Material science related areas are known as key, which can deeply contribute to the technological evolution, which can control the environmental pollution from both organic and inorganic harmful products. Indeed, in order to satisfy these needs, powerfully hybrid materials with cost-effectiveness are fully desired for high-tech applications. So that, owing to this interests, numerous zeolite materials in recent years have been fully developed and characterized, and it found that they exhibit advanced features in catalysis and environmental concerns. Furthermore, its combination with transition noble and non-noble metals are also fully depicted to boost the catalytic yields of the designed materials. Here, it is shown that transition rare-earth (RE) elements might be adopted in the hybrid materials engineering for advanced technological applications. As rare earth oxides might enhance catalytic features and avoid the loss of acid sites under the fluid catalytic craking (FCC) unit operation. Moreover, It is shown that (RE) elements such as lanthanum (La 3+ ), (Ce 3+ ), (Y 3+ ), and so on might be used for materials engineering for high-tech utilizations such as in hydrogen evolution reaction (HER), methanol oxidation reaction (MOR), oxygen evolution reaction (OER), and oxygen reduction reaction (ORR), organic/inorganic pollutants removal. Other reactions can be realized over rare-earth-based catalysts with enhanced catalytic features. Hence, due to the sophisticated properties of transition rare-earth (RE) metals, more possible brilliant materials could be designed in upcoming period of time.