▎ 摘　　要

Given the extensive surface area and unique physicochemical attributes, including high mechanical stiffness, elasticity, strength, and superior thermal and electrical conductivity, graphene and graphene-based nano -structured materials have enticed supreme researcher's interest in diverse fields, such as energy storage, catal-ysis, environmental sensing, and remediation. Substantial surface area and functionalization amenability render graphene-based nanocomposites interesting nanocarriers for immobilizing a variety of biological molecules, proteins, and enzymes. Functionalization of graphene nanoconstructs by various functional moieties (i.e., hy-droxyl, carboxylic, and epoxide groups) offer the opportunity to introduce novel properties that leads to enhanced performance of immobilized biocatalysts, such as enhanced transportation ability in living entities, protection from proteolytic action, facilitating electron transfer to the protein, and efficient integration of en-zymes in microchip bioreactors and microdevices. Herein, we present current developments in exploiting gra-phene nanomaterials for enzyme immobilization to develop robust nanobiocatalytic systems for a range of biotechnological applications. After summarizing the engineering of graphene-based nanomaterials and enzyme-nanomaterial coordination for enhanced catalytic performance, particular emphasis has been given to thor-oughly illustrating the promise of graphene and graphene-based nanoarchitectures as ideal support matrices to develop multifunctional nanobiocatalytic systems for multifaceted biotechnological applications. Possible chal-lenges and future viewpoints in this quickly evolving field are also directed.