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Reveals novel extremophiles and extremozymes using machine learning, implying advancements in biotechnology.
The exploration of extremophiles─microorganisms that thrive in extreme environments─is crucial for advancing biotechnological applications and understanding the limits of life. However, traditional methods for identifying extremophiles are labor-intensive and low-efficiency. Here we introduce iExtreme, a machine learning model that accurately predicts extremophile characteristics employing a sophisticated Support Vector Machine (SVM) framework based on k-mer features of nucleotides and codon combinations extracted from genome sequences. Our model, trained on a curated data set of 1030 extremophilic genomes, achieves accuracies of 0.988, 0.939, and 0.938 in identifying halophiles, thermophiles, and pH-philes, respectively. Utilizing iExtreme, we discovered 520 novel extremophilic species and 5255 genomes from various databases, and a significant number of novel extremozymes via structure-based protein clustering, including d-psicose 3-epimerases (DPEase) and α-amylases. These results demonstrate the usefulness of iExtreme.
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Liu et al. (2026) studied this question.
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