Fiber composites made from bio-based raw materials are increasingly in demand in industry. They are set to replace materials previously based on glass or carbon fibers or even basalt or aramid fibers. The intention is to produce more sustainable products, because the previous variants are very energy-intensive, both in production and in recycling. Yet sustainability is not to be achieved at the expense of processability or material properties.

What will food production look like in the future? Already today, more people live in cities than in the countryside. However, the majority of food is produced in rural areas. Due to climate change, however, there is less and less land that is suitable for growing food. In the joint project CUBES Circle, researchers have been working on an alternative for years.

Innovations in the field of life sciences secure the food production of the future and make it more sustainable. To accelerate innovation through start-ups in the fields of agriculture, food technology and biotechnology, the Technical University of Munich (TUM) and UnternehmerTUM have launched the TUM Venture Lab Food-Agro-Biotech (FAB). The Lab FAB is one of now eleven TUM Venture Labs, which are designed to support TUM researchers and students in entrepreneurial spin-offs in the various fields of technology.

Less than two years ago, a team of researchers at the University of Leipzig reported that they had discovered an enzyme that degrades the plastic polyethylene terephthalate - better known as PET - at high speed. Now the experts have followed up and improved this enzyme even further.

It has been ten years since AMSilk first processed biotechnologically produced spider silk into fibers. Today, the artificial spider silk threads called Biosteel are used in numerous high-tech products such as running shoes, watch straps, door handle loops and aircraft wings. Spider silk proteins are also used in medicine and cosmetics.

Wastewater has long since become a valuable resource for recycling nutrients such as phosphate or returning water to the cycle. For this, however, all pollutants such as pharmaceutical residues or corrosion protection agents must be removed from the wastewater. This is usually done with activated carbon, because the pollutants easily stick to this carbonaceous and porous material. But activated carbon is mainly obtained from lignite and hard coal.

For decades, moors were deliberately drained for land reclamation. Only about five percent of Germany's land area is still moorland. The drainage not only destroyed the habitat of many plants and animals, but also an important CO2 reservoir. Two years ago, the federal and state governments therefore agreed to invest more than 330 million euros in projects to protect peatlands. The main focus is on the large-scale rewetting of drained peatlands. Paludiculture stands for reviving peatlands as CO2 reservoirs in a sustainable and gentle way.

In vehicle construction, in aviation, in the furniture industry or in medical technology: Composite materials are used wherever lightweight and load-bearing elements are required. By combining different materials, composite materials are created that have certain properties and meet specific requirements. However, conventional composites are usually made from fossil raw materials such as concrete and are not sustainable. Not only does the production process cause significant CO2 emissions. Recycling is also energy-intensive.