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International projects source: SICRIS

Electrified Single Stage Ammonia Cracking to Compressed Hydrogen

Keywords
Proton conducting ceramic, Ammonia cracking, Pressurized hydrogen, Single stage
Organisations (1) , Researchers (16)
0782  University of Ljubljana, Faculty of Mechanical Engineering
no. Code Name and surname Research area Role Period No. of publicationsNo. of publications
1.  15990  PhD Boštjan Drobnič  Energy engineering  Researcher  2024 - 2026  221 
2.  56664  Jure Gramc  Energy engineering  Researcher  2023 - 2026  67 
3.  59458  Dominik Gregorčič  Energy engineering  Researcher  2024 - 2025  23 
4.  58887  Domen Hojkar  Energy engineering  Researcher  2024 - 2026  54 
5.  58662  Mihael Boštjan Končar  Energy engineering  Researcher  2024 - 2025  50 
6.  06784  PhD Igor Kuštrin  Energy engineering  Researcher  2025  370 
7.  33777  PhD Andrej Lotrič  Energy engineering  Researcher  2023 - 2026  96 
8.  23369  PhD Mitja Mori  Energy engineering  Leader of the participating RO  2023 - 2026  490 
9.  61169  Žan Podvratnik  Energy engineering  Researcher  2025 - 2026 
10.  60591  Maj Rudolf Vahtar  Energy engineering  Researcher  2024 
11.  14342  PhD Mihael Sekavčnik  Energy engineering  Researcher  2024 - 2026  648 
12.  38156  PhD Rok Stropnik  Energy engineering  Researcher  2023 - 2025  132 
13.  57057  Emilija Todorovski  Energy engineering  Researcher  2024 - 2025  18 
14.  58661  Filip Todorovski  Energy engineering  Researcher  2024 - 2025  17 
15.  58890  Vid Zuljan  Energy engineering  Researcher  2026 
Abstract
SINGLE will enable ammonia as an energy carrier in the hydrogen value chain through demonstration of a proton ceramic electrochemical reactor (PCER) that integrates the ammonia dehydrogenation (ADH) reaction, hydrogen separation, heat management and compression in a single stage. The realization of 4 process steps in a single reactor allows the technology to achieve unprecedented energy efficiencies with a project target to demonstrate > 90% (HHV) at system level. The PCER-ADH technology enables to directly deliver purified, pressurized H2 (20 bar). SINGLE will demonstrate the technology at a 10 kg H2 /day scale that will provide a pathway for future scale-up systems ranging from small (fuelling stations) to large centralized (at harbour) deployments. A key technology component is the electrochemical cell, that will be engineered to act as a durable PGM-free ADH catalyst at 500 °C and a voltage-driven membrane separator. The achievements in SINGLE will be an important proof of technological feasibility advancing the technology from TRL3 to TRL5. To strengthen the implementation of NH3 as a H2 carrier, SINGLE will actively disseminate and communicate the results to influence stakeholders in the value chain, including standardization entities within the hydrogen sector. The consortium counts on partners from the industry, institute and academia sector with high world-wide excellence in the respective fields of catalysis, electrochemical membrane reactors, life-cycle assessment, process engineering, control systems and hydrogen fuelling stations.
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