Synthetic Biology Journal ›› 2022, Vol. 3 ›› Issue (5): 985-1005.DOI: 10.12211/2096-8280.2022-002
• Invited Review • Previous Articles Next Articles
Menglin SHI1,2, Lin ZHOU1,3, Qing WANG1,3, Lei ZHAO1,2,3
Received:
2022-01-12
Revised:
2022-02-17
Online:
2022-11-16
Published:
2022-10-31
Contact:
Lei ZHAO
史梦琳1,2, 周琳1,3, 王庆1,3, 赵磊1,2,3
通讯作者:
赵磊
作者简介:
基金资助:
CLC Number:
Menglin SHI, Lin ZHOU, Qing WANG, Lei ZHAO. Advances in the study on the modification of carbon dioxide metabolic pathways in plants[J]. Synthetic Biology Journal, 2022, 3(5): 985-1005.
史梦琳, 周琳, 王庆, 赵磊. 植物二氧化碳代谢途径改造研究进展[J]. 合成生物学, 2022, 3(5): 985-1005.
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URL: https://synbioj.cip.com.cn/EN/10.12211/2096-8280.2022-002
Fig. 5 Schematic diagram of potential targets for carbon metabolism modification in plants(★Photosynthesis modification; ★Photorespiration modification; ★Respiration modification) 1—Modification of natural photosynthetic elements; 2—Exogenous protein are introduced to optimize photosynthetic efficiency; 3—Rubisco optimization design to improve its carboxylation capacity; 4—Increase CO2 supply capacity; 5—Reconstruction of natural photorespiration pathway or construction of alternative pathway for new photorespiration; 6, 7—Increase photorespiration flux or reuse of metabolic intermediates; 8—Modification of respiratory pathway (AOX adjustment)
涉及部分 | 改造对象或方式 | 改造效果 |
---|---|---|
光合作用 | 光系统天线 | 降低光损耗、提高光能利用率和生物量 |
光系统对波动光的响应能力 | 有望提高光系统对波动光的响应能力,减少光抑制 | |
天然光合系统吸光范围 | 有望将植物吸光范围扩展到远红区域,进而增强光合效率 | |
CO2扩散能力 | 可改善叶片内部CO2扩散特性,是提高光合效率的有效途径;其扩散能力与温度、细胞壁厚度和组成等均相关。由于叶片CO2扩散速率测定较为困难,致该部分研究缓慢 | |
Rubisco催化特性 | Rubisco催化特性改造尚未取得实质性进展;通过筛选不同物种特异性Rubisco或将Rubisco与碳浓缩机制改造相结合,有望改善植物固碳能力 | |
Rubisco附近的CO2浓度 | 通过将CCM系统、蛋白核或将C4光合系统引入C3作物等,可增加CO2供给。但需要考虑光合过程中生化反应的变化及叶片结构的改变,C3向C4植物转化研究仍待加强 | |
光呼吸 | 天然光呼吸途径 | 改造较为复杂,需考虑较多因素;增加光呼吸通量可使植物更好地应对高光呼吸胁迫,提高生物量,但具体改造靶点和策略仍待探索 |
新型光呼吸替代途径 | 导入新型光呼吸替代途径,可将毒性副产物化为其他生物质,同时将CO2重新释放到叶绿体中,在提高CO2浓度的同时减少植物固碳损失;基于零CO2释放的新型替代通路,可避免光呼吸中的碳损失,在增加植物固碳方面有较大潜力 | |
光呼吸代谢通量模型计算 | 将计算技术与基因组工程、合成生物学技术等技术结合,进行代谢通量模型分析,可简化和评估光呼吸通路改造设计,优化实验设计 | |
呼吸作用 | 交替氧化酶AOX | 呼吸作用对植物基础代谢尤为重要,对其进行改造的操作空间较小;不同体系和生长条件下,AOX表达量变化对固碳和生长影响不同,对其进行有效改造的策略仍待探索中 |
Tab.1 Modification strategies for plant carbon sequestration and their effects
涉及部分 | 改造对象或方式 | 改造效果 |
---|---|---|
光合作用 | 光系统天线 | 降低光损耗、提高光能利用率和生物量 |
光系统对波动光的响应能力 | 有望提高光系统对波动光的响应能力,减少光抑制 | |
天然光合系统吸光范围 | 有望将植物吸光范围扩展到远红区域,进而增强光合效率 | |
CO2扩散能力 | 可改善叶片内部CO2扩散特性,是提高光合效率的有效途径;其扩散能力与温度、细胞壁厚度和组成等均相关。由于叶片CO2扩散速率测定较为困难,致该部分研究缓慢 | |
Rubisco催化特性 | Rubisco催化特性改造尚未取得实质性进展;通过筛选不同物种特异性Rubisco或将Rubisco与碳浓缩机制改造相结合,有望改善植物固碳能力 | |
Rubisco附近的CO2浓度 | 通过将CCM系统、蛋白核或将C4光合系统引入C3作物等,可增加CO2供给。但需要考虑光合过程中生化反应的变化及叶片结构的改变,C3向C4植物转化研究仍待加强 | |
光呼吸 | 天然光呼吸途径 | 改造较为复杂,需考虑较多因素;增加光呼吸通量可使植物更好地应对高光呼吸胁迫,提高生物量,但具体改造靶点和策略仍待探索 |
新型光呼吸替代途径 | 导入新型光呼吸替代途径,可将毒性副产物化为其他生物质,同时将CO2重新释放到叶绿体中,在提高CO2浓度的同时减少植物固碳损失;基于零CO2释放的新型替代通路,可避免光呼吸中的碳损失,在增加植物固碳方面有较大潜力 | |
光呼吸代谢通量模型计算 | 将计算技术与基因组工程、合成生物学技术等技术结合,进行代谢通量模型分析,可简化和评估光呼吸通路改造设计,优化实验设计 | |
呼吸作用 | 交替氧化酶AOX | 呼吸作用对植物基础代谢尤为重要,对其进行改造的操作空间较小;不同体系和生长条件下,AOX表达量变化对固碳和生长影响不同,对其进行有效改造的策略仍待探索中 |
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