Hybrid catalysts combine the benefits of different catalytic materials, often merging organic and inorganic components to optimize catalytic performance. These systems enhance activity, selectivity, and stability by leveraging the unique properties of each material. Hybrid catalysts can be designed to address challenges in catalysis, such as improving reusability, enhancing reaction rates, or increasing selectivity for desired products. For example, metal-organic frameworks (MOFs) combined with transition metal complexes can create catalysts with high surface area and tunable porosity. In another approach, hybrid catalysts integrate nanomaterials with traditional supports, improving efficiency while reducing material costs. The combination of different components can open new reaction pathways, facilitating the transformation of challenging substrates. Hybrid catalysts also show promise in improving sustainability by reducing the need for hazardous reagents and enhancing catalyst lifetime. The ability to precisely control their composition offers exciting opportunities for the development of next-generation catalysts for efficient and sustainable industrial processes.