Improvement of photosynthesis in changing environment: approaches, achievements and prospects

IF 1.7 4区 生物学 Q4 BIOTECHNOLOGY & APPLIED MICROBIOLOGY Plant Biotechnology Reports Pub Date : 2023-11-28 DOI:10.1007/s11816-023-00871-4
Sultan Suboktagin, Ghazal Khurshid, Misbah Bilal, Anum Zeb Abbassi, Suk-Yoon Kwon, Raza Ahmad
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Abstract

Photosynthesis is responsible for sustained plant productivity and ensures food supply. The change in global climatic patterns affects photosynthesis that subsequently reduces plant yield and poses threat to food security. Photosynthesis relies on a dual nature enzyme ribulose 1, 5 bisphosphate carboxylase oxygenase (Rubisco), which can fix CO2 as well as O2. The fixation rate of CO2 to O2 depends upon the relative concentration of CO2 inside chloroplast. Higher level of CO2 results in improved photosynthesis, however, its concentration depends upon environmental conditions. Under adverse climate conditions, the CO2 level drops down that leads to increased oxygenation which impedes the photosynthesis and reduces plant productivity. The impact is more significant and apparent specifically in C3 plants. Attempts have been made to address the loss in photosynthesis and multiple strategies have been adapted to date that focus on improvement of photosynthesis in C3 plants. In this review, we have discussed the multiple strategies being employed by different researchers to date for improvement of photosynthesis. The strategies discussed in this review include: improving the performance of Rubisco, engineering CO2-concentrating mechanism of C4 photosynthesis into C3 species, transformation of bicarbonate transporters from cyanobacteria into chloroplasts of C3 plants, and establishment of photorespiratory bypasses to catabolise toxic glycolate in shortest possible pathway.

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变化环境下光合作用的改善:途径、成就与展望
光合作用负责维持植物的生产力并确保食物供应。全球气候模式的变化影响光合作用,从而降低植物产量,并对粮食安全构成威胁。光合作用依赖于一种双重性酶——核酮糖1,5二磷酸羧化加氧酶(Rubisco),它既能固定CO2,也能固定O2。CO2对O2的固定速率取决于叶绿体内CO2的相对浓度。更高水平的二氧化碳会改善光合作用,然而,其浓度取决于环境条件。在不利的气候条件下,二氧化碳水平下降,导致氧合作用增加,从而阻碍光合作用,降低植物生产力。这种影响在C3植物中更为显著和明显。人们已经尝试解决光合作用的损失,迄今为止已经采用了多种策略,重点是改善C3植物的光合作用。在这篇综述中,我们讨论了迄今为止不同研究人员为改善光合作用所采用的多种策略。本文讨论的策略包括:提高Rubisco的性能,设计C4光合作用在C3物种中的co2浓缩机制,将蓝藻中的碳酸氢盐转运体转化为C3植物的叶绿体,以及建立光呼吸旁路,以最短的途径分解有毒的乙醇酸。
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来源期刊
Plant Biotechnology Reports
Plant Biotechnology Reports 生物-生物工程与应用微生物
CiteScore
4.10
自引率
4.20%
发文量
72
审稿时长
>12 weeks
期刊介绍: Plant Biotechnology Reports publishes original, peer-reviewed articles dealing with all aspects of fundamental and applied research in the field of plant biotechnology, which includes molecular biology, genetics, biochemistry, cell and tissue culture, production of secondary metabolites, metabolic engineering, genomics, proteomics, and metabolomics. Plant Biotechnology Reports emphasizes studies on plants indigenous to the Asia-Pacific region and studies related to commercialization of plant biotechnology. Plant Biotechnology Reports does not exclude studies on lower plants including algae and cyanobacteria if studies are carried out within the aspects described above.
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