplinary projects. As the head of the Systems Biotechnology research division at Jülich Research Centre, he is developing methods for quantitative metabolomics, fluxomics and proteomics including model based mathematical methods for experimental design, parameter estimation, and process optimization in biotechnological systems. Within the framework of systems biology mathematical models at different levels of details are formulated and used to integrate multi-omics data. These models are then used for process development in industrial biotechnology. Future work will also incorporate micro fluidic methods for single cell analysis. In general all research results are used to drive forward the process of gaining knowledge in the course of an iterative improvement of industrial production systems. This proceeds in close cooperation of all working groups at the IBG-1. Together with industrial partners also diverse examples from industry are investigated and further developed. Read more about Prof. Wiechert's work on the <a href=http://www.fz-juelich.de/SharedDocs/Personen/IBG/IBG-1/EN/Research_groups/general/wiechert.html/">IBG-1 website</a>. | ||
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(DWI)</h4> | (DWI)</h4> | ||
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| - | <img class="imgshadow" style="float: left;" src="https://static.igem.org/mediawiki/2014/f/fe/Aachen_UlrichSchwaneberg.jpg" width=" | + | <img class="imgshadow" style="float: left;" src="https://static.igem.org/mediawiki/2014/f/fe/Aachen_UlrichSchwaneberg.jpg" width="150px" /> |
The Schwaneberg Group seeks to be at the research frontier in the interdisciplinary field of directed protein evolution by developing novel methods for generating diversity at the gene level, analyzing consequence of mutational biases on the protein level and developing novel high-throughput screening systems that will ultimately lead to tailored-biocatalysts for significant applications in industry. They train students in the cutting edge technologies of laboratory evolution, biocatalyst engineering and high throughput screening methodologies. The Schwaneberg Group believes in integrating fundamental principles of protein design with environmental awareness in their research and seeks to promote international scientific collaborations. Read more about Prof. Schwaneberg and his work on the <a href=http://www.biotec.rwth-aachen.de/">Schwaneberg Group's website</a>. | The Schwaneberg Group seeks to be at the research frontier in the interdisciplinary field of directed protein evolution by developing novel methods for generating diversity at the gene level, analyzing consequence of mutational biases on the protein level and developing novel high-throughput screening systems that will ultimately lead to tailored-biocatalysts for significant applications in industry. They train students in the cutting edge technologies of laboratory evolution, biocatalyst engineering and high throughput screening methodologies. The Schwaneberg Group believes in integrating fundamental principles of protein design with environmental awareness in their research and seeks to promote international scientific collaborations. Read more about Prof. Schwaneberg and his work on the <a href=http://www.biotec.rwth-aachen.de/">Schwaneberg Group's website</a>. | ||
Revision as of 15:52, 3 October 2014
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Prof. Blank focuses in his research on fundamental and applied aspects of microbial metabolism. Of specific interest is the interaction between the metabolic network and the introduced genetic and environmental perturbations. The research on in silico/in vivo metabolic network operation is aimed at a deeper understanding of cell function, with the ultimate goal of rational cell engineering.
In his teaching, Prof. Blank focuses on the integration of biological concepts with the tools from bioinformatics and engineering. He believes that a sound knowledge base in the life sciences is key for creative and thus successful work in the areas of Metabolic Engineering and Synthetic Biology. Read more about Prof. Blank's work on the 
Prof. Wiechert's main area of work lies within the field of applied systems bio(techno)logy of microorganisms with a special focus on methodological developments for quantitative biology. Characteristics of his research work are a close integration of experimental and theoretical work within multi disciplinary projects. As the head of the Systems Biotechnology research division at Jülich Research Centre, he is developing methods for quantitative metabolomics, fluxomics and proteomics including model based mathematical methods for experimental design, parameter estimation, and process optimization in biotechnological systems. Within the framework of systems biology mathematical models at different levels of details are formulated and used to integrate multi-omics data. These models are then used for process development in industrial biotechnology. Future work will also incorporate micro fluidic methods for single cell analysis. In general all research results are used to drive forward the process of gaining knowledge in the course of an iterative improvement of industrial production systems. This proceeds in close cooperation of all working groups at the IBG-1. Together with industrial partners also diverse examples from industry are investigated and further developed. Read more about Prof. Wiechert's work on the 
The Schwaneberg Group seeks to be at the research frontier in the interdisciplinary field of directed protein evolution by developing novel methods for generating diversity at the gene level, analyzing consequence of mutational biases on the protein level and developing novel high-throughput screening systems that will ultimately lead to tailored-biocatalysts for significant applications in industry. They train students in the cutting edge technologies of laboratory evolution, biocatalyst engineering and high throughput screening methodologies. The Schwaneberg Group believes in integrating fundamental principles of protein design with environmental awareness in their research and seeks to promote international scientific collaborations. Read more about Prof. Schwaneberg and his work on the 
