The goal of an economically, ecologically and socially sustainable bioeconomy is to secure the prosperity of present and future generations within the planetary boundaries. This will only be possible with comprehensive social and economic changes. New goods must be produced using new raw materials and processes, but this can succeed only if they are demanded and socially accepted. The transition from a fossil-based to bio-based economy will take place only with substantial changes in, for example, consumption patterns, value networks, business models, infrastructures and regulatory frameworks.
Technological and institutional innovations are key drivers of such transformation processes. However, they must be accompanied by the analysis of potential conflicts of goals such as nutrition versus material use of plants, by the analysis of the competitiveness of new products versus established oil-based alternatives and by investigations of the social acceptance of new technologies. Thus, transformation pathways can systematically be identified that are at the same time a) desirable from the sustainability perspective, b) possible from the techno-economic point of view and c) acceptable from the societal point of view.
Transform2Bio - Integrated Transformation Processes and their Regional Implementations: Structural Change from Fossil Economy to Bioeconomy
September 2019 - August 2022
Econ-BioSC - Biomass flows and technological innovation in the bioeconomy: A global scenario analysis
March 2015 - February 2016
Econ-BioSC
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Biomass flows and technological innovation win the bioeconomy: a global scenario analysis |
Economics of Sustainable Land Use and Bioeconomy, |
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P-ENG
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Efficient phosphate recovery from agro waste streams by enzyme, strain and |
Microbiology, Biotechnology (RWTH) |
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InducTomE
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Induction of secondary metabolites in tomato by-products for extraction and economic evaluation of the model process |
Botany and Molecular Genetics, Fluid Process Engineering (RWTH) |
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AP3
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Advanced pulping for perennial plants: a holistic and sustainable integrated lignocellulose biorefinery concept
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Plant Sciences (FZJ) |
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CombiCom
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Combinatorial creation of structural diversity for novel high-value compounds
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Molecular Enzyme Technology, Microbiology, Synthetic Biology, Bioorganic Chemistry (HHU) |
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Bio2
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Integration of next generation biosurfactant production into biorefinery processes
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Bioprocess Engineering, Microbiology, Fluid Process Engineering, Chemical Process Engineering (RWTH) |
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greenRelease
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GreenRelease for plant health
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Biotechnology, Plant Physiology , Functional and Interactive Polymers (RWTH), Technology and Innovation Management, Horticultural Sciences, |
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HyImPAct
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Hybrid processes for important precursor and active pharmaceutical ingredient
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Systems Biotechnology (FZJ) |
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PepUse
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Peptide adhesion promoters for user centered plant health applications
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Biotechnology (RWTH) |
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GreenToxiConomy
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Green toxicology for a green bioeconomy
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Environmental Research, Microbiology, |
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Transform2Bio
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Integrated transformation processes and their regional implementations: structural change from fossil economy to bioeconomy
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Systems Analysis and Technology Evaluation, Plant Sciences (FZJ) |
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NewBIAS |
New Biochars for the Improvement of Agricultural Soils
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Renewable Resources (U Bonn) |
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SurfIn |
Surface Active Biomolecules for the Chemical Industry
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Molecular Enzyme Technology (HHU) |
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P3roLucas |
Optimization of plant performance and products for lupin cascade use
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Plant Physiology (RWTH) |
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BioPlasticycle |
Transitioning bioplastics to the circular economy
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Systems Biotechnology, Synthetic Microbiology and Agrosphere (FZJ) |
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MK-ScaLoop |
Towards an industrial-scale process for a biotechnological production of methyl ketones in a novel multiphase loop reactor |
Fluid Process Engineering and Applied Microbiology (RWTH) |