
Green hydrogen has great potential for zero-carbon energy storage in applications like power grid balancing. This article discusses the technologies involved and the barriers to overcome for ensuring full commercial success.. Green hydrogen has great potential for zero-carbon energy storage in applications like power grid balancing. This article discusses the technologies involved and the barriers to overcome for ensuring full commercial success.. Green hydrogen has great potential for zero-carbon energy storage in applications like power grid balancing. This article discusses the technologies involved and the barriers to overcome for ensuring full commercial success. Green hydrogen offers a promising path to balance renewable energy grids. . The global transition to sustainable energy systems is accelerating, driven by the urgent need to mitigate climate change and achieve long-term energy security. Central to this effort is the development of green materials and technologies that enable clean, efficient hydrogen production and. [pdf]

This review explores the advancements in solar technologies, encompassing production methods, storage systems, and their integration with renewable energy solutions. It examines the primary hydrogen production approaches, including thermochemical, photochemical, and. . This review explores the advancements in solar technologies, encompassing production methods, storage systems, and their integration with renewable energy solutions. It examines the primary hydrogen production approaches, including thermochemical, photochemical, and. . This review explores the advancements in solar technologies, encompassing production methods, storage systems, and their integration with renewable energy solutions. It examines the primary hydrogen production approaches, including thermochemical, photochemical, and biological methods.. Abstract: Green hydrogen, produced by the electrolysis of water using renewable energy sources, offers a clean and sustainable solution to reduce global dependence on fossil fuels. This research explores the design, implementation, and performance analysis of a solar-powered HHO (hydrogen and. [pdf]

This study presents benzyltoluene/perhydro benzyltoluene (H0-BT/H12-BT) as favourable liquid organic hydrogen carrier (LOHC) system for potential technical applications. LOHCs can enable safe and efficient hydrogen logistics using the existent fuel infrastructure.. This study presents benzyltoluene/perhydro benzyltoluene (H0-BT/H12-BT) as favourable liquid organic hydrogen carrier (LOHC) system for potential technical applications. LOHCs can enable safe and efficient hydrogen logistics using the existent fuel infrastructure.. LOHC technologies enable safe and efficient hydrogen logistics using the existent fuel infrastructure. This study presents benzyltoluene (H0-BT)/perhydro benzyltoluene (H12-BT) as a highly attractive technical LOHC system. Compared with the well-established LOHC systems toluene/methylcyclohexane. . This study presents benzyltoluene/perhydro benzyltoluene (H0-BT/H12-BT) as favourable liquid organic hydrogen carrier (LOHC) system for potential technical applications. LOHCs can enable safe and efficient hydrogen logistics using the existent fuel infrastructure. Compared with the well-established. [pdf]
In this contribution we propose mixtures of the two LOHC systems benzyltoluene (H0-BT)/perhydro benzyltoluene (H12-BT) and dibenzyltoluene (H0-DBT)/perhydro dibenzyltoluene (H18-DBT) as promising hydrogen storage media for technical applications at temperatures below ambient.
The benzyltoluene-based liquid organic hydrogen carrier (LOHC) system enables the safe transport and loss-free storage of hydrogen. At least 26% of the lower heating value of the released hydrogen, however, has to be invested in form of heat to release the stored hydrogen.
LOHC technologies enable safe and efficient hydrogen logistics using the existent fuel infrastructure. This study presents benzyltoluene (H0-BT)/perhydro benzyltoluene (H12-BT) as a highly attractive technical LOHC system. Compared with the well-established LOHC systems toluene/methylcyclohexane and dibenzyl
Benzyltoluene (H0-BT) is an attractive LOHC that can take up 12 H per carrier molecule. The chemical equilibrium favors hydrogenation at lower temperatures and higher pressures. In this work, we study hydrogenation kinetics at 125–200 °C and 0.3–30 bar H 2.
Main reaction steps of the hydrogenation of benzyltoluene (H0-BT) to perhydro benzyltoluene (H12-BT) via preferred hydrogenation of the main ring (MR) or the side ring (SR) as reported in the literature [16, 26]. The main intermediate during the hydrogenation of H0-BT is H6-BT, where only one of the two aromatic rings has been hydrogenated.
High viscosity of perhydro dibenzyltoluene is a challenge for winter applications. Mixtures of benzyltoluene and dibenzyltoluene are suitable hydrogen storage media. Addition of 20 wt% H12-BT to H18-DBT reduces viscosity at 10 °C by 80%. H 2 -release productivity of this mixture is enhanced by 12–16% vs. H18-DBT.
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