Photocatalytic organic synthesis as a green pathway has become a promising extended branch of organic chemistry and received significant attention owing to its mild operational conditions and eco-friendly features. [1] Imine and its derivatives are vital intermediates to construct N-containing heterocyclic compounds for the fine chemical industry and pharmaceutical industry. Currently, it is an energy-consuming and environmentally harmful process in the industrial production of imines, where the condensation of amines with aldehydes to form imines are usually required organic solvents and elevated temperatures, which greatly limits their large-scale applications. [2] Alternatively, the efficient photocatalysis oxidation of amine to imine is a sustainable approach. However, the photocatalytic efficiency and synthesis yield related to the band structures of semiconductor materials are not satisfied the high requirements of potential industrialization. Thence, it is urgent to develop a more suitable semiconductor structure to enhance the utilization efficiency of photoinduced charge carriers and thus the photocatalytic oxidation performance of amine to imine.Recently, substantial efforts have been devoted to improving photocatalytic oxidation efficiency. A series of semiconductor materials have been widely developed in the photoinduced organic transformation of amine to imine, including bismuth oxyhalides, [3] bismuth molybdate, [4] tungsten sulfide, [5] graphitic carbon nitride, [6] TiO 2 , [7] metal-organic frameworks [8] and ZnIn 2 S 4 . [9] However, one of the challenges faced by photocatalytic imine synthesis is how to improve the imine yield and transformation rate. Constructing heterojunction semiconductor structure are deemed as one of the most effective strategies to boost the visible light absorption ability, photogenerated electron-hole pairs separation rate, and redox ability. For instance, Zhang and colleagues demonstrated that the photocatalytic coupling of amines and alcohols under visible light conditions was improved by employing the CdS quantum dots (QDs) decorated MIL-101 photocatalyst. The optimized CdS@MIL-101 exhibited 57% conversion of benzylamine with more than 99% selectivity of imine within 1 h. As proposed by Li et al., an all-solid-state Z-scheme photocatalyst of WO 3 •H 2 O/Pd/CdS ternary heterostructures was designed to extend light harvesting region, faster spatial separation of electron and holes, and elevate redox power. [10] As results, the WO 3 •H 2 O/Pd/CdS ternary heterostructures showed 7.3-fold and 1.7-fold increase in the percent conversion of the oxidative coupling of benzylamines to imines as compared to pristine WO 3 •H 2 O nanosheets and bare CdS nanoparticles, respectively. However, we notice that these two heterogeneous semiconductors face a strong coulomb electrostatic repulsive force at their interface. The photogenerated electrons and holes pass the interface between these heteroid semiconductor would suffer a high carrier transport activation energy and prevent the...