Projects in the Thematic Area

There are 48 results.

Ressourcenwende

ReTarget - Re-manufacturing and re-purposing of high-quality sputter materials

The project objective is to reduce the energy input in the production of sputtering targets by at least 20 % by direct re-manufacturing of used, precious metal targets. In addition, the utilization rate will be increased from an average of 20-30 % to 70-80 % through a direct re-purpose approach, as well as by optimizing the sputtering process. This will allow a significant reduction of the footprint of the sputtering process.

Ressourcenwende

CircuPack - Recyclable materials for food packaging with a low ecological footprint

The goal of the project is to develop sustainable and environmentally friendly food packaging with an improved ecological footprint. It is important to develop a new process control that ensures both food compatibility and the sustainability of the resulting product.

Ressourcenwende

BitKOIN - CO2-reduced binding agent through thermochemical conversion of mineral wool waste combinations

In the BitKOIN project, conceptual, experimental and model research activities are conducted in order to develop a substitute material for ground-granulated blast furnace slag (GGBS). First, mineral wool waste and other mineral residues, which are required as additives to achieve the desired chemistry, are sampled representatively. The materials are then characterized chemically, mineralogically and physically and are additionally classified according to waste regulations. By thermochemical conditioning of the mineral wool waste, combined with the other waste materials, the "Huettensand 2.0" (GGBS 2.0) is developed. The project aims to develop the "Huettensand 2.0" , a durable GGBS substitute.

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LightCycle

Fiber-reinforced thermoplastic composite components with low weight, so-called lightweight components for transport and mobility, lead to significant CO2 savings. Despite established production technologies and weight savings, further progress in lightweight construction is increasingly difficult because the sustainability of these products is currently not given due to the unresolved recycling problem, although the regulations require, among other things, 85 % recycling of an end-of-life vehicle.

Ressourcenwende

Wastewater cycle. Cascadic recycling of wastewater and organic residue streams in buildings.

Basic research is being conducted for a sustainable cycle-oriented system for the building-integrated recycling of wastewater and food waste. This includes nutrient recovery for a sustainable circulation system (production of plant fertiliser and biochar), electricity production to meet the demand (up to 15 %) of plus-energy buildings, as well as water recovery for irrigation of the building's own or urban greenery and for summer cooling.

Ressourcenwende

EPSolutely - Development of a circular economy concept in the plastics industry using the example of EPS

In a system-wide cooperation of all relevant actors of the EPS value chain system, concepts, technologies and methods for an EPS circular economy are developed. The integration into an overall concept with optimised logistics and transport systems should enable the transformation of linear EPS value creation systems into a circular economy.

Ressourcenwende

QB3R – Quality controlled high‐performance components consisting of 100% bio‐based resins with high potential in repair and recycling

The QB3R project aims to develop an epoxy resin system having a 100% bio‐based carbon content. The QB3R resin will be processable with various different manufacturing techniques resulting in high performance components for long‐lasting material goods.

Ressourcenwende

circPLAST‐mr Mechanical Recycling of Plastics: Mechanisches Recycling von Kunststoffen: From waste plastics to high‐quality and specification‐compliant recyclates

The flagship project circPLAST‐mr pursues the following 4 main objectives: (1) to identify and explore previously unused potential for mechanical plastics recycling, (2) to define and test key process steps for this on a laboratory/pilot scale, (3) to demonstrate the eco‐efficient marketability of increased recycled plastic volumes, and (4) to demonstrate the scalability of the laboratory/pilot process steps to industrial scale.