大气CO2浓度升高对稻田CH4排放及相关微生物过程影响研究进展

doi:10.13287/j.1001-9332.202408.029

摘要/Abstract

摘要： 稻田是甲烷(CH₄)的重要排放源之一,其对全球气候变化有着重要影响。大气CO₂浓度升高(e[CO₂])对稻田生态系统碳循环具有重要作用,阐明e[CO₂]对稻田CH₄排放及相关微生物过程的影响对稻田生态系统的固碳和减排具有重要意义。本文综述了e[CO₂]对稻田CH₄排放及碳循环相关功能微生物活性、丰度、群落组成和多样性的影响,梳理了e[CO₂]背景下不同微生物过程在稻田CH₄减排中的作用及其主要环境影响因素。总体而言,不同e[CO₂]平台类型、熏蒸年限、浓度梯度以及增加方式均对稻田CH₄排放有着一定影响。e[CO₂]促进了稻田CH₄排放,但会随着CO₂熏蒸年限的增加而逐渐降低,这说明稻田CH₄排放相关微生物对e[CO₂]具有一定适应性;e[CO₂]对稻田CH₄排放的促进作用呈先减弱后增强的趋势;骤增处理可能会高估稻田CH₄排放。e[CO₂]对相关微生物过程的影响主要表现为: e[CO₂]提高了产甲烷菌、甲烷好氧氧化菌和厌氧氧化菌活性及主要功能微生物丰度;e[CO₂]使甲烷氧化菌群落组成和多样性发生显著改变,但对产甲烷菌和甲烷厌氧氧化菌群落组成和多样性影响不大。最后,本文对未来相关的研究方向进行了展望: 1) 可综合探究e[CO₂]对稻田CH₄排放及产甲烷过程、甲烷好氧和厌氧氧化过程的影响,以更好地揭示气候变化对稻田CH₄排放的机理;2) 应在长期条件下探究e[CO₂]对稻田CH₄排放及相关微生物过程的影响机制,结果将更为真实、准确;3) 需进行多尺度(时间和空间)、多要素(CO₂浓度、温度、大气氮沉降和水分管理措施)以及多方法(观测、数据与模型相结合)等综合研究,以有效降低未来气候变化情景下稻田CH₄排放及相关微生物过程对e[CO₂]响应评估的不确定性。

关键词: 气候变化, 温室气体, 产甲烷, 甲烷好氧氧化, 甲烷厌氧氧化

Abstract: Paddy fields are recognized as significant sources of methane (CH₄) emissions, playing a pivotal role in global climate change. Elevated atmospheric carbon dioxide (CO₂) concentrations (e[CO₂]) exert a profound influence on the carbon cycling of paddy fields. Understanding the effects of e[CO₂] on CH₄ emissions, as well as the underlying microbial processes, is crucial for enhancing carbon sequestration and reducing emissions in paddy fields. We reviewed the impacts of e[CO₂] on CH₄ emission in paddy fields, focusing on the activity, abundance, community structure, and diversity of carbon-cycling-related microbes. We also delineated the roles of various microbial processes in mitigating CH₄ emissions under e[CO₂], as well as the primary environmental determinants. Overall, the type of e[CO₂] experimental platforms, duration of fumigation, concentration gradients, and the methods of CO₂ enrichment all influence CH₄ emissions from paddy fields. e[CO₂] initially stimulates CH₄ emissions, which may decrease over time, indicating an adaptability of the methane-emitting microbial community to e[CO₂]. This response exhibits a trend of initial attenuation followed by an intensification of the positive effects on CH₄ emissions. Experiments with abrupt increase of CO₂ concentration might overestimate CH₄ emissions. The impact of e[CO₂] on microbial processes is predominantly characterized by enhanced activities and abundance of methanogens, aerobic and anaerobic methanotrophs. It significantly alters the community composition and diversity of methanotrophs, with minimal effects on methanogens and anaerobic methanotrophic communities. Finally, we outlined future research directions: 1) Integrated investigations into the effects of e[CO₂] on CH₄ emissions, methanogenesis, and both aerobic and anaerobic methanotrophs in paddy fields could elucidate the mechanisms underlying the impacts of climate change on CH₄ emissions; 2) Long-term studies are essential to understand the mechanisms of e[CO₂] on CH₄ emissions and associated microbial processes more accurately and realistically; 3) Multi-scale (temporal and spatial), multi-factorial (CO₂ concentration, temperature, atmospheric nitrogen deposition, and water management practices), and multi-methodological (observational, data, and model integration) research is necessary to effectively reduce the uncertainties in assessing the response of CH₄ emissions in paddy fields and related microbial processes to e[CO₂] under future climate change scenarios.

Key words: climate change, greenhouse gas, methane production, aerobic methane oxidation, anaerobic methane oxidation

田茂辉, 沈李东, 苏维词. 大气CO₂浓度升高对稻田CH₄排放及相关微生物过程影响研究进展[J]. 应用生态学报, 2024, 35(8): 2267-2281.

TIAN Maohui, SHEN Lidong, SU Weici. Research progress on the effects of elevated atmospheric CO₂ concentration on CH₄ emission and related microbial processes in paddy fields[J]. Chinese Journal of Applied Ecology, 2024, 35(8): 2267-2281.

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大气CO₂浓度升高对稻田CH₄排放及相关微生物过程影响研究进展

Research progress on the effects of elevated atmospheric CO₂ concentration on CH₄ emission and related microbial processes in paddy fields

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