Abstract
With the rapid consumption of fossil fuels, along with the ever-increasing environmental pollution, it is becoming a top priority to explore efficient photocatalysts for the production of renewable hydrogen and degradation of pollutants. Here, we fabricated a composite of g-C(3)N(4)/TiO(2) via an in situ growth method under the conditions of high-temperature calcination. In this method, TiO(2) nanowires with a large specific surface area could provide enough space for loading more g-C(3)N(4) nanoparticles to obtain C(3)N(4)/TiO(2) composites. Of note, the g-C(3)N(4)/TiO(2) composite could effectively photocatalyze both the degradation of several pollutants and production of hydrogen, both of which are essential for environmental governance. Combining multiple characterizations and experiments, we found that the heterojunction constructed by the TiO(2) and g-C(3)N(4) could increase the photocatalytic ability of materials by prompting the separation of photogenerated carriers. Furthermore, the photocatalytic mechanism of the g-C(3)N(4)/TiO(2) composite was also clarified in detail.