DiProMag

Overview

Digitalisation of a process chain for the production, characterisation and prototypical application of magnetocaloric alloys

Project runtime: 01.02.2021 – 31.01.2024

So that the air-conditioning system does not become a climate killer - with digital methods for climate-friendly cooling of the future

The entire air-conditioning technology, but also current and future key technologies such as artificial intelligence or quantum computers, are inconceivable without heating and above all cooling equipment. This is true for Germany, but even more so for the USA, China and India. Alternative cooling and heating concepts that require less energy and use environmentally friendly materials are of great importance for reducing the associated CO2 emissions. With the so-called "magnetocaloric" materials considered in this project, technical innovations should succeed that contribute to energy-saving and environmentally friendly refrigeration - from private households to industrial use. The generation of cold is based on a transformation of the crystalline structure of the materials that can be controlled by a magnetic field, during which energy is released or stored. This process can replace conventional refrigeration by compression and expansion in compressors, often using environmentally harmful refrigerants. Together with the industrial partner Miele, the entire process chain from the experimental production and characterisation of the magnetocaloric materials to their theoretical description and the construction of a demonstrator is to be realised and digitalised throughout. Based on a new approach for the scalable development of comprehensive ontologies, all process data and pursued intentions are digitally represented. Using a special procedure, these structured and unstructured data are used to train a high-dimensional data space in order to gain new knowledge about material-physical relationships in a completely digital way via analogy inferences. The long-term goal is to build up a digital magnetocaloric material base and use it for the discovery and development of better material properties in order to find industrially suitable solutions more quickly, effectively and cheaply in the future.

Tasks within the project Location
Bielefeld University of Applied Sciences
Additive Manufacturing and Application of Magnetocaloric Materials
Bielefeld
University of Bielefeld
Production and characterisation of magnetocaloric materials
Bielefeld