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A multi-omic characterization of temperature stress in a halotolerant Scenedesmus strain for algal biotechnology

AbstractMicroalgae efficiently convert sunlight into lipids and carbohydrates, offering bio-based alternatives for energy and chemical production. Improving algal productivity and robustness against abiotic stress requires a systems level characterization enabled by functional genomics. Here, we characterize a halotolerant microalgaScenedesmussp. NREL 46B-D3 demonstrating peak growth near 25 °C that reaches 30 g/m2/day and the highest biomass accumulation capacity post cell division reported to date for a halotolerant strain. Functional genomics analysis revealed that genes involved in lipid production, ion channels and antiporters are expanded and expressed. Exposure to temperature stress shifts fatty acid metabolism and increases amino acids synthesis. Co-expression analysis shows that many fatty acid biosynthesis genes are overexpressed with specific transcription factors under cold stress. These and other genes involved in the metabolic and regulatory response to temperature stress can be further explored for strain improvement.
- Lawrence Berkeley National Laboratory United States
- National Renewable Energy Laboratory United States
- University of California, Berkeley United States
- University of Montana United States
- Joint Genome Institute United States
570, Biomedical and clinical sciences, 572, QH301-705.5, Article, Antiporters, Ion Channels, Industrial Biotechnology, Affordable and Clean Energy, Genetics, Microalgae, Metabolomics, Biomass, Biology (General), Amino Acids, Genome, Gene Expression Profiling, Lipogenesis, Fatty Acids, Temperature, Salt Tolerance, Biological Sciences, Biological sciences, Gene Expression Regulation, Metabolome, Energy Metabolism, Transcriptome, Biotechnology, Scenedesmus, Transcription Factors
570, Biomedical and clinical sciences, 572, QH301-705.5, Article, Antiporters, Ion Channels, Industrial Biotechnology, Affordable and Clean Energy, Genetics, Microalgae, Metabolomics, Biomass, Biology (General), Amino Acids, Genome, Gene Expression Profiling, Lipogenesis, Fatty Acids, Temperature, Salt Tolerance, Biological Sciences, Biological sciences, Gene Expression Regulation, Metabolome, Energy Metabolism, Transcriptome, Biotechnology, Scenedesmus, Transcription Factors
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