Artificial Intelligence in Soil Microbial Ecology and Bioremediation of Contaminated Soils

Meiad Mahdi Al-jaberi

Authors

Meiad Mahdi Al-jaberi Department of soil and water resources, College of Agriculture, University of Basrah, Iraq

Keywords:

Artificial Intelligence, soil, environmental sustainability

Abstract

Soil is the habitat for a thriving and intricate network of microorganisms, which play key roles in the cycling of nutrients, maintaining fertility, and supporting life in the environment. Over the past few decades, the issue of soil contamination as a result of human activities, industrial processes, agricultural chemicals, and improper waste disposal has developed into a major global problem. Many of the indigenous microflora in the soil are capable of degrading, transforming, or immobilizing many pollutants; therefore, microbially mediated bioremediation is environmentally sound and economically feasible. The complexity and dynamic nature of soil ecosystems contribute significantly to the difficulties in understanding and controlling microbial processes. Artificial Intelligence (AI) has come out as a panacea to the above issues since it can harness the ability to analyze huge and intricate datasets that arise from studies on soil microbes. Machine learning, data mining, and predictive modeling will assist in the identification of microbial patterns as well as forecasting pathways for degrading contaminants and optimizing bioremediation strategies. In combination with soil microbial ecology, Artificial Intelligence will lead to a better understanding of microbial interaction thus improving the decision-making process and ultimately the effectiveness of bioremediation programs. This approach is an interdisciplinary one and can be taken as a positive step toward the sustainable management and restoration of contaminated soils.

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