Bioeconomy

From carbon to a circular economy

Moving away from carbon to a bio-based circular economy: At Jülich, we are helping to make agriculture fit for climate change. We conduct research into how new applications for chemistry, energy production, and pharmaceutics can be developed from biological resources.

It is worth taking a fresh look at nature’s toolbox of microorganisms, algae, and plants, since they often have amazing capabilities. For instance, there are a number of microscopic organisms that can eat plastic. With their help, we might be able to get to grips with the global waste problem. Other organisms act as catalysts to produce bioplastics or active pharmaceutical ingredients and chemicals from plant waste.

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Phages are masters at manipulating bacteria. We would like to copy the tricks they use and utilise them for industrial processes. For example, to allow bacteria to produce active medical ingredients or fine chemicals.

Prof. Dr. Julia Frunzke, Head of Bacterial Networks and Interactions

We investigate the numerous possibilities presented by biological resources at Jülich. In doing so, we utilize outstanding research infrastructure in microbiology, biotechnology, and plant and soil research. We are working on the development of a sustainable circular economy, known as the bioeconomy. Unlike fossil fuels such as coal, oil, and gas – which our current economic system is based on – biological raw materials are renewable. They are the future.

Making agriculture fit for the future

Agriculture has an important role to play. Jülich scientists therefore aim to make it fit for the future. They conduct research into the interactions between microorganisms, plants, and soils. The data from their test fields and from simulations help to optimize crop yields, reduce the use of fertilizers, and tackle the changes caused by climate change. Rising temperatures and more frequent periods of drought are ultimately putting crops under increasing stress. We therefore develop digital systems that can be used to monitor the condition of plants in the fields and optimize their irrigation. We are also looking for and breeding varieties that can meet the new requirements. Our major goal is to ensure that we can continue to feed the world’s growing population in future.

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Ppercent of the plants harvested worldwide are thrown away. At Jülich, we see this plant waste as a resource for the bio-based circular economy.

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megawatts (peak) is produced by the agrivoltaic plant that we operate together with RWE at the edge of the Garzweiler open-cast mine for demonstration purposes.

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percent increase in yield from soybeans when the CO2 concentration in the air rises, Jülich researchers have discovered. However, this is also accompanied with a decrease in quality.

The Rhenish mining area serves us as a model region for the structural change away from fossil fuels towards a bio-based circular economy. Within the scope of the BioökonomieREVIER initiative, which we coordinate, we bring together stakeholders such as local authorities, companies, and farmers. Together, we are testing new cultivation methods and technologies and developing new products such as grass paper from plant residues. Since 2010, we have also been pooling our expertise with the universities of Bonn and Düsseldorf and RWTH Aachen University in the Bioeconomy Science Centre in order to lay the foundations for a sustainable, bio-based economy.

Agri-PV: Electricity from the field

Even a bio-based economy requires energy production. In our agrivoltaics demonstration projects, we show how electricity and crops can be harvested simultaneously on agricultural land. The collectors high above the plants also protect them from hail and the sun.

News on Bioeconomy

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Last Modified: 06.09.2024