Session Details
[EE]Catalysis in energy conversion and energy carriers
Thu. Aug 20, 2026 6:30 PM - 8:00 PM JST
Thu. Aug 20, 2026 9:30 AM - 11:00 AM UTC
Thu. Aug 20, 2026 9:30 AM - 11:00 AM UTC
PS6(International Confference Hall)
[EE-01]Reaction-induced Core–shell Iron Catalysts Enable Ammonia Synthesis under Mild Conditions
*Yuan Jing1, Jyuna Shimizu1, Masashi Hattori1, Satoshi Ishikawa1, Takashi Toyao2, Michikazu Hara1 (1. Institute of Science Tokyo (Japan), 2. Hokkaido University (Japan))
[EE-02] Cancel
[EE-03]Next-Generation Catalysts for Ammonia Synthesis: Mechanistic Insights and Energy Efficiency
Weronika Grzesik1, *Izabela Czekaj1,2 (1. Faculty of Chemical Engineering and Technology, Cracow University of Technology (Poland), 2. Interdisciplinary Center for Circular Economy, Cracow University of Technology (Poland))
[EE-04]Alternating Surface Coverage of Reactive Intermediates over Low-temperature NH3 Synthesis by Support Material design
*Yuma Miyazaki1, Fuminao Kishimoto1, Kazuki Shun2, Kohsuke Mori2, Kazuhiro Takanabe1 (1. The University of Tokyo (Japan), 2. The University of Osaka (Japan))
[EE-05]Validity of the Brønsted–Evans–Polanyi Relationship for Ammonia Synthesis over Mesoporous Carbon-Supported RuFe Alloy Catalysts
*Li-Yu Wang1, Shih-Yuan Chen2, Genki Horiguchi2, Takehisa Mochizuki2, Chia-Min Yang1 (1. Natl. Tsing Hua Univ. (Taiwan), 2. AIST (Japan))
[EE-06]Electrochemical System for Ammonia Synthesis from Water and Nitrogen with Ru Catalysts and Molten Hydroxide Electrolytes
*Sakura Ooyama1, Raisei Sagara1, Aika Hirata1, Jun Kubota1 (1. Fukuoka university (Japan))
[EE-07]Development of BaZrO3-xNy as a Support of Ni Catalyst for Ammonia Decomposition
*Kazuki Miyashita1, Masayoshi Miyazaki1, Hideo Hosono1, Masaaki Kitano1 (1. Institute of Science Tokyo (Japan))
[EE-08]Catalyst Design for Energy-efficient Ammonia Cracking Driven by Microwaves
*Sota Kuramoto1, Fuminao Kishimoto1, Kazuhiro Takanabe1 (1. The University of Tokyo (Japan))
[EE-09]Acceleration of Ammonia Decomposition on Co/CeO2 Catalysts by Ba Addition via Electron Transfer through CeO2
*Yuya Ashida1, Taiga Yoshiike1, Hideaki Ogino1, Isao Nakamura2, Tadahiro Fujitani2 (1. Mitsubishi Gas Chemical Company Inc. (Japan), 2. National Institute of Advanced Industrial Science and Technology (AIST) (Japan))
[EE-10]Efficient Ammonia Decomposition over Ce/NiO Single-Atom Catalysts
*Cheng Shiuan Li1, Yu-Lun Lai1, Chi-Hsuan Lin1, Zi-Lan Liu1 (1. Green Energy and Environment Research Laboratory, Industrial Technology Research Institute (Taiwan))
[EE-11]Carbon-based Metal Catalyst Precursors for Efficient Ammonia Cracking.
