光合作用
生物
粮食安全
作物生产力
作物
生产力
农学
生物技术
农业工程
农作物产量
高能
C4光合作用
光合效率
人工光合作用
自然资源经济学
生化工程
作物产量
能源
农业
食物能量
作者
Stephen P. Long,Yu Wang,Elizabete Carmo‐Silva,Amanda P. Cavanagh,Martin C. Jonikas,Johannes Kromdijk,Benedict M. Long,Amy Marshall‐Colón,Diwakar Shukla,Robert H. Wilson,Xin-Guang Zhu,Elizabeth A. Ainsworth
出处
期刊:Cell
[Cell Press]
日期:2025-11-01
卷期号:188 (24): 6700-6719
被引量:22
标识
DOI:10.1016/j.cell.2025.10.033
摘要
There is an urgent need for increased crop productivity to reduce food insecurity and improve sustainability. Photosynthesis converts sunlight energy into carbohydrates, providing the source of nearly all of humanity's food. Photosynthesis is a key target for improvement, owing to inherent inefficiencies in the biochemical process. Over the last decade of advancements in bioengineering, strategies to increase the efficiency of photosynthesis were tested with proven enhancements to crop yields in field trials. Simple strategies like increasing the content of photosynthetic proteins have reliably increased photosynthesis and productivity in crops, as have more complex strategies such as bypassing photorespiration. While insertion of carbon-concentrating mechanisms into C 3 plants remains an engineering challenge, modeling suggests that achieving that would have the greatest gain for crop improvement. This review discusses the many successes in improving photosynthesis achieved over the past decade and quantifies the potential for future engineering targets to increase crop productivity.
科研通智能强力驱动
Strongly Powered by AbleSci AI