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Integrating artificial intelligence with microbial biotechnology for sustainable environmental remediation
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This review examines how artificial intelligence is being combined with microbial biotechnology to improve the detection and breakdown of persistent environmental pollutants including microplastics. Researchers found that AI models achieve over 90 percent accuracy in classifying microplastics and have helped design enzymes that degrade PET plastic up to 46 times faster than conventional approaches. The integration of AI with biotechnology represents a significant advance in developing sustainable pollution remediation strategies.
This narrative review examines the significant advances of artificial intelligence (AI) in enhancing the identification and microbial degradation of environmentally persistent compounds, addressing major issues in pollution monitoring and management. Persistent pollutants, including microplastics, heavy metals, and synthetic pesticides, pose significant threats to environmental sustainability due to their resistance to natural degradation and their adverse effects on ecosystems and human health. Through the qualitative synthesis of over 50 recent peer-reviewed studies, this review highlights notable AI-driven developments representing substantial innovations in environmental biotechnology. Enhanced detection capabilities are demonstrated by AI models, which achieve exceptional detection accuracies exceeding 90% for microplastic classification, enabling precise ecological monitoring that was previously difficult with traditional methods. Compared with conventional methods, advanced enzyme engineering is exemplified by the AI-enabled design of engineered enzymes that increase the degradation rates of polyethylene terephthalate (PET) polymers by up to 46-fold, representing a significant increase in bioremediation technology. Innovative predictive frameworks emerge from AI integration, accelerating the design of microbial enzymes and predicting pollutant behaviors with remarkable accuracy, providing a novel framework for pollution control that is not achievable through conventional approaches. This study demonstrates substantial improvements in the accuracy and efficiency of identifying and monitoring environmental pollutants, enabling more precise assessment and proactive management strategies. The strategic integration of AI in environmental applications has accelerated microbial enzyme design, enhanced ecological risk assessments, and provided innovative solutions for addressing persistent pollution challenges. The findings of this review emphasize AI's crucial and creative role of AI in environmental biotechnology, offering valuable insights for developing sustainable remediation strategies to combat persistent pollutants and protect ecosystem health.
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Plastic pollution and its global environmental impacts: a comprehensive review of microbial biodegradation mechanisms, plastic-degrading enzymes, emerging biotechnological strategies and artificial intelligence-driven approaches for sustainable plastic waste management
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This review pulls together current research on using bacteria and enzymes to break down plastic waste instead of relying on landfills or incineration, which are costly and create their own pollution. Scientists are now pairing this "microbial recycling" with artificial intelligence to speed up the discovery of plastic-eating enzymes, though the technology still needs more real-world testing before it can be scaled up. This matters because plastic waste breaks down into micro- and nanoplastics that are turning up in our water, food and even our bodies, so finding better ways to eliminate plastic waste could reduce our long-term exposure to these particles.
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