Press release - 27/07/2023 Materials Research: Biocatalytic Foams of Tremendous Stability and Activity Industrial biocatalysis with enzymes is deemed to be a “game changer” in the development of a sustainable chemical industry. Enzymes can be used to synthesize an impressive range of complex molecules. Researchers of KIT have now developed a new class of materials by producing enzyme foams of tremendous stability and activity. The researchers have already filed a patent application on the process to produce enzyme foams.https://www.biooekonomie-bw.de/en/articles/pm/materials-research-biocatalytic-foams-tremendous-stability-and-activity
Press release - 25/07/2023 Green Genetic Engineering: Making Mendel’s Dream Come True with Molecular Scissors Molecular biologist Professor Holger Puchta from KIT is granted funding within a Reinhart Koselleck Project by the German Research Foundation (DFG) for work on specific restructuring of plant genomes. Puchta, a pioneer of green genetic engineering, has used molecular scissors in plants for 30 years now. His new project is aimed at using the CRISPR/Cas method to freely combine genes in crops, thus making Gregor Mendel’s dream come true.https://www.biooekonomie-bw.de/en/articles/pm/green-genetic-engineering-making-mendels-dream-come-true-molecular-scissors
Press release - 20/12/2022 Strong and biodegradable A polyester plastic of great mechanical stability, which is also easily recyclable and even compostable: Stefan Mecking, chemist at the University of Konstanz, and his research group present a new material.https://www.biooekonomie-bw.de/en/articles/pm/strong-and-biodegradable
Project BW2Pro - 29/08/2022 Biowaste to Products: biorefinery transforms biowaste into new products In 2020, Germany’s population collected over 5 million tonnes of biowaste. Most of this was composted, and some was fermented into biogas. Scientists in Baden-Württemberg think there's room for more. Within the project ‘Biowaste to Products’ (BW2Pro) they want to transform biowaste into new products in a biorefinery. The idea is to produce biodegradable plant pots, mulch material, fertilisers, enzymes and biobased plastics in addition to…https://www.biooekonomie-bw.de/en/articles/news/biowaste-products-biorefinery-transforms-biowaste-new-products
Press release - 13/01/2022 Turning harmful CO2 into useful chemicals Making important raw materials for fine chemicals out of carbon dioxide really works. As part of the Max Planck collaborative project eBioCO2n, a team of researchers from Fraunhofer IGB have successfully performed a first ever fixation of CO2 via a multi-enzyme enzyme reaction driven by electricity yielding a prospective intermediate for the chemical industry. The process for electro-biocatalytic CO2 fixation was recently published and is…https://www.biooekonomie-bw.de/en/articles/pm/turning-harmful-co2-useful-chemicals
Climate-friendly circular economy - 11/11/2021 CO2 from the air as a raw material for chemicals A Fraunhofer team has successfully produced a dye using CO2 adsorbed from the air. The aim is to move towards a climate- and resource-friendly circular economy. Chemicals, as well as fuels, can be produced cost-effectively using this process. How does the technical process work, and what opportunities does it open up?https://www.biooekonomie-bw.de/en/articles/news/co2-air-raw-material-chemicals
Press release - 01/10/2021 Crucial step identified in the conversion of biomass to methane Researchers find the enzymatic link in the formation of methane from fatty acids by cooperating microorganisms. Microbial production of methane from organic material is an essential process in the global carbon cycle and an important source of renewable energy. This natural process is based on a cooperative interaction between different types of microorganisms: the fermenting bacteria and the methane-producing archaea.https://www.biooekonomie-bw.de/en/articles/pm/crucial-step-identified-conversion-biomass-methane
Press release - 02/08/2021 CO2 as a raw material for plastics and other products Carbon dioxide is one of the main drivers of climate change – which means that we need to reduce CO2 emissions in the future. Fraunhofer researchers are highlighting a possible way to lower these emissions: They use the greenhouse gas as a raw material, for instance to produce plastics. To do this, they first produce methanol and formic acid from CO2, which they convert via microorganisms into building blocks for polymers and the like.https://www.biooekonomie-bw.de/en/articles/pm/co2-raw-material-plastics-and-other-products
Press release - 08/02/2021 Water-repellent and more: coating textiles sustainably with chitosan Textiles can be coated with the biopolymer chitosan and thus made water-repellent by binding hydrophobic molecules. The good thing is that this can also replace toxic and petroleum-based substances that are currently used for textile finishing. In the last few years Fraunhofer IGB and partners have developed technology to provide fibers with the desired properties using biotechnological processes and chitosan.https://www.biooekonomie-bw.de/en/articles/pm/Water-repellent-and-more-coating-textiles-sustainably-with-chitosan
Article - 30/01/2019 candidum – computer-assisted enzyme design Industry has been using enzymes for over a hundred years. While it initially had to content itself with natural enzymes, it is now increasingly possible to design tailor-made biocatalysts with specific properties. The start-up company candidum GmbH from Stuttgart promises to achieve this faster than ever before - mostly thanks to accelerated virtual screening.https://www.biooekonomie-bw.de/en/articles/news/candidum-computer-assisted-enzyme-design
Dossier - 20/03/2017 Lignin – a natural resource with huge potential Petroleum is the raw material for basic chemicals. Growing demand and dwindling resources mean that the chemical industry is increasingly focusing on renewable resources. Lignin is a wood component that is proving to be a promising resource. It is currently almost exclusively used for generating energy, although it could also be used for other purposes. In Baden-Württemberg, a research consortium is specifically focused on exploring its…https://www.biooekonomie-bw.de/en/articles/dossiers/lignin-a-natural-resource-with-huge-potential
Dossier - 16/06/2014 Biotechnology as a tool for the production of food https://www.biooekonomie-bw.de/en/articles/dossiers/biotechnology-as-a-tool-for-the-production-of-food
Dossier - 09/12/2013 Industrial biotechnology biological resources for industrial processes Industrial or white biotechnology uses microorganisms and enzymes to produce goods for industry, including chemicals, plastics, food, agricultural and pharmaceutical products and energy carriers. Renewable raw materials and increasingly also waste from agriculture and forestry are used for the manufacture of industrial goods.https://www.biooekonomie-bw.de/en/articles/dossiers/industrial-biotechnology-biological-resources-for-industrial-processes
Dossier - 08/10/2012 Marine biotechnology unknown sources of hope from the depths of the sea Biotechnological methods are used to investigate marine life and the results obtained from these investigations advance research in the fields of medicine and energy and into substances used as food supplements and cosmetics. The area of marine biotechnology is fairly diverse. Although it is not on the coast even the southern German state of Baden-Württemberg is involved in marine biotechnology.https://www.biooekonomie-bw.de/en/articles/dossiers/marine-biotechnology-unknown-sources-of-hope-from-the-depths-of-the-sea
Dossier - 01/10/2012 Systems biology understanding complex biological systems Systems biology studies complex interactions within biological systems on the genome proteome and organelle level. Many techniques from the fields of systems theory and associated fields can be used to gain an understanding of the behaviour and biological mechanisms of cellular systems.https://www.biooekonomie-bw.de/en/articles/dossiers/systems-biology-understanding-complex-biological-systems
Dossier - 23/07/2012 Extremophilic bacteria What causes stress for some, actually speeds others like extremophilic bacteria up. They love it hot, sour or salty, toxic substances like heavy metals also do them good and even give them energy. As molecular and systems biology techniques get better and better, industry is also becoming increasingly interested in these exotic organisms. What potential does knowing the biochemistry of extremophilic bacteria have for the pharmaceutical, cosmetics…https://www.biooekonomie-bw.de/en/articles/dossiers/extremophilic-bacteria