EnovHeat

The refrigerant in such a device is a solid magnetic material whose temperature increases when magnetised and decreases when demagnetised. The use of solid-state active regenerator technology has several advantages compared to traditional vapour-­compression heat pumps, including high energy efficiency, quiet operation, and a lack of toxic or greenhouse contributing gases. Also, the heat transfer fluid within the device can be pumped throughout the entire circuit, obviating the need for the secondary circuits and associated heat exchangers and pumps found in conventional “ground source” heat pumps.

However, if magnetocaloric heat pumps are to be realised, a number of issues must be solved, drawing on a complex interplay between several scientific fields. The key scientific challenges will be characterisation and optimisation of materials for use in the device, development of novel algorithms for modelling optimal hybrid magnet designs combining permanent magnets and electromagnets, as well as efficient regenerator design for high heat transfer performance with low pressure. Optimal system operation and integration into buildings will also be addressed.

Project Period: January 1st 2013 – December 31th 2017

Budget: DKK 22,4 Million

Funding: Innovation Fund Denmark (Former: Danish Council for Strategic Research, Programme Commission on Sustainable Energy and Environment)

Research partners:

DTU Energy Conversion:
- Christian Bahl
- Kurt Engelbrecht
- Anders Smith
- Kaspar Nielsen
- Rasmus Bjørk
- Nini Pryds

University of Southern Denmark:
- Christian Veje

Aalborg University:
Per Heiselberg

Imperial College London:
- Karl Sandeman
- Lesley Cohen

University of Ljubljana:
- Andrej Kitanovski
- Jaka Tusek

University of  Wisconsin-‐Madison:
- Greg Nellis

Other partners:
Technoflex:
- Jens Mortensen
- Jens Nymand

Alpcon:
- Paw Mortensen
- Ali Enkeshafi

Vacuumschmelze:
- Mabhias Kaber
- Alexander Barcza

BSH Bosch und Siemens Hausge:
- Kai Nitschmann