二氧化碳浓度升高可提高作物的耐热能力

Ayman El Sabagh, A. Hossain, M. Islam, M. Iqbal, A. Raza, Ç. Karademi̇r, E. Karademir, A. Rehman, Atikur Rahman, Rajesh Kumar Singhal, A. Llanes, M. Raza, M. Mubeen, W. Nasim, C. Barutçular, R. Meena, H. Saneoka
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引用次数: 12

摘要

大气中二氧化碳(aCO2)浓度的上升和温度的升高是气候变化的主要原因,这对世界上的作物生产系统产生了重大影响。然而,二氧化碳(CO2)浓度的升高可以通过提高光合速率(光同化物的有效性)来改善作物的生长发育。CO2 (eCO2)和温度升高对作物生长和碳代谢的综合影响尚未得到充分认识,而eCO2和温度都引发了作物生产的显著变化。因此,为了提高作物产量,明确作物在逆境条件下对抗逆性起重要作用的生理机制和遗传性状是十分重要的。eCO2和温度胁迫对生理方面和生化特征的影响,表征了不同基因型对胁迫条件的不同反应。本文研究了在co2浓度升高和温度升高的条件下,开孔对作物生理生化及产量的调控作用。总的来说,eCO2和温度对生化成分和抗氧化剂的影响程度尚不清楚,因此需要进一步的研究来促进不受干扰的生产系统。
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Elevated CO2 Concentration Improves Heat-Tolerant Ability in Crops
The rising concentration of atmospheric carbon dioxide (aCO2) and increasing temperature are the main reasons for climate change, which are significantly affecting crop production systems in this world. However, the elevated carbon dioxide (CO2) concentration can improve the growth and development of crop plants by increasing photosynthetic rate (higher availability of photoassimilates). The combined effects of elevated CO2 (eCO2) and temperature on crop growth and carbon metabolism are not adequately recognized, while both eCO2 and temperature triggered noteworthy changes in crop production. Therefore, to increase crop yields, it is important to identify the physiological mechanisms and genetic traits of crop plants which play a vital role in stress tolerance under the prevailing conditions. The eCO2 and temperature stress effects on physiological aspects as well as biochemical profile to characterize genotypes that differ in their response to stress conditions. The aim of this review is directed the open-top cavities to regulate the properties like physiological, biochemical, and yield of crops under increasing aCO2, and temperature. Overall, the extent of the effect of eCO2 and temperature response to biochemical components and antioxidants remains unclear, and therefore further studies are required to promote an unperturbed production system.
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