INTEGRATING ENVIRONMENTAL GENOMICS AND BIOTECHNOLOGY FOR SUSTAINABLE ECOSYSTEM RESTORATION AND MANAGEMENT

Abstract

Climate change, environmental degradation and biodiversity loss demand sophisticated types of ecosystem restoration and management strategies based on data. This paper examines how environmental genomics and biotechnology can be combined in a synergistic manner to improve the restoration processes. The microbial diversity and ecosystem health were examined by using the genomic tools (metagenomics and eDNA analysis), and biotechnical interventions (bioaugmentation and phytoremediation) were implemented to provide a specific restoration to community health. A framework of conceptual integration was created and assessed by doing a comparative analysis. Findings suggest that the combined strategy has a remarkable beneficial effect on the restoration performance as microbial diversity has expanded by up to 114% (Shannon index: 2.1 to 4.5) as compared to controls. Efficiency of pollutant removal was also greatly enhanced with a 78 percent heavy metal removal and progressing to 85 percent hydrocarbon removed as opposed to 25—30 percent with the traditional methods. It also decreased the time of the ecosystem recovery by around 40 percent as well as the biodiversity has been restored more successfully (45 percent to 72 percent). These results emphasize the usefulness of integrating genomics-related knowledge and biotechnological implementation to create painstaking, successful, and sustainable restoration of the ecosystem. The article highlights the prospects of such a compounded method on a broad environmental management and a climatic adaptability scheme.