Catalysis has emerged as a key driver in the shift toward more sustainable energy practices, offering cleaner and more efficient energy solutions. Catalysis for Sustainable Energy examines how catalytic processes reduce carbon emissions, enhance renewable energy technologies, and significantly support the transition to a low-carbon economy.
Among the central roles of catalysis in sustainable energy, perhaps the most crucial is hydrogen production. Water electrolysis is used to generate hydrogen, which serves as a clean and versatile fuel for both transportation and electricity generation, with considerable potential to replace fossil fuels. Advances in water-splitting catalysts are enhancing efficiency and economic viability, paving the way for hydrogen as a viable alternative fuel in future sustainable energy systems.
Another important development in catalysis is the use of relatively inexpensive, non-precious metal catalysts as a cost-effective alternative to traditional precious metal catalysts. Catalysis also plays a critical role in CO₂ conversion, a process that turns CO₂ emissions into valuable fuels and chemicals. Through catalytic processes, captured CO₂ can be converted into synthetic fuels, providing an opportunity for closed-loop carbon neutrality. This not only reduces greenhouse gas emissions but also presents an innovative approach to renewable energy generation. Catalysts are focused on improving the conversion efficiency of CO₂ into useful products, reducing the carbon footprint across multiple sectors.
The review concludes by highlighting catalysis's impact on fuel cell technology. The process of converting hydrogen and oxygen into electricity relies on catalytic reactions, with fuel cells achieving high energy efficiency and producing only water as a byproduct. This makes fuel cells an eco-friendly alternative to conventional energy sources. Ongoing research aims to optimize catalytic materials in fuel cells to improve performance and durability, thereby enhancing their commercial viability.