The shape, state of agglomeration, solubility, porosity, and other characteristics are of great interest for designing desirable advanced materials . shows the different dimensions of the materials obtained from the application of this strategy. In general, it is well known that the zero-dimensional (0D) materials have a large surface area and hence provide high reaction rates . One-dimensional (1D) materials, such as nanotubes, nanowires, and nanobands exhibit a reduction in the electron-hole recombination rate and a high transfer rate of the interfacial charge carrier . These characteristic features make such nanomaterials useful for many photocatalytic reactions . Additionally, two-dimensional (2D) materials allow the manufacture of flat surfaces, which results in excellent adhesion to substrates and high smoothness . In contrast, the main characteristic of three-dimensional (3D) materials are interconnections, facilitating carge mobility . By changing parameters such as chemical factors (solvent, pH, reagents, and limiting agents), thermodynamic factors (temperature and pressure), and associated technologies, the synthesis of advanced materials can be controlled .