Singlet oxygen (1O2), a highly reactive oxygen species, possesses significant utility in the domains of chem. and materials science, with applications encompassing wastewater treatment, advanced battery fabrication and the degradation of organic pollutants.The generation of 1O2 is typically facilitated through specific processes such as photocatalytic reactions involving photosensitizers, electron transfer reactions, or enzymic catalysis.The production of 1O2 is challenging and its reactivity is constrained, thereby limiting its generation and applications.This study aims to surmount these limitations by investigating the exceptional capacity of a nanomorphic copper phosphate (Cu3(PO4)2) to generate 1O2 in no need of light activation.A comprehensive characterization of the micromorphol., phys., and chem. properties of Cu3(PO4)2 was conducted to analyze and evaluate its structural and intrinsic characteristics.Systematic research on the kinetic simulation properties of Cu3(PO4)2 was undertaken to acquire exptl. data pertaining to the efficiency and mechanism of the catalytic process, providing a scientific foundation for further optimizing its performance as a catalyst for 1O2 generation.This research may pave the way for the development of novel and efficient systems for the generation of effective 1O2.