KLKaren De Lannoye
Karen De Lannoye
*This is an algorithmically generated author record based on publicly available information.
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Karen De Lannoye has a total of 4 co-authors. Here are the top co-authors by number of shared publications:
- Alexander Belt
Institute for Advanced Simulation, Forschungszentrum Jülich, Jülich, Germany
1 shared publication - Ernst-Arndt Reinecke
Institute of Energy Technologies—Electrochemical Process Engineering (IET-4), Forschungszentrum Jülich GmbH, 52425 Jülich, Germany
1 shared publication Isaac T. Leventon
1 shared publication- Lukas Arnold
Chair of Computational Civil Engineering University of Wuppertal Pauluskirchstraße 7 42285 Wuppertal Germany
1 shared publication
Latest Publications
- 4 April 2026
- Published by Elsevier in Fire Safety Journal
- Vol. 163
Spatially-resolved mass loss rate measurements and pyrolysis front tracking during upward flame spread
- 4 April 2026
- Published by Elsevier in Fire Safety Journal
- Vol. 163
Spatially-resolved mass loss rate measurements and pyrolysis front tracking during upward flame spread
- Open Access
- 18 June 2024
- Published by Springer Nature in Fire Technology
- Vol. 60 (5) , 3689-3707
The Tube Furnace with Online Mass Loss Measurement as a New Bench Scale Test for Pyrolysis
In this paper, a new gram scale experiment with well characterised boundary conditions is proposed for pyrolysis experiments. The set-up consists of a tube furnace, based on ISO19700, with a newly designed concept for a balance within the oven, allowing for online mass loss measurements. Samples with a length up to 50 cm can be investigated in this apparatus. The oven allows for experiments at fixed temperatures or at fixed heating rates, under controlled atmosphere, w.r.t. gas composition and flow rate. A thorough characterisation of the set-up is presented, including aspects like reproducibility of the heating rate or the precision of the balance. The functionality of the balance has been demonstrated with calcium carbonate (CaCO $$_{3}$$ ) experiments. This material was chosen because it decomposes in a single reaction, which only releases CO $$_{2}$$ . This allows for comparison between the mass loss rate of the balance and the CO $$_{2}$$ production rate, measured by a gas analyser. Results for two different heating rates: 3 K/min and 5 K/min and for different masses (25 g and 8.5 g) are presented. The two measurement methods are in excellent agreement. Finally, the data obtained from the new experimental set-up is compared to results from thermogravimetric analyser (TGA) experiments.- 18 June 2024
- Published by Springer Nature in Fire Technology
- Vol. 60 (5) , 3689-3707
Open AccessThe Tube Furnace with Online Mass Loss Measurement as a New Bench Scale Test for Pyrolysis
In this paper, a new gram scale experiment with well characterised boundary conditions is proposed for pyrolysis experiments. The set-up consists of a tube furnace, based on ISO19700, with a newly designed concept for a balance within the oven, allowing for online mass loss measurements. Samples with a length up to 50 cm can be investigated in this apparatus. The oven allows for experiments at fixed temperatures or at fixed heating rates, under controlled atmosphere, w.r.t. gas composition and flow rate. A thorough characterisation of the set-up is presented, including aspects like reproducibility of the heating rate or the precision of the balance. The functionality of the balance has been demonstrated with calcium carbonate (CaCO $$_{3}$$ ) experiments. This material was chosen because it decomposes in a single reaction, which only releases CO $$_{2}$$ . This allows for comparison between the mass loss rate of the balance and the CO $$_{2}$$ production rate, measured by a gas analyser. Results for two different heating rates: 3 K/min and 5 K/min and for different masses (25 g and 8.5 g) are presented. The two measurement methods are in excellent agreement. Finally, the data obtained from the new experimental set-up is compared to results from thermogravimetric analyser (TGA) experiments.