## 6 Conclusions  
This review concludes by highlighting the importance and promise of solar-hydrogen storage systems in transforming the production, storage, and use of energy. It is clear from a thorough analysis of many parameters, including SOC, PSolar, PStorage, PElectrolyzer, mH2, and their interactions, that solar-hydrogen storage systems provide an adaptable and sustainable way to deal with the problems of energy storage, grid stability, and the integration of renewable energy sources. The analysis emphasizes how dynamic solar-hydrogen storage systems are, demonstrating how they may adjust to changing solar power inputs, maximize energy efficiency, and maintain grid stability. Engineers may simulate and optimize the performance of these systems by integrating MATLAB Simulink modeling, which facilitates well-informed decision-making and effective system design. Additionally, the analysis suggests that AIoT technologies may be integrated, which might improve the solar-hydrogen storage systems' intelligence, dependability, and efficiency even more. Predictive maintenance, AIoT-powered analytics, and autonomous operation capabilities can improve system resilience, optimize energy management, and speed up decision-making in real time in response to shifting energy demands and environmental circumstances. Systems that use solar-hydrogen storage have bright future potential. Smarter, more robust energy systems are made possible by integration with AIoT technology, which presents prospects for autonomous control, predictive analytics, and enhanced energy management. Additionally, the utilization of solar-hydrogen storage systems in applications like smart campuses creates new opportunities for community involvement, sustainability, and creativity. The analysis emphasizes how solar-hydrogen storage technologies have the potential to revolutionize energy generation and storage in the future. Solar-hydrogen storage systems can help create a more resilient, decentralized, and sustainable energy ecosystem by utilizing cutting-edge technologies, utilizing renewable energy sources, and encouraging interdisciplinary collaboration. This will accelerate the shift towards a more environmentally friendly and sustainable future. A number of directions can be pursued in future studies to improve knowledge and the application of solar-hydrogen storage systems. First, research into the creation of cutting-edge materials and parts for electrolyzers and hydrogen storage tanks may result in increases in efficacy, robustness, and affordability, which would hasten the adoption of hydrogen technologies. Furthermore, researching the integration of non-solar renewable energy sources, like wind and hydropower, may shed light on how to best optimize hybrid renewable energy systems for improved energy production and storage. Furthermore, investigating cutting-edge AloT-driven optimization algorithms and control methodologies designed especially for solar-hydrogen storage systems may present new avenues for enhancing system resilience, grid integration, and energy efficiency. Comprehensive techno-economic assessments and feasibility studies may also shed light on the scalability and economic viability of solar-hydrogen storage systems across a range of applications and geographical areas. In conclusion, exploring regulatory incentives, market mechanisms, and policy frameworks to facilitate the extensive implementation and acceptance of solar-hydrogen storage systems may aid in removing obstacles and hastening the shift to a sustainable energy future. In order to fully exploit the promise of solar-hydrogen storage systems in tackling the difficulties of renewable energy integration, energy storage, and climate change mitigation, these recommendations for future studies aim to develop knowledge, technology, and policy solutions. The shift to sustainable energy alternatives, which lessen dependency on fossil fuels and mitigate their environmental effects, is fueled by research on solar-hydrogen systems.