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Catalysts for Liquid Organic Hydrogen Carriers (LOHCs): Efficient Storage and Transport for Renewable Energy

Huda S. Alghamdi, Ahsan Ali, Afnan M. Ajeebi, Abdesslem Jedidi, Mohammed A. Sanhoob, Mahbuba Aktary, A. H. Shabi, Mohammad Usman, Wasan Alghamdi, Shahad Alzahrani, Md. Abdul Aziz, M. Nasiruzzaman Shaikh

2024The Chemical Record28 citationsDOI

Abstract

Abstract Restructuring the current energy industry towards sustainability requires transitioning from carbon based to renewable energy sources, reducing CO 2 emissions. Hydrogen, is considered a significant clean energy carrier. However, it faces challenges in transportation and storage due to its high reactivity, flammability, and low density under ambient conditions. Liquid organic hydrogen carriers offer a solution for storing hydrogen because they allow for the economical and practical storage of organic compounds in regular vessels through hydrogenation and dehydrogenation. This review evaluates several hydrogen technologies aimed at addressing the challenges associated with hydrogen transportation and its economic viablity. The discussion delves into exploring the catalysts and their activity in the context of catalysts′ development. This review highlights the pivotal role of various catalyst materials in enhancing the hydrogenation and dehydrogenation activities of multiple LOHC systems, including benzene/cyclohexane, toluene/methylcyclohexane (MCH), N‐ethylcarbazole (NEC)/dodecahydro‐N‐ethylcarbazole (H12‐NEC), and dibenzyltoluene (DBT)/perhydrodibenzyltoluene (H18‐DBT). By exploring the catalytic properties of noble metals, transition metals, and multimetallic catalysts, the review provides valuable insights into their design and optimization. Also, the discussion revolved around the implementation of a hydrogen economy on a global scale, with a particular focus on the plans pertaining to Saudi Arabia and the GCC (Gulf Cooperation Council) countries. The review lays out the challenges this technology will face, including the need to increase its H 2 capacity, reduce energy consumption by providing solutions, and guarantee the thermal stability of the materials.

Topics & Concepts

Energy carrierRenewable energyCatalysisEnergy transportEnergy storageHydrogen storageChemistryHydrogenMaterials scienceEnvironmental scienceOrganic chemistryEngineering physicsEngineeringPhysicsElectrical engineeringPower (physics)ThermodynamicsHydrogen Storage and MaterialsHybrid Renewable Energy SystemsFuel Cells and Related Materials
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