Abstract: The present invention relates to recombinant microalgal cells and their use in heterologous protein production, methods of production of heterologous polypeptides in microalgal extracellular bodies, microalgal extracellular bodies comprising heterologous polypeptides, and compositions comprising the same.

Abstract: The present invention relates to recombinant microalgal cells and their use in heterologous protein production, methods of production of heterologous polypeptides in microalgal extracellular bodies, microalgal extracellular bodies comprising heterologous polypeptides, and compositions comprising the same.

Abstract: The present invention is directed to recombinant microalgal cells and their use in production of heterologous hemagglutinin-neuraminidase (HN) polypeptides, as well as compositions and uses thereof.

Abstract: Most microalgae are obligate photoautotrophs and their growth is strictly dependent on the generation of photosynthetically-derived energy. In this study it is shown that the microalga Phaeodaclylurn tricornutum can be engineered to import glucose and grow in the dark through the introduction of genes encoding glucose transporters. Both the human and Chlorella kessleri glucose transporters facilitated the uptake of glucose by P. tricornutum, allowing the cells to metabolize exogenous organic carbon and thrive, independent of light. This is the first successful trophic conversion of an obligate photoautotroph through metabolic engineering, and it demonstrates that methods of cell nourishment can be fundamentally altered with the introduction of a single gene. Since strains transformed with the glucose transport genes are able to grow non-photosynthetically, they can be exploited for the analysis of photosynthetic processes through mutant generation and characterization.

Abstract: Most microalgae are obligate photoautotrophs and their growth is strictly dependent on the generation of photosynthetically-derived energy. In this study it is shown that the microalga Phaeodaclylurn tricornutum can be engineered to import glucose and grow in the dark through the introduction of genes encoding glucose transporters. Both the human and Chlorella kessleri glucose transporters facilitated the uptake of glucose by P. tricornutum, allowing the cells to metabolize exogenous organic carbon and thrive, independent of light. This is the first successful trophic conversion of an obligate photoautotroph through metabolic engineering, and it demonstrates that methods of cell nourishment can be fundamentally altered with the introduction of a single gene. Since strains transformed with the glucose transport genes are able to grow non-photosynthetically, they can be exploited for the analysis of photosynthetic processes through mutant generation and characterization.

Abstract: The present invention is directed to recombinant microalgal cells and their use in production of heterologous hemagglutinin-neuraminidase (HN) polypeptides, as well as compositions and uses thereof.

Abstract: The present invention is directed to recombinant thraustochytrids that grow on xylose and cell cultures comprising the recombinant thraustochytrids as well as methods of producing cell cultures, biomasses, microbial oils, compositions, and biofuels using the recombinant thraustochytrids.

Abstract: The present invention is directed to recombinant thraustochytrids that grow on sucrose and cell cultures comprising the recombinant thraustochytrids as well as methods of producing cell cultures, biomasses, microbial oils, compositions, and biofuels using the recombinant thraustochytrids.

Abstract: The present invention relates to recombinant microalgal cells and their use in heterologous protein production, methods of production of heterologous polypeptides in microalgal extracellular bodies, microalgal extracellular bodies comprising heterologous polypeptides, and compositions comprising the same.

Abstract: Most microalgae are obligate photoautotrophs and their growth is strictly dependent on the generation of photosynthetically-derived energy. In this study it is shown that the microalga Phaeodaclylurn tricornutum can be engineered to import glucose and grow in the dark through the introduction of genes encoding glucose transporters. Both the human and Chlorella kessleri glucose transporters facilitated the uptake of glucose by P. tricornutum, allowing the cells to metabolize exogenous organic carbon and thrive, independent of light. This is the first successful trophic conversion of an obligate photoautotroph through metabolic engineering, and it demonstrates that methods of cell nourishment can be fundamentally altered with the introduction of a single gene. Since strains transformed with the glucose transport genes are able to grow non-photosynthetically, they can be exploited for the analysis of photosynthetic processes through mutant generation and characterization.

Abstract: Most microalgae are obligate photoautotrophs and their growth is strictly dependent on the generation of photosynthetically-derived energy. In this study it is shown that the microalga Phaeodaclylurn tricornutum can be engineered to import glucose and grow in the dark through the introduction of genes encoding glucose transporters. Both the human and Chlorella kessleri glucose transporters facilitated the uptake of glucose by P. tricornutum, allowing the cells to metabolize exogenous organic carbon and thrive, independent of light. This is the first successful trophic conversion of an obligate photoautotroph through metabolic engineering, and it demonstrates that methods of cell nourishment can be fundamentally altered with the introduction of a single gene. Since strains transformed with the glucose transport genes are able to grow non-photosynthetically, they can be exploited for the analysis of photosynthetic processes through mutant generation and characterization.