Published June 19, 2026 | Version v2

Data for "Oscillatory motion of trickle-bed reactor can break up liquid channeling and thus increase reaction efficiency"

  • 1. ROR icon Friedrich-Alexander-Universität Erlangen-Nürnberg
  • 2. EDMO icon Friedrich-Alexander-University Erlangen-Nürnberg
  • 3. Helmholtz-Institute Erlangen-Nürnberg for Renewable Energy (IET-2)
  • 4. Institute for a Sustainable Hydrogen Economy (IHE)
  • 5. ROR icon Hamburg University of Technology

Description

This folder contains the supporting data and files prepared for a Zenodo deposit related to the paper **Oscillatory motion of trickle-bed reactor can break up liquid channeling and thus increase reaction efficiency**. 

 

Abstract:
We report the observation that applying an oscillatory pitching motion can substantially increase 
the reaction efficiency in a trickle-bed reactor used for the hydrogenation of liquid organic hydrogen 
carriers (LOHC). In the present experiments, steady-state reaction was reached 14 times faster and 
with approx. 25% larger mean efficiency for the pitching reactor compared to the conventional 
stationary reactor. Increasing the pitching amplitude from 1◦ to 4◦ accelerated the reaction by about 
45%. Strong memory effects were observed, with increased reaction efficiency being maintained for 
2 hours in a non-moving reactor, if the reactor had been operated under oscillatory pitching motion 
beforehand. Therefore, the present results indicate that substantial efficiency increases do not require 
continuous oscillations, instead already occasional reactor motions may suffice. We hypothesize that 
the increase in efficiency is due to breaking-up of liquid channels. Computational Fluid Dynamics 
(CFD) simulations and cold-flow experiments are reported that strongly support this theory.

Files

Data for Oscillatory motion of trickle-bed reactor.zip

Files (913.3 MB)

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Additional details

Funding

Federal Ministry for Economic Affairs and Climate Action
ProHy- Gen - Prototypenentwicklung eines schwimmenden Offshore- H2-Generators und Planung von GW-Offshore-Wasserstoffparks 03EI3084