On the use of oxygenic photosynthesis for the sustainable production of commodity chemicals
Autor: | Filipe Branco dos Santos, Que Chen, Hugo Pineda Hernández, Klaas J. Hellingwerf, Adam A. Pérez |
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Přispěvatelé: | Molecular Microbial Physiology (SILS, FNWI) |
Rok vydání: | 2018 |
Předmět: |
0106 biological sciences
0301 basic medicine Physiology Commodity chemicals chemistry.chemical_element Plant Science Photosynthesis Cyanobacteria 01 natural sciences 7. Clean energy 12. Responsible consumption 03 medical and health sciences Genetics Production (economics) Organism Special Issue: Photosynthesis business.industry Water Special Issue Article Cell Biology General Medicine Carbon Dioxide Renewable energy Oxygen 030104 developmental biology chemistry 13. Climate action Photosynthetically active radiation Biochemical engineering business Commodity (Marxism) Carbon 010606 plant biology & botany |
Zdroj: | Physiologia Plantarum Physiologia Plantarum, 166(1), 413-427. Wiley-Blackwell |
ISSN: | 1399-3054 0031-9317 |
Popis: | A sustainable society will have to largely refrain from the use of fossil carbon deposits. In such a regime, renewable electricity can be harvested as a primary source of energy. However, as for the synthesis of carbon-based materials from bulk chemicals, an alternative is required. A sustainable approach towards this is the synthesis of commodity chemicals from CO2 , water and sunlight. Multiple paths to achieve this have been designed and tested in the domains of chemistry and biology. In the latter, the use of both chemotrophic and phototrophic organisms has been advocated. 'Direct conversion' of CO2 and H2O, catalyzed by an oxyphototroph, has excellent prospects to become the most economically competitive of these transformations, because of the relative ease of scale-up of this process. Significantly, for a wide range of energy and commodity products, a proof of principle via engineering of the corresponding production organism has been provided. In the optimization of a cyanobacterial production organism, a wide range of aspects has to be addressed. Of these, here we will put our focus on: (1) optimizing the (carbon) flux to the desired product; (2) increasing the genetic stability of the producing organism, and (3) maximizing its energy conversion efficiency. Significant advances have been made on all these three aspects during the past two years and these will be discussed: (1) increasing the carbon partitioning to > 50%; (2) aligning product formation with the growth of the cells; and (3) expanding the PAR region for oxygenic photosynthesis. |
Databáze: | OpenAIRE |
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