基于Web of Science对农业土壤N<sub>2</sub>O排放影响因素研究的文献计量分析

吴汉卿; 张宝贵; 李强; 王学霞; 曹兵; 陈立娟; 陈延华

doi:10.19336/j.cnki.trtb.2020040902

基于Web of Science对农业土壤N₂O排放影响因素研究的文献计量分析

doi: 10.19336/j.cnki.trtb.2020040902

吴汉卿^1,,
张宝贵¹,
李强¹,
王学霞^{2, 3},
曹兵^{2, 3},
陈立娟⁴,
陈延华^{2, 3, ,}

1.
中国农业大学土地科学与技术学院，北京 100193
2.
北京市农林科学院植物营养与资源研究所，北京 100097
3.
北京市缓控释肥料工程技术研究中心，北京 100097
4.
禹城市农业农村局，山东禹城 251200

基金项目: 国家重点研发计划（2017YFD0200705）、国家重点研发计划（2016YFD0800906）及北京市农林科学院青年基金（QNJJ201907）资助

详细信息

作者简介:
吴汉卿（1992−），男，安徽安庆人，博士生，主要从事土壤氮循环研究。E-mail: wuhanqing920705@163.com

通讯作者:
E-mail: yhchen55@126.com

中图分类号: S154.2
计量
- 文章访问数: 452
- HTML全文浏览量: 189
- PDF下载量: 65
- 被引次数: 0
出版历程
- 收稿日期: 2020-04-09
- 修回日期: 2020-09-30
- 刊出日期: 2021-03-05

Bibliometric Analysis for Factors of Influencing Agricultural Soil N₂O Emission Based on Web of Science

WU Han-qing^1
,,
ZHANG Bao-gui¹,
LI Qiang¹,
WANG Xue-xia^{2, 3},
CAO Bing^{2, 3},
CHEN Li-juan⁴,
CHEN Yan-hua^{2, 3
, ,}

1.
College of Land Science and Technology, China Agricultural University, Beijing 100193, China
2.
Institute of Plant Nutrition and Resources, Beijing Academy of Agricultural and Forestry Sciences, Beijing 100097, China
3.
Beijing Engineering Technology Research Center for Slow/Controlled-Release Fertilizer, Beijing 100097, China
4.
Agricultural and Rural Bureau of Yucheng, Yucheng 251200, China

