• Skip navigation
  • Skip to navigation
  • Skip to the bottom
Simulate organization breadcrumb open Simulate organization breadcrumb close
Friedrich-Alexander-Universität Institute of Chemical Reaction Engineering CRT
  • FAUTo the central FAU website
  1. Friedrich-Alexander-Universität
  2. Technische Fakultät
  3. Department Chemie- und Bioingenieurwesen
Suche öffnen
  • en
  • de
  • UnivIS
  • Mein Campus
  • StudOn
  1. Friedrich-Alexander-Universität
  2. Technische Fakultät
  3. Department Chemie- und Bioingenieurwesen
Friedrich-Alexander-Universität Institute of Chemical Reaction Engineering CRT
Navigation Navigation close
  • Institute
    • Contact and directions
    • Staff
    • History
    • Open positions
    • New Building Technical Chemistry
    Portal Institute
  • Research
    • Joint Projects
    • Equipment
    • Publications
    • Research Groups
    Portal Research
  • Teaching
    • CRT Courses
    • Thesis options
    • Southern German Catalysis Teaching Network
    Portal Teaching
  1. Home
  2. Catalytic Systems for Chemical Energy Storage
  3. Research topics
  4. LOHC for Hydrogen Storage
  5. Highly efficient H2-release in LOHC reactors using planar catalyst modules

Highly efficient H2-release in LOHC reactors using planar catalyst modules

In page navigation: Catalytic Systems for Chemical Energy Storage
  • Research topics
    • BMBF Junior Research Group FAIR-H₂
    • DME als H₂-Transportmolekül
    • LOHC for Hydrogen Storage
      • Highly efficient H2-release in LOHC reactors using planar catalyst modules
      • Wasserstofffreisetzung aus LOHC zur maritimen Fortbewegung
    • Phosphorus-containing heterogeneous catalysts
  • Press releases and news
  • Publications
  • Team

Highly efficient H2-release in LOHC reactors using planar catalyst modules

Dehydrierung von LOHC mit einer laserstrukturierten und mit Platin besputterten Aluminiumplate, welche den LOReley Schriftzug zeigt
LOHC dehydrogenation using laser-structured and catalytically activated plates

Hydrogenation and dehydrogenation are strongly exo- or endothermic reactions that are catalyzed by precious metals. As a consequence, a high number of active precious metal centres increases the economic efficiency of the process drastically. In addition, reactors for efficient heat transport are required, which can handle a location-dependent ratio of gas and liquid volume. Therefore, the LOReley project focusses on the development of a novel reactor concept, which makes use of laser structured surfaces. This should enable the modification of a simple plate heat exchanger into a compact, lightweight and power-tight chemical reactor. The research interests and our competences lie in the conceptual design and the characterization of the novel reactor in the analytical investigation and optimization of the catalyst layers.

The joint project is funded by BMWi research funding of the Federal German Government, for a period of 36 months. Cooperations and associated partnerships with the research institutes Fraunhofer Heinrich Hertz Institute and Clausthal University of Technology, as well as the companies Hydrogenious LOHC Technologies GmbH, AMPHOS GmbH, MIOPAS GmbH and Kelvion PHE GmbH, are included.

Addition information

Image Movie

The institute wants to thank Stephanie Sinzger and Sandra Rachinger for designing and shooting the image movie. It was part of a semester project in the fields of multimedia and communication (FH Ansbach).

Display external content

At this point content of an external provider (source: Vimeo) is integrated. When displaying, data may be transferred to third parties or cookies may be stored, therefore your consent is required.

You can find more information and the possibility to revoke your consent in our privacy policy.

I agree

Friedrich-Alexander-Universität
Erlangen-Nürnberg

Egerlandstr. 3
91058 Erlangen
  • Imprint
  • Privacy
  • Accessibility
  • Facebook
  • RSS Feed
  • Twitter
  • Xing
Up