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This review highlights advancements in thermophile research over the past decade, indicating significant ecological and biotechnological implications.
Thermophile research has been transformed over the past decade by advances in genome sequencing. Once centered on culture collections and physiological studies of terrestrial hot springs and deep-sea hydrothermal vents, the field now employs amplicon sequencing, shotgun metagenomics, and long-read platforms to reveal the diversity, ecology, and genomic potential of thermophiles. Metagenome-assembled genomes (MAGs), metatranscriptomes, and metaproteomes have become crucial for linking taxonomy with function, uncovering previously hidden microbial dark matter in heated ecosystems. Bioinformatics, increasingly integrated with machine learning, has expanded insights into microbial biology, biomolecules, and ecological interactions. These advances highlight the broader environmental significance of thermophiles, spanning fundamental roles in ecosystem processes to practical applications. In 2015, we published Thermophiles in the Genomic Era: Biodiversity, Science, and Application to capture early next-generation sequencing milestones. A decade later, with tremendous progress achieved, this review revisits the field by synthesizing recent advances across viruses, planktonic thermophiles, and biofilm communities, emphasizing the power of genome-resolved approaches. We also highlight overlooked areas, opportunities for ecological integration and predictive modeling, and the importance of translating discoveries into biotechnological innovation. Our aim is to provide young researchers with a roadmap of emerging questions and strategies likely to shape the next decade of thermophile research.
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Goh et al. (2026) studied this question.
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