Coordinated regulation of photosynthesis in rice increases yield and tolerance to environmental stress

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作者
Madana M. R. Ambavaram
Supratim Basu
Arjun Krishnan
Venkategowda Ramegowda
Utlwang Batlang
Lutfor Rahman
Niranjan Baisakh
Andy Pereira
机构
[1] Virginia Bioinformatics Institute,Department of Crop
[2] Virginia Tech,undefined
[3] Soil,undefined
[4] and Environmental Sciences,undefined
[5] University of Arkansas,undefined
[6] School of Plant,undefined
[7] Environmental,undefined
[8] and Soil Sciences,undefined
[9] Louisiana State University Agricultural Center,undefined
[10] Present Address: Metabolix Inc.,undefined
[11] 21 Erie Street,undefined
[12] Cambridge,undefined
[13] Massachusetts 02139,undefined
[14] USA,undefined
[15] Present Address: Lewis-Sigler Institute for Integrative Genomics,undefined
[16] Princeton University,undefined
[17] Princeton,undefined
[18] New Jersey 08544,undefined
[19] USA,undefined
[20] Present Address: Department of Crop Science,undefined
[21] Botswana College of Agriculture,undefined
[22] Gaborone,undefined
[23] Botswana,undefined
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摘要
Plants capture solar energy and atmospheric carbon dioxide (CO2) through photosynthesis, which is the primary component of crop yield, and needs to be increased considerably to meet the growing global demand for food. Environmental stresses, which are increasing with climate change, adversely affect photosynthetic carbon metabolism (PCM) and limit yield of cereals such as rice (Oryza sativa) that feeds half the world. To study the regulation of photosynthesis, we developed a rice gene regulatory network and identified a transcription factor HYR (HIGHER YIELD RICE) associated with PCM, which on expression in rice enhances photosynthesis under multiple environmental conditions, determining a morpho-physiological programme leading to higher grain yield under normal, drought and high-temperature stress conditions. We show HYR is a master regulator, directly activating photosynthesis genes, cascades of transcription factors and other downstream genes involved in PCM and yield stability under drought and high-temperature environmental stress conditions.
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