Creation of Basic Technology for Improved Bioenergy Production through Functional Analysi and Regulation og Algae and Other Aquatic Microorganisms
Creation of Basic Technology for Improved Bioenergy Production through Functional Analysi and Regulation og Algae and Other Aquatic Microorganisms
Japanese English

Outline of each theme and scholar

CREST PhaseI

Haruyuki Atomi Team

Haruyuki Atomi
Haruyuki Atomi
Professor, Kyoto University

Enhancing and fusing archaeal metabolism: a new approach towards bioenergy production

This project focuses on the Archaea, the third domain of life distinct from the Bacteria and Eucarya. We first aim to understand and enhance the various metabolic mechanisms of the Archaea involved in bioenergy production and biomass degradation. With the aim to develop microorganisms with novel bioenergy-producing capabilities, we will further explore the possibilities of fusing these functions via genome-scale DNA recombination.

Shigeru Okada Team

Shigeru Okada
Shigeru Okada
Associate Professor, The University of Tokyo

Characterization of hydrocarbon biosynthesis and secretion mechanisms by the green microalga, Botryococcus braunii to control biofuel production

The green microalga Botryococcus braunii produces unusually large amounts of liquid hydrocarbons from carbon dioxide and photosynthesis, and secretes these hydrocarbons outside of cells. These hydrocarbons are promising as an alternative fuel source since they are chemically very similar to petroleum. The objective of this research project is to understand gwhy and howh those hydrocarbons are produced and secreted by this alga at not only the cellular but also the molecular level. The unique hydrocarbon production and secretion mechanisms in this alga will be genetically engineered using the basic information obtained through this project in order to establish more effective technology for biofuel production.

Shigeyuki Kawano Team

Shigeyuki Kawano
Shigeyuki Kawano
Professor, The University of Tokyo

Establishment of innovative technology to create new microalgal strains increasing biofuel production by polyploidization and heavy-ion beam irradiation

To make the biofuel production using microalgae practicable, it is necessary to breed their strains which can be mass-produced just like grains and horticultural crops. However, there was no conception of breeding in the microalgae so far, or their genomes have not been decoded in most of species. In the present study, the microalgae irradiated with the heavy-ion beams, which have the successful results by the selective breeding of horticultural crops, will be selected and bred based on the quantitative data concerning their forms. We aim for the establishment of the breeding scheme, which is innovative, advanced and specialized in microscopic algae, based on complete genome information.

Yoshihiro Shiraiwa Team

Yoshihiro Shiraiwa
Yoshihiro Shiraiwa
Professor, University of Tsukuba

Research on the metabolic pathway of alkenones in marine haptophyte algae and the development of new algal oil production technology

The haptophyte algae, especially coccolithophorids, are thought to had played major role for the production of petrolium and limestones in geological era. The algae still produce huge blooms and biomass by fixing carbon dioxide photosynthetically even in the present ocean. The long-chain lipids, named alkenones, produced by the algae can be one of important candidates for algal biofuel production. This research focuses on the elucidation of metabolic pathway of biosynthesis of alkenones and the development of biotechnology for the mass production of biofuels using marine haptophycean microalgae and seawater.

Koji Sode Team

Koji Sode
Koji Sode
Professor, Tokyo University of Agriculture & Technology

The Cyanofactory

Our research team is creating a novel cyanobacterial system, designated as "Cyanofactory", for the production of biofuel-related compounds. The Cyanofactory is composed of 1) a synthetic cyanobacterial host strains, 2) synthetic operons for the production of biofuel-related compounds, and 3) the employment of ion-liquids for downstream processing. The Cyanofactory realizes the sustainable production of biofuel-related compounds based on synthetic cyanobacterial processes with minimal energy and waste.