Technical Name |
Enhancing carbon dioxide capture and photosynthesis efficiency with advanced new-generation bioenergy technology |
Project Operator |
National Yang Ming University |
Project Host |
張傳雄 |
Summary |
Use our computer-aided whole genome analysis and design integrated system to design and assemble the gene regulation system of blue-green algae, allowing algae to release carbonic anhydrase enzyme and increase carbon dioxide adsorption, and efficiently achieve carbon reduction. Use computer-assisted analysis and design of dynamic metabolic networks that mimic the transgenic microalgae to predict the target genes that multiply the biomass and enhance the success rate of microalgae improvement. |
Scientific Breakthrough |
Use our computer-aided whole genome analysis and design integrated system to design and assemble the gene regulation system of blue-green algae, allowing algae to increase CO2 adsorption, and efficiently achieve carbon reduction. Use analysis and design of dynamic metabolic networks that mimic the transgenic microalgae to identify the target genes that multiply the biomass and enhance the microalgae improvement. |
Industrial Applicability |
Use our computer-aided whole genome analysis and design integrated system to design and assemble the gene regulation system of blue-green algae, allowing algae to increase CO2 adsorption, and efficiently achieve carbon reduction. Use analysis and design of dynamic metabolic networks that mimic the transgenic microalgae to identify the target genes that multiply the biomass and enhance the microalgae improvement. |
Keyword |
genomics synthetic biology computer-aided analysis computer-aided design microalgae carbon dioxide capture gene regulation system biological pathway photosynthesis efficiency nitrogen starvation |