You are here : Home > Research > Bioenergies and Microalgae (EB ... > Sun2Chem

Energies | Renewable energies | Bioenergy | Biofuel | Biohydrogen | Microalgae | Photosynthesis


Collaborative projects

Sun2Chem

Published on 1 December 2014
​Design of a synthetic chloroplast for the production of fuels and chemicals in microalgae

2014-2017
ERASYNBIO1-062
Coordinator : Thomas Happe (Ruhr University, Bochum, Germany)

One of the greatest challenges of the 21st century is the sustainable supply of energy and chemicals from renewable resources. Driven by solar energy, chloroplasts function in nature as the most efficient minimal cell factories for generating chemical energy through the oxidation of water, but they are naturally tuned towards the fixation of carbon for building-up cellular components. Our long-term goal is to design a synthetic chloroplast in the “green yeast” Chlamydomonas reinhardtii that can be used as a chassis for the sustainable production of biofuels and chemicals. To achieve such an ambitious goal, we will develop various tools that will be indispensable to construct our chassis from a bottom-up approach. First, we will develop well-defined microalgal BioBricks to allow an efficient plug-in of protein and metabolic circuits in the chloroplast. Secondly, we will generate suitable Chlamydomonas strains by re-directing the
 photosynthetic electron circuits. Thirdly, we will engineer key players of the photosynthetic chain following the principles of Darwinian evolution for controlling energy delivery. State-of-the-art protein film electrochemistry of the engineered biocatalysts will guide the design processes. As a proof-of-principle, we will then use the chloroplast of optimised strains for assembling the BioBricks with the engineered photosynthetic chain players to produce bio-hydrogen and alkanes as by-products from light and water. This project is to be considered as a proof of principle and will step-up the development of novel biotechnology concepts that will establish “solar-cell chloroplast factories”. The design and construction of a chloroplast chassis following synthetic biology principles will allow the sustainable production of biofuels and valuable chemicals, paving down the grounds for carbon-neutral bio-economy that can supply our society with an increasing energy demand, while mitigating the damaging effects of climate change.

> Back to the LB3M page/ Co-funded projects​​​​​​​


Top page