*EMILE DARRON MAGGOTT1, Nicola Scotti1, Filippo Bossola1, Vladimiro Dal Santo1 (1. Consiglio Nazionale delle Ricerche - SCITEC (Italy))
[EE-12]Design of Cost-effective Ru-free Perovskite Derived Catalysts with Optimized Ni Exsolution and Electronic Properties for High Performance Ammonia Decomposition
*Seungbeom Yoon1, Jae Min Park1, Do Heui Kim1 (1. Seoul National University (Korea))
[EE-13]Mechanism Elucidation of Ammonia Decomposition Reaction Assisted by an Electric Field
*Cheolung Lee1, Yasushi Sekine2, Jeong Gil Seo1 (1. Hanyang Univ. (Korea), 2. Waseda Univ. (Japan))
[EE-14]Designing Ni-Based Catalysts for Low-Temperature Ammonia Decomposition
*M.A. Shadab Siddiqui1, Fahad Alam1,3, M. Nasiruzzaman Shaikh1,2 (1. King Fahd University of Petroleum and Minerals (Saudi Arabia), 2. Interdisciplinary Research Center for Hydrogen Technologies and Carbon Management (IRC-HTCM) (Saudi Arabia), 3. Interdisciplinary Research Center for Biosystems and Machines (Saudi Arabia))
[EE-15]Membrane Reactor Assembled with Flat-Plate Hydrogen-Permeable Membrane and Ammonia Decomposition Catalyst for Producing Hydrogen from Ammonia
*Kaori Omata1, Hideo Yoshinaga2, Tomonori Nambu3 (1. University of Yamanashi (Japan), 2. TAIYO KOKO Co., Ltd. (Japan), 3. National Institute of Technology, Suzuka College (Japan))
[EE-16]AMAZE: Integrated Technologies for Green Ammonia Synthesis and Catalytic Cracking as a Zero-Carbon Hydrogen Carrier
*Filippo Buttignol1, Alberto Garbujo1, Pierdomenico Biasi1 (1. Research & Development Division, Casale SA (Switzerland))
[EE-17]Engineering Egg-Shell Ru/K/Al2O3 Pellet Catalysts for Practical Ammonia Decomposition
*Dongun Kim1, Tae Wan Kim1, Young-Woong Suh1 (1. Department of Chemical Engineering, Hanyang University (Korea))
[EE-18]Ammonia Oxidation on Perovskites for Ammonia SOFCs
*Marcin Krzysztof Makosa-Szczygiel1, Giuseppe Cicellin1, David Waller2, Magnus Rønning1, De Chen1 (1. Norwegian University of Science and Technology (Norway), 2. Yara Technology Center (Norway))
[EE-19]Ni-Containing Catalysts Based on CeO2-La2O3-Pr6O11 Solid Solutions for Dry Reforming of Methane
Olga Vodyankina1, Pavel Putanenko1, Natalia Dorofeeva1, *Leonarda Francesca Liotta2 (1. National Research Tomsk State University (Russia), 2. Institute for the Study of Nanostructured Materials (ISMN), National Research Council (CNR), Palermo, Italy (Italy))
[EE-20]Microwave-enhanced Catalytic Pyrolysis of Polypropylene Waste via Fe-based Catalysts for CO-rich Syngas generation
*Ibrahim Maamoun1,2, Rie Honda2, Shuntaro Tsubaki1,2,3, Noriyuki Igura1,2, Andrew Chapman3, Satoshi Fujii4 (1. Graduate School of Bioresource and Bioenvironmental Sciences, Kyushu University. (Japan), 2. Department of Bioscience and Biotechnology, Faculty of Agriculture, Kyushu University. (Japan), 3. International Institute for Carbon Neutral Energy Research (I²CNER), Kyushu University. (Japan), 4. Department of Information and Communication System Engineering, National Institute of Technology, Okinawa College. (Japan))
[EE-21]Novel Steam Reforming Catalyst for Biogenic Hydrogen Production: Evidence of Complete Real Tar Conversion in Updraft Gasification
*Manfred Nacken1, Nadia Cerone2, Francesco Zimbardi2, Luca Contuzzi2, Umberto Calice3, Tijana Pecirep1, Carmine Florio2, Gioseppe Zito2, Giovanni Santilli2 (1. C&CS catalysts and chemical specialties GmbH (Germany), 2. ENEA, Dipartimento Tecnologie Energetiche e Fonti Rinnovabili (Italy), 3. Università degli Studi della Basilicata (Italy))
[EE-22]Activation, Methane Cracking Ability, and Deactivation of Iron–Aluminum Composite Catalysts for Production of Turquoise Hydrogen and Fibrous Carbon: From Acquiring Mechanistic Insights to Improving Catalyst Lifetime
*Shih-Yuan Chen1 (1. National Institute of Advanced Industrial Science and Technology (AIST) (Japan))
[EE-23]Investigation of Activity, Selectivity, and Stability of Industrial Fixed-Bed Cobalt Catalysts for Fischer-Tropsch Synthesis of Synthetic Aviation Fuel
