Current research projects

Image Computational fluid dynamics CFD
Image Brine (water)-water heat pump
Image Innovative small helium liquefier
Image High temperature heat pump
Image Hybrid- Fluid for CO2-Sublimation Cycle
Image Optimizing HVAC operation with machine learning
Image Low temperature – test facilities
Image High Capacity Pulse Tube Cooler
Image Development of test methods and test rigs for stationary integrated refrigeration units
Image Measurements on ceiling mounted cooling systems
Image Reduction of primary noise sources of fans
Image Multifunctional electronic modules for cryogenic applications
Image Verification of storage suitability of cryo tubes
Image Performance tests of refrigerant compressors
Image In-situ investigation concerning the swelling behaviour of polymer materials under elevated pressures and temperatures
Image Calibration leak for the water bath leak test

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Innovative Parahydrogen Generator Based on Magnets

Euronorm GmbH

Erik Neuber

+49-351-4081-5122

Magnetic Gas Separation of the Hydrogen Isomers

Molecular hydrogen occurs in two isomeric forms which differ in their configuration of the nuclear spin: orthohydrogen and parahydrogen, whereas the latter accounts for only 25% of the whole gas at room temperature. Contrary to this, parahydrogen in its concentrated form is utilised especially for hyperpolarisation (so-called PHIP – Parahydrogen Induced Polarisation), which is a widespread method in the fields of medicine and chemistry to enhance the contrast of MRI and NMR apparatus.
However, all procedures for the production of this spin isomer are based upon cryogenic methods, which have comparatively high expenses for energy and maintenance. Because of this, there exists the demand for a cheap and efficient method to enrich parahydrogen for direct use in successive applications.

Project Goals

  • Development of an innovative ortho–para converter, which works at room temperature by using the principle of magnetic gas separation;
  • Measurement of the separation ability of the chosen principle at room temperature and optimisation of the resulting effect and
  • Enrichment up to 99% of parahydrogen at a variable volume flow (pursued are at least 4 standard litres per minute).

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Further Projects

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Ionocaloric cooling

Ionocaloric solid-liquid phase cooling process

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Low temperature – test facilities

thermal cycling tests at very low temperatures

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All-in-one device for freeze-drying and production of biomaterial

with automated freezing and sterilisation option