摘要

摘要: 为客观全面地分析农业土壤N₂O排放影响因素领域的研究动态、热点及发展脉络，利用Web of Science数据库中1978~2018年的文献信息，结合R语言文献计量分析方法，从高被引论文、关键词及历史直接引文三个方面对农业土壤N₂O排放影响因素研究情况进行了系统的文献计量分析。结果表明：（1）农业土壤N₂O排放的影响因素主要有四大类：土壤性质包括土壤类型、质地、pH、温度、水分、容重、氧化还原电位、O₂、矿质氮（硝态氮 + 铵态氮）、有机碳、酶活性（主要是硝酸还原酶和亚硝酸还原酶等）和微生物多样性等；农艺管理措施包括施肥管理（肥料类型、施肥量、施肥时间、施肥方式、肥料形态等）、种植作物类型、播种时间、耕作制度、灌溉制度、秸秆还田、生物炭和硝化抑制剂使用、土地利用方式及变化等；气候条件（雪、霜、降水、气温和太阳有效辐射等）；地下水位和生态系统氮饱和度等。（2）该领域的研究热点在宏观层面上包括利用模型估算全球、国家、区域尺度上的N₂O排放清单，评价切实有效的农业N₂O减排措施效果；在中、微观尺度上，主要通过田间或室内培养试验用土壤理化性质及微生物指标反映、研究各影响因素变化（主要为单一因素研究）对N₂O排放的效应。（3）该领域研究经历了影响因素从土壤性质再到人为活动的过程，研究内容包括使用模型研究农业土壤N₂O排放过程、机制，估算大尺度多因素条件下的农业土壤N₂O排放清单及减排措施效果。（4）农艺管理措施包括施用硝化抑制剂、包膜肥料、生物炭和秸秆还田，这些措施均可有效地减少农业土壤N₂O排放，但每一措施的效果因具体条件而不同。（5）未来农业土壤N₂O排放研究将向整合多因素、多尺度、多层次方向发展，其重点仍为明确农业土壤N₂O排放机制、影响因素的相对重要性以及不同减排措施的效应，进而为因地制宜地制定科学有效的农业土壤N₂O减排措施提供支持。
- 土壤N₂O排放 /
- 文献计量分析 /
- 影响因素 /
- 研究热点 /
- 历史趋势 /
- 减排措施 /
- R语言
Abstract: In order to analyze the research dynamics, hotspots and trends of factors of influencing agricultural soil N₂O emissions systematically and comprehensively, R-bibliometrix tool was used to analyze the literature related to the topic from three aspects of highly cited papers, keywords and historical direct citations based on Web of Science Core Collection Database. The results showed that the factors influencing agricultural soil N₂O emissions were soil properties (soil type; texture; pH; temperature; moisture; bulk density; redox potential; oxygen; mineral nitrogen including nitrate and ammonium; organic carbon; enzymatic activities mainly including nitrate reductase and nitrite reductase, and soil microbial diversity), management practices (nutrient management including nitrogen fertilizer type; nitrogen fertilizer application rate; fertilization time and pattern; crop type; sowing time; tillage; irrigation; straw return or crop residue addition; biochar; nitrification inhibitor; land use change and so on), climatic conditions (snow; frost; precipitation; temperature; photosynthetically active radiation and so on), underground water level and ecosystem nitrogen saturation. On the macro scale, research hotspots mainly focused on the estimation of agricultural soil N₂O emissions inventory by using models from the global, national and regional scales, and the effective measures of mitigating agricultural soil N₂O emission based on the influence factors of agricultural soil N₂O emissions. On the medium and micro scales, research hotspots mainly focused on the response of agricultural soil N₂O emissions to influence factors (mainly single factor) in field or indoor experiments based on the analysis of soil physicochemical and microbial indicators. The historical trends in the research field of influence factors of agricultural soil N₂O emission were from soil properties to anthropogenic management. In this process, models were used to investigate the emission process, mechanisms and mitigation measures from the perspective of multi-factor and large-scale. Generally, nitrogen fertilizer managements including the application of nitrification inhibitors, coated fertilizers, biochar and straw were used as effective measures for mitigating agricultural soil N₂O emission according to the specific conditions. Our findings suggest that the further studies about agricultural soil N₂O emission should take multi-factors and multi-scales into account, in order to clarify the relative importance of the influencing factors and mechanisms, and should establish scientific and effective measures for mitigating agricultural soil N₂O emissions.
- Soil N₂O emission /
- Bibliometric analysis /
- Influence factor /
- Research hotspot /
- Historical trend /
- Mitigation measure /
- R language

HTML全文

图 1 1978 ~ 2018年农业土壤N₂O排放影响因素关键词共线网络图谱

Figure 1. Keywords co-occurrence network about the influence factors of agricultural soil N₂O emission from 1978 to 2018

下载: 全尺寸图片幻灯片

图 2 1978 ~ 2018年农业土壤N₂O排放影响因素关键词聚类图

Figure 2. Keyword clustering diagram about the influence factors of agricultural soil N₂O emission from 1978 to 2018

下载: 全尺寸图片幻灯片

图 3 1978 ~ 2018年农业土壤N₂O排放影响因素关键词概念结构图

Figure 3. Keywords conceptual structure map about influence factors of agricultural soil N₂O emission from 1978 to 2018

下载: 全尺寸图片幻灯片

图 4 1978 ~ 2018年农业土壤N₂O排放影响因素历史直接引文图谱

Figure 4. Historical direct citation network about influence factors of agricultural soil N₂O emission from 1978 to 2018

下载: 全尺寸图片幻灯片

表 1 1978 ~ 2018年农业土壤N₂O排放影响因素研究领域Top 10高被引论文

Table 1. Top 10 highly cited papers about the influence factors of agricultural soil N₂O emission from 1978 to 2018

