A groundbreaking development in the field of hydrogen storage, a robust organic crystal named RP-H101, has been created by a research team led by J. Fraser Stoddart at the University of Hong Kong. This hydrogen-bonded organic framework (HOF) has shown exceptional promise in efficiently storing hydrogen, a crucial step towards utilizing hydrogen as a clean energy source to combat climate change. The material outperforms existing hydrogen storage targets set by the Department of Energy (DoE) but requires very low temperatures to achieve optimal storage capacity. RP-H101, constructed from unique Y-shaped triptycene molecules, forms a structure that can pack in copious amounts of hydrogen within its porous framework. The crystal's catenated structure, where multiple 3D networks interlock, provides robustness and a high storage capacity for hydrogen molecules. Despite its current limitation of requiring cryogenic temperatures for optimal performance, researchers are optimistic about its potential applications in hydrogen-powered vehicles and other areas. Although the material has received praise for its exceptional hydrogen storage capacity, experts like Hiroyasu Furukawa from the University of California, Berkeley, highlight the need for further research to improve its performance at more feasible temperatures for practical use. The research team acknowledges the current limitations and envisions the material being suitable for applications where cryogenic cooling systems can be implemented. The development of RP-H101 opens up new possibilities for the advancement of hydrogen storage technologies, with ongoing efforts to enhance its viability for broader applications in the future.