Bioeconomy

Over the next four years the European UNRAVEL project will demonstrate a sustainable and economically feasible biorefinery for the conversion of second generation biomass into fuels, chemicals and building materials. In their efforts the partnership from six European countries are supported by the Bio Based Industries Joint Undertaking (BBI JU) which funds the UNRAVEL project with 3.6 million Euros.

Article - 15/11/2017

From biomass to diesel

Using the power of microbes: biochemists from Leipzig and Tübingen use the combined power of microbes and electrolysis to produce fuels from organic material. This new process uses electricity from renewable resources to produce diesel from organic waste and green cuttings, amongst other things, and can therefore also be used for storing wind and solar energy.

Article - 03/05/2010

In order to innovate, we must come down from the ivory tower

At talks given at the recent Biotechnology Days in Berlin representatives of a number of different BMBF-funded clusters showed that numerous strategies to enable the industrial production of biopolymers and biomaterials from resources other than oil are now available.

Retrospect - 18/05/2016

Hannover Messe 2016: Hands-on bioeconomy

As in previous years, BIOPRO Baden-Württemberg GmbH participated in this year’s Hannover Messe, the world’s biggest industrial fair. With the USA as partner country and the lead theme ”Integrated Industry – Discover Solutions”, the 2016 trade fair attracted more than 190,000 visitors from around the world. From 25th to 29th April, visitors to hall 2 were able to discover biobased products and experience an economy that runs without fossil…

Article - 08/02/2016

Sustainable bioeconomy for a decarbonised world

At the Global Bioeconomy Summit held in Berlin in November 2015, international agendas were adopted that aim to integrate the bioeconomy as part of the development of a sustainable global economy and the fight against man-made global warming. The Summit also called for halting the further deterioration of planetary environmental processes to ensure a sustainable future.

Press release - 26/07/2018

Power-to-X technologies and renewables

Storage solutions will be very much in demand as renewables account for a growing share of electricity in the grid. One option – converting fluctuating green electricity into chemical energy carriers or raw materials – looks particularly promising. Scientists at the Centre for Solar Energy and Hydrogen Research Baden-Württemberg (ZSW) want to put power-to-X processes into action with a two-pronged strategy.

Energy transition - 28/09/2015

Biogas from unicellular green algae

Microalgae are among the most promising sources of sustainable, carbon-neutral biofuels for the future. They are already being used as feedstock for producing biogas, biodiesel, bioethanol and kerosene, but the associated production methods consume a great deal of energy and are rather costly. Dr. Nikolaos Boukis from the Karlsruhe Institute of Technology (KIT) is working on the development of a sophisticated, thermochemical process with an…

Article - 12/09/2016

Valuable new biopolymers from crustacean shells

In the EU alone, more than 250,000 tons of seashell waste are discarded every year. The exoskeleton of crustaceans consists of proteins, calcium carbonate and chitin, a long-chain sugar molecule which could be used to produce valuable building blocks for the polymer industry. Scientists from the Fraunhofer Institute for Interfacial Engineering and Biotechnology (IGB) in Stuttgart have developed a biotechnological process aimed at a sustainable…

Overview

Environmental analytics

Nature provides the material basis for a bioeconomy. Preventive and production-integrated environmental protection will therefore become even more important in a bioeconomy. Powerful analytical systems that can be used in industrial processes or in the field will provide information about soil, air and water quality. Environmental analytics and monitoring are crucial for the bioeconomy.

Overview

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.

Overview

Biobased resources

A major goal of the bioeconomy is to use larger quantities of biobased raw materials to produce energy, transport fuels and feedstock for industrial processes. This requires detailed analyses, simulations, concepts and processes. Major focus needs to be placed on issues relating to crop production, biomass potentials, land surface requirements, conversion technologies, biobased value creation networks and food security. Agriculture, forestry,…

Article - 30/05/2016

An artificial leaf for splitting water

Chemical model systems can be used to study the processes of plant photosynthesis with the goal of tapping sunlight as a source for covering the energy needs of the future. Researchers from Ulm have now developed an artificial leaf based on a manganese-vanadium oxide catalyst which can effectively carry out the critical photocatalytic reaction of splitting water molecules into hydrogen ions and molecular oxygen.

Overview

Politics, ethics and economy

Agricultural land on Earth is limited. However, the increased need for food and feed coupled with the increasing use of biomass feedstocks leads to areas of conflict such as intensive farming, biodiversity loss, land grabbing and indirect land use change. Governments are faced with the major challenge of having to deal with and shape the bioeconomy while taking equally into account the ecological, economic and ethical concerns and integrating…

Article - 17/07/2017

Efficient production of fuel from biogenic residues

Natural gas is a more climate friendly fuel than raw materials such as coal and petroleum. Nevertheless it is also a fossil fuel that generates anthropogenic CO2 emissions. In a collaborative project at the Karlsruhe Institute of Technology, scientists and engineers are concentrating on finding out how biogenic residues and waste materials such as wood, sewage sludge and biomass mixtures can be turned into alternative gaseous fuels.

In a review article recently published in the scientific journal Waste Management, ATB scientists outline the possibility of using insects to efficiently and sustainably recycle food waste. This insect-based bioconversion can help to close material cycles in the food value chain.

How can we achieve the internationally agreed climate targets? The Fraunhofer Institute for Interfacial Engineering and Biotechnology IGB makes the greenhouse gas CO2 usable as a carbon source for the chemical industry. With a patented catalyst synthesis, screening for the optimal catalyst in high throughput and combined (electro)chemical-biotechnological processes, various concepts are available to CO2 emitting industries.