*Judith Helena Mettke1, Denzil Moodley2, Jacobus Visagie2, Marco Frank3, Erik Reichelt1 (1. Fraunhofer IKTS (Germany), 2. Sasol SA (South Africa), 3. Sasol NL (Netherlands))
[EE-24]Hydrogen Production by using Hybrid Sulfur System
*Taichi Tomizuka1, Tokuto Tatsujima1, Tetsuya Yamaki2, Shin-ichi Sawada2, Hiroshi Koshikawa2, Kimio Yoshimura2, Mikihiro Nomura1 (1. Shibaura Institute of Technology (Japan), 2. Takasaki Institute for Advanced Quantum Science (Japan))
[EE-25]CO2 direct FT Synthesis over Cobalt Catalyst Supported on Rare Earth Oxide
*Atsushi Omori1, Hayato Yoshida1, Aoha Uchida1, Kimiki Goto1, Keigo Tashiro2, Hong Ye1, Shigeo Satokawa1 (1. Seikei University (Japan), 2. Shizuoka University (Japan))
[EE-26]Novel External-Hydrogen Free CO2 Thermal Catalytic Conversion to Clean Fuels and Chemicals
*Piyasan Praserthdam1 (1. Center of Excellence on Catalysis and Catalytic Reaction Engineering (Thailand))
[EE-27]Development of Functional Materials using LiBr doped V2O5 for Coin Cell Battery Application
*Kaviyarasu Kasinathan1 (1. University of South Africa (South Africa))
[EE-28]Defective Ceria Nanorods Catalysts for Catalytic Cathode Materials in Lithium Carbon Dioxide Batteries
*Wei-Fan Kuan1, Minh-Son Hoang1, Ke-Chieh Lin1 (1. Chang Gung University (Taiwan))
[EE-29]Perovskite Catalyst for the Leaching Metals for Oxidative Dehydrogenation of Propane
*Zhao Yuan Xiao1, Andrew C. Chien1 (1. Feng Chia University (Taiwan))
[EE-30]Development of Highly Durable Catalysts with Pyridyl-Pyrazole Ligands for Formic Acid Dehydrogenation
*Haruto Kuga1, Yuichiro Himeda2, Takuji Hirose1,2, Koichi Kodama1 (1. Graduate school of science and engineering, saitama university (Japan), 2. National institute of advanced industrial science and technology (Japan))
[EE-31]Effect of Catalyst Pore Size on the Deoxygenation of Oleic Acid to Renewable Fuels over NiO/SiO2 Catalysts
*Pawnprapa Pitakjakpipop1, Praphavis Boonchuer2, Harit Pitakjakpipop3, Wipark Anutrasakda2 (1. National Energy Technology Center (ENTEC), National Science and Technology Development Agency (NSTDA) (Thailand), 2. Department of Chemistry, Faculty of Science, Chulalongkorn University (Thailand), 3. National Nanotechnology Center (NANOTEC), National Science and Technology Development Agency (NSTDA) (Thailand))
[EE-32]Influence of Sulfidation Degree on the Performance of NiMo/Al2O3 Catalyst in Waste Tire Pyrolysis oil Hydrotreatment
*Huy Xuan Le1, Tung Manh Nguyen1, Olov Öhrman2, Derek Creaser1, Louise Olsson1 (1. Chemical Engineering Division, Competence Centre for Catalysis, Chalmers University of Technology, Gothenburg 412 96, Sweden (Sweden), 2. Preem AB, Gothenburg SE-418 23, Sweden (Sweden))
[EE-33]Comparative Study on the Influence of Dewatering of Pyrolysis Oil: Properties and Hydrodeoxygenation Upgrading
*Elham Nejadmoghadam1, Olov Öhrman2, Derek Creaser1, Louise Olsson1 (1. Chalmers university of technology (Sweden), 2. Preem AB (Sweden))
[EE-34]In situ XAS for Mapping Iron Oxide Phases in Laminar Iron Dust Flames for Chemical Looping Process
*Lukas Braun1,2, Fabian Hagen3, Dimosthenis Trimis3, Dmitry Doronkin1,2, Jan-Dierk Grunwaldt1,2 (1. Karlsruhe Inst. of Technol. (KIT), Inst. of Chem. Technol. and Poly. Chem.(ITCP) (Germany), 2. Karlsruhe Inst. of Technol. (KIT), Inst. of Catal. Res. and Technol. (IKFT) (Germany), 3. Karlsruhe Inst. of Technol. (KIT), Engler-Bunte-Inst., Combustion Technol. (EBI-VBT) (Germany))
[EE-35]Nitrogen-doped Ordered Mesoporous Carbon with Improved Oxidation Stability and Catalytic Activity
*Mohamed R Berber1,2, Hiroko Yamazaki1, Makoto Uchida1, Akihiro Iiyama1, Yasuto Hoshikawa4, Toshihiro Miyao2,3 (1. Hydrogen Fuel Cell Nanomaterials Center, University of Yamanashi (Japan), 2. Zero Emission MIRAI Research Center, University of Yamanashi (Japan), 3. Clean Energy Research Center, University of Yamanashi (Japan), 4. Fuji Research Laboratory, R & D Strategy Division, Tokai Carbon Co., Ltd. (Japan))