排名 Rank	第一作者 First author	年份 Year	农业土壤N₂O排放影响因素 Influence factor of agricultural soil N₂O emission	本地被引频次 Local citation counts	年均被引频次 Citation counts per year
1	Bouwman A F	1996^[35]	施肥	136	5.9
2	Bouwman A F	2002^[36]	土壤质地、有机碳、排水条件、弱酸性条件（pH）；施氮量、肥料类型；作物类型	101	5.9
3	Stehfest E	2006^[37]	土壤有机碳、pH、质地；施氮量、肥料类型；作物类型	93	7.2
4	Ravishankara A R	2009^[1]	施肥、化石燃料燃烧、工业化、生物质和生物燃料燃烧	88	8.8
5	Dobbie K E	1999^[38]	土壤充水孔隙度、温度、矿质氮；施肥；降雨；作物类型	86	4.3
6	Linn D M	1984^[39]	土壤充水孔隙度、水溶性碳和硝态氮含量；免耕	86	2.5
7	Dobbie K E	2003^[40]	土壤充水孔隙度、温度和硝态氮含量	83	5.2
8	Rogers J E	1991^[34]	土壤微生物有关的环境因子如NH₄⁺、O₂等	82	2.9
9	Butterbach-Bahl K	2013^[32]	土壤水分和温度；微生物多样性；生态系统的氮饱和度	67	11.2
10	Firestone M K	1989^[33]	土壤硝态氮、有机碳、铵态氮、O₂的有效性	66	2.2

下载: 导出CSV

表 2 1978 ~ 2018年农业土壤N₂O排放影响因素研究的历史直接引文

Table 2. Historical direct citations about influence factors of agricultural soil N₂O emission from 1978 to 2018

年份 Year	第一作者 First author	农业土壤N₂O排放影响因素 Influence factor of agricultural soil N₂O emission	总被引频次 Total citation counts	年均被引频次 Citation counts per year
1997^[86]	Beauchamp E G	土壤O₂浓度、水分、矿质氮、pH、温度、碳含量、酶活性	115	5.2
1998^[87]	Flessa H	土壤类型、pH、硝态氮；施肥；地下水位、霜	115	5.5
2001^[42]	Wrage N	土壤pH、O₂浓度、碳含量	986	54.8
2002^[50]	Brown L	土壤温度、水分、碳、质地、容重、pH、氧化还原电位；气候；作物	129	7.6
2002^[88]	Skiba U	耕作方式（深耕、浅耕）、播种时间（春季和冬季）、施氮量	29	1.7
2003^[89]	de Klein C A M	土壤质地、排水能力；降雨	155	9.7
2004^[83]	Rochette P	土壤O₂浓度；肥料类型；季节（春、秋）；天气条件（温度和降雨）	82	5.5
2005^[60]	Kesik M	土壤有机碳、质地、pH、矿质氮；气温、降水、光合有效辐射；氮沉降	129	9.2
2006^[73]	Del Grosso S J	土壤含水量、温度、质地、有机质、铵态氮、硝态氮；植物、凋落物；气温、降水；土地利用	136	10.5
2007^[66]	Beheydt D	土壤质地、有机碳、容重、pH；有机无机肥施氮量；作物类型、培养时间、实验地点	84	7.0
2008^[79]	Rochette P	土壤质地；季节（有无雪、解冻）；耕作（免耕与传统耕作）	166	15.1
2008^[80]	Rochette P	化肥施用、作物残茬、放牧动物、施用有机肥	137	12.5
2008^[81]	Rochette P	测定N₂O排放通量的密闭静态箱标准方法	72	6.5
2008^[82]	Rochette P	土壤质地、矿质氮、充水孔隙度；肥料形态（固态和液态）	29	2.6
2011^[52]	Lesschen J P	氮投入类型、土壤类型、土地利用方式和年降水量	85	10.6
2012^[84]	Pelster D E	土壤质地、碳含量；肥料类型（无机肥与有机肥）	61	8.7
2013^[85]	Rees R M	实验地点；施氮量及肥料类型、耕作、农业系统管理、排水；土地利用	63	10.5

下载: 导出CSV

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