showing dark dot-like structures identified as CPB NCs decorating the ZIF-8 surface. The lattice spacing of CPB NCs (Figure ), measured at 0.42 nm, corresponds to the (110) planes of the orthorhombic phase of the CPB crystal structure, providing additional confirmation of the nanocomposite formation. Notably, this uniform distribution was not a straightforward technique. The primary challenge lies in the instability of CPB NCs in polar solvents, coupled with the poor dispersibility of ZIF-Achieving a uniform dispersion of CPB NCs within the ZIF-8 framework presents a significant challenge due to their strong tendency to aggregate, which can compromise structural homogeneity and alter optical properties. The prolonged stirring and slight temperature increase improved the distribution of CPB NCs over the ZIF-8 surface in several ways. First, prolonged stirring ensures better dispersion of precursors, enhancing the interaction between components like CPB NCs and ZIF-8. Additionally, thorough mixing during extended stirring forms a more stable nanocomposite. Secondly, the elevated temperature increases the kinetic energy of the NCs, causing them to move more rapidly and vigorously. The higher molecular speed results in more frequent collisions between reactant particles, enhancing the likelihood of successful interactions. Overall, prolonged stirring and a slight temperature increase synergistically promote a more uniform and stable distribution of CPB NCs over the ZIF-8 surface, enhancing the nanocomposite's quality.