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稻/单季菰轮作中残留体中的植硅体碳及其经济效益。

Phytolith-occluded carbon in residues and economic benefits under rice/single-season Zizania latifolia rotation.

机构信息

Ministry of Education Key Laboratory of Environment Remediation and Ecological Health, College of Environmental & Resource Sciences, Zhejiang University, Hangzhou 310058, China.

Institute for Multidiciplinary Research, Belgrade University, Belgrade, Serbia.

出版信息

Sci Total Environ. 2022 Aug 25;836:155504. doi: 10.1016/j.scitotenv.2022.155504. Epub 2022 Apr 28.

DOI:10.1016/j.scitotenv.2022.155504
PMID:35490808
Abstract

Zizania latifolia is a wild rice that contains phytoliths (Phyt) that have considerable potential for carbon sequestration. We hypothesized that the capacity of phytolith-occluded carbon (PhytOC) sequestration in residues might increase by 20%, and economic profit would be twice as high under a rice/single-season Z. latifolia rotation as under rice monoculture. To test this hypothesis, we collected rice and Z. latifolia plants and their corresponding soil samples from Zhejiang Province to determine the ability of both crops to fix carbon in the phytoliths. We showed that the soil concentrations of available Si, total carbon (Ctot) and total nitrogen (N) were highly positively correlated with the concentrations of phytoliths and phytolith-occluded carbon in the residues of both crops. The cold waterlogged paddy fields in China have low productivity but their environmental conditions are suitable for planting Z. latifolia. Our model scenario, built on secondary data, demonstrated that, on a national basis, if the cold waterlogged paddy fields (occupying approximately 15% of the total paddy fields) were under rice/single-season Z. latifolia rotation, the contents of phytoliths and PhytOC in rice and Z. latifolia residues would be up to 19.46 × 10 t yr and 8.82 × 10 t yr (0.32 Tg CO yr), respectively. As a result, the economic benefit would be increased by 1.12 × 10 USD per year compared to rice monoculture. Therefore, adopting rotational cropping of rice with single-season Z. latifolia will not only increase the content of PhytOC sequestration in residues and improve cold waterlogged paddy fields but also bring economic benefits to farmers.

摘要

菰是一种野生水稻,其植硅体(Phyt)具有相当大的碳封存潜力。我们假设,在水稻/单季菰轮作下,残体中植硅体固定碳(PhytOC)的封存能力可能增加 20%,经济效益是水稻单作的两倍。为了验证这一假设,我们从浙江省收集了水稻和菰植株及其相应的土壤样本,以确定这两种作物固定植硅体碳的能力。结果表明,土壤中有效硅、总碳(Ctot)和总氮(N)的浓度与两种作物残体中植硅体和植硅体固定碳的浓度高度正相关。中国的冷水淹稻田生产力低,但环境条件适宜种植菰。我们基于二次数据构建的模型方案表明,在全国范围内,如果将冷水淹稻田(约占稻田总面积的 15%)用于水稻/单季菰轮作,水稻和菰残体中的植硅体和 PhytOC 含量将高达 19.46×10 t yr 和 8.82×10 t yr(0.32Tg CO yr)。因此,与水稻单作相比,每年的经济效益将增加 1.12×10 美元。因此,采用水稻与单季菰轮作不仅可以增加残体中 PhytOC 的封存含量,改善冷水淹稻田,还可以为农民带来经济效益。

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