Konstantijn Rommens

Faculty of Engineering and Architecture > Department of Materials, Textiles and Chemical Engineering

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- Miscellaneous
- open access
Sustainable fuels from CO2-rich synthesis gas via Fischer-Tropsch technology

Bart de Jong, Konstantijn Rommens (UGent) , Tal Rosner, Paul van den Tempel, Léon Rohrbach, Leendert Bezemer, Hero Jan Heeres, Mark Saeys (UGent) , Charlotte Vogt and Jingxiu Xie

(2025)
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First‐principles microkinetic models for crowded surfaces

Dilan Tunçer (UGent) , Konstantijn Rommens (UGent) , Thobani Gambu (UGent) and Mark Saeys (UGent)

(2025) CHEMCATCHEM.
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First-principles high coverage microkinetic models for COx hydrogenation over cobalt and nickel

Konstantijn Rommens (UGent) and Mark Saeys (UGent)

(2025) Gordon Research Conference and Seminar : Chemical Reactions at Surfaces (GRC), Abstracts.
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Key role of CO coverage for chain growth in co-based Fischer–Tropsch synthesis

Konstantijn Rommens (UGent) , Kasun Gunasooriya and Mark Saeys (UGent)

(2024) ACS CATALYSIS. 14(9). p.6696-6709
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Microkinetic investigation of COx hydrogenation over cobalt catalysts

Konstantijn Rommens (UGent) and Mark Saeys (UGent)

(2023) 24th Netherlands Catalysis and Chemistry Conference (NCCC 2023), Abstracts.
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- Journal Article
- A1
- open access
Molecular views on Fischer–Tropsch synthesis

Konstantijn Rommens (UGent) and Mark Saeys (UGent)

(2023) CHEMICAL REVIEWS. 123(9). p.5798-5858
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Modeling realistic catalyst nanoparticles for Fischer-Tropsch synthesis using machine-learning potentials

Konstantijn Rommens (UGent) and Mark Saeys (UGent)

(2022) CRF-ChemCYS 2022, Abstracts.
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- Conference Paper
- C3
- open access
Enabling chain-growth by high CO coverage : a DFT-based microkinetic model

Konstantijn Rommens (UGent) and Mark Saeys (UGent)

(2022) DFT 2022, 19th International Conference on Density Functional Theory and its Applications, Abstracts.

Academic Bibliography

Konstantijn Rommens

Sustainable fuels from CO2-rich synthesis gas via Fischer-Tropsch technology

First‐principles microkinetic models for crowded surfaces

First-principles high coverage microkinetic models for COx hydrogenation over cobalt and nickel

Key role of CO coverage for chain growth in co-based Fischer–Tropsch synthesis

Microkinetic investigation of COx hydrogenation over cobalt catalysts

Molecular views on Fischer–Tropsch synthesis

Modeling realistic catalyst nanoparticles for Fischer-Tropsch synthesis using machine-learning potentials

Enabling chain-growth by high CO coverage : a DFT-based microkinetic model

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Sustainable fuels from CO2-rich synthesis gas via Fischer-Tropsch technology

First‐principles microkinetic models for crowded surfaces

First-principles high coverage microkinetic models for COx hydrogenation over cobalt and nickel

Key role of CO coverage for chain growth in co-based Fischer–Tropsch synthesis

Microkinetic investigation of COx hydrogenation over cobalt catalysts

Molecular views on Fischer–Tropsch synthesis

Modeling realistic catalyst nanoparticles for Fischer-Tropsch synthesis using machine-learning potentials​

Enabling chain-growth by high CO coverage : a DFT-based microkinetic model

Modeling realistic catalyst nanoparticles for Fischer-Tropsch synthesis using machine-learning potentials