Nanoparticles (NPs) have been widely used for immobilization of wide ranges of
enzymes. However, the stabilization of
enzymes on NPs is a major challenge, crucial for regulating enzymatic activity and their medical applications. To overcome these challenges, it is necessary to explore how
enzymes attach to nanomaterials and their properties are affected by such interactions. In this review we present an overview on the different strategies of the
enzyme immobilization into the NPs and their corresponding stability against temperature and pH. The effects of surface charge, particle size, morphology, and aggregation of NPs on the stability of
immobilized enzymes were summarized. The activity of
immobilized enzyme into the NPs was reviewed to disclose more detail regarding the interaction of biomolecules with NPs. The combination of
enzyme immobilization with
prodrugs was also reviewed as a promising approach for biomedical application of
enzyme in
cancer therapy. Finally, the current challenges and future applications of NPs in
enzyme immobilization and the utilization of
immobilized enzyme toward
prodrug activation in cytoplasm of
cancer cells were presented. In conclusion, this review may pave the way for providing a perspective on development to the industrial and clinical translation of
immobilized enzymes.