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Materials and chemicals

Biomass can be used to produce chemicals, fibres, pigments and plastics. These products are either identical to their petroleum-based counterparts or have completely new properties. Biorefineries will play a key role in the transition to a bioeconomy. There is great expectation placed on the potential ability to convert the countless carbon compounds in biomass into chemicals and material components.

  • Article - 22-Oct-2012

    Jointly organised by the German Federal Ministry of Education and Research (BMBF) and the German Federal Ministry of the Environment, Nature Conservation and Nuclear Safety (BMU), the recent Green Economy conference focused on how a sustainable bioeconomy can contribute to creating an environmentally friendly future. The conference participants agreed that immediate action was needed. Research programmes have been put in place to explore the opportunities, risks and general conditions associated with the establishment of a green economy, to give recommendations for action, and recommendations on how to deal with the challenges of climate change and the scarcity of energy and resources.

  • Article - 15-Oct-2012

    In April 2012 Rudolf Hausmann jr. was appointed professor of the newly established chair of bioprocess engineering at the University of Hohenheim. His passion biosurfactants used in cleaning agents detergents and foods which will in the future enable normally non-mixable liquids such as oil and water to be mixed together.

  • Article - 17-Sep-2012

    Thomas Paulöhrl, polymer chemist from the Karlsruhe Institute of Technology (KIT), was awarded the 2012 Lanxess Talent Award for his achievements in further developing light-induced click strategies that can now be used for generating various surface structures and three-dimensional frameworks. His Ph.D. thesis not only provides the basis for new ways to efficiently modify material, it also opens up new research opportunities in medical drug discovery.

  • Article - 03-Sep-2012

    Unicellular, aquatic dinoflagellates are masters of what is known as nested symbiosis. They engulf chloroplast-carrying organisms which enable them to photosynthesize sunlight. While this type of symbiotic relationship enables dinoflagellates to survive, the toxins produced by algal blooms, which typically involve dinoflagellates, can have a deadly effect on marine life. This in turn can also affect organisms that consume marine life – including humans. Researchers at the University of Stuttgart are studying the variety and complexity of such symbiotic life forms.

  • Article - 06-Aug-2012

    SystemsX.ch is currently the biggest research initiative in Switzerland to provide financial support and technologies in the field of systems biology research. It is a consortium of twelve Swiss research institutions and universities but also works with non-Swiss institutions including the Baden-Württemberg-based company KNIME GmbH. The initiative is interested in expanding its cooperation with other life sciences companies and universities.

  • Article - 30-Jul-2012

    Technical problems? Well, why not have a look at the solutions offered by nature? Prof. Dr. Peter M. Kunz from the Mannheim University of Applied Sciences did just this and was able to help the company LAMY produce special fountain pens and save time and money.

  • Article - 23-Jul-2012

    Thermophilic and hyperthermophilic archaea and bacteria give us an idea of the conditions under which organisms evolved as long as 3.5 billion years ago. It is still unclear whether the first cells originated on the surface of hot volcanic springs or on hydrothermal vents in oceans.

  • Article - 23-Jul-2012

    Most of what is easily accessible has in principle already been discovered said Dr. Ivan Berg from the University of Freiburg explaining why he is investigating the metabolic pathways in extremophilic microorganisms. The researcher and his team are interested in the biochemistry of organisms living in hot volcanic springs and the Dead Sea. Examples of this are two metabolic pathways which the researchers from Freiburg discovered in organisms belonging to the Crenarchaeota. The bacteria use the pathways to assimilate atmospheric carbon dioxide without the risk of poisoning themselves with the breakdown products arising at high temperatures. What can industry learn from extremophilic bacteria? What are the advantages and disadvantages for laboratory applications? And what can we learn from them about evolution on Earth?

Website address: https://www.biooekonomie-bw.de/en/articles/materials/?block_106114size=8&block_106114from=40