季节性冻融期土壤微生物的数量影响因素Meta分析

doi:10.6048/j.issn.1001-4330.2024.05.022

新疆农业科学 ›› 2024, Vol. 61 ›› Issue (5): 1236-1249.DOI: 10.6048/j.issn.1001-4330.2024.05.022

季节性冻融期土壤微生物的数量影响因素Meta分析

杨跃发¹^,²(), 王春霞¹^,²(), 梁飞³, 蓝明菊¹

1.石河子大学水利建筑工程学院,新疆石河子 832000
2.现代节水灌溉兵团重点实验室,新疆石河子 832000
3.伊犁师范大学,新疆伊宁 835012

收稿日期:2023-10-09 出版日期:2024-05-20 发布日期:2024-07-09
通信作者: 王春霞(1979-),女,山东郓城人,教授,博士,硕士生导师,研究方向为节水灌溉,(E-mail)410443356@qq.com
作者简介:杨跃发(1995-),男,山西临汾人,硕士研究生,研究方向为节水灌溉, (E-mail)1131183413@qq.com
基金资助:
南疆重点产业创新发展支撑计划项目(2021DB012);南疆重点产业创新发展支撑计划项目(2022DB020);国家自然科学基金项目(U1803244)

Meta-analysis of influencing factors on soil microbial population in seasonal freeze-thaw period

YANG Yuefa¹^,²(), WANG Chunxia¹^,²(), LIANG Fei³, LAN Mingju¹

1. College of Water Conservancy & Architectural Engineering, Shihezi University, Shihezi Xinjiang 832000, China
2. Key Laboratory of Modern Water-Saving Irrigation of XPCC, Shihezi Xinjiang 832000, China
3. ILi Normal University, Yining Xinjiang 835012, China

Received:2023-10-09 Published:2024-05-20 Online:2024-07-09
Correspondence author: WANG Chunxia(1979-), female, from Yuncheng, Shandong, professor, research direction: water-saving irrigation theory and technology,(E-mail)410443356@qq.com
Supported by:
Southern Xinjiang Key Industries Innovation Development Support Program(2021DB012);Southern Xinjiang Key Industries Innovation Development Support Program(2022DB020);The National Natural Science Foundation of China Project(U1803244)

摘要/Abstract

摘要：

【目的】研究季节性冻融期土壤细菌和真菌数量的影响因素。【方法】采集中国知网、Web of science等数据库相关土壤季节性冻融期的数据,根据排除和纳入标准,采用Newcastle-Ottawa Scale (NOS)评价标准对文献进行质量评价,将得分≥6分且高质量的文献纳入研究,运用RevMan5.4对其进行Meta分析。【结果】42篇文献符合纳入标准,其中,SCI文章7篇,CSCD文章27篇。季节性冻融期土壤含水量对土壤细菌的影响显著性最大;土壤pH值对土壤真菌的影响显著性最大,土壤有机质对土壤细菌和真菌影响显著性最小。季节性冻融期,土壤有机氮对土壤细菌影响的优势程度最大,土壤含水量对土壤真菌影响的优势程度最大。【结论】季节性冻融期土壤pH值和土壤含水量对土壤细菌和真菌起到决定性作用。

关键词: Meta分析; 土壤细菌; 土壤真菌; 季节性冻融期

Abstract:

【Objective】To investigate the factors influencing soil bacterial and fungal populations during the seasonal freeze-thaw period.【Methods】The experimental data of relevant soil seasonal freeze-thaw periods were collected through the databases of China Knowledge Network and Web of Science, and the quality of the extracted literature was evaluated according to the exclusion and inclusion criteria and using the Newcastle-Ottawa Scale (NOS) evaluation criteria, and those with scores ≥6 and high quality were included in the study, and RevMan 5.4 was used for Meta-analysis.【Results】The final 42 papers met the inclusion criteria, among which, 7 were SCI articles and 27 were CSCD articles.The analysis showed that soil water content had the most significant effect on soil bacteria during the seasonal freeze-thaw period; soil pH had the most significant effect on soil fungi, and soil organic matter had the least significant effect on soil bacteria and fungi.During the seasonal freeze-thaw period, soil organic nitrogen had the most dominant effect on soil bacteria soil water content had the most dominant effect on soil fungi.【Conclusion】Soil pH and soil water content play a decisive role in soil bacteria and fungi during the seasonal freeze-thaw period.

Key words: Meta-analysis; soil bacteria; soil fungus; seasonal freeze-thaw

中图分类号:

S188

杨跃发, 王春霞, 梁飞, 蓝明菊. 季节性冻融期土壤微生物的数量影响因素Meta分析[J]. 新疆农业科学, 2024, 61(5): 1236-1249.

YANG Yuefa, WANG Chunxia, LIANG Fei, LAN Mingju. Meta-analysis of influencing factors on soil microbial population in seasonal freeze-thaw period[J]. Xinjiang Agricultural Sciences, 2024, 61(5): 1236-1249.

图/表 14

参考文献 71

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[70]	Tripathi S, Chakraborty A, Chakrabarti K, et al. Enzyme activities and microbial biomass in coastal soils of India[J]. Soil Biology and Biochemistry, 2007, 39(11): 2840-2848.
[71]	王飞. 盐分对土壤微生物多样性及土壤有机物转化的影响[D]. 石河子: 石河子大学, 2011.
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序号 No.	文献出处 Sources of literature	发表时间 Publish time	对照类型 Control Type	影响因素 Influence factors	菌类 Mushrooms
1	马晓飞等^[15](新疆师范大学)	2015	农田土	①②③④	细菌、真菌
2	秦璐等^[16](新疆大学)	2013	农田土	①②③④⑤⑥	细菌、真菌
3	杨晓等^[17](青岛大学)	2016	农田土	①②	细菌、真菌
4	王鹭等^[18](兰州大学)	2011	高原土	①②⑥	细菌
5	伍文宪等^[19](四川省农业科学院)	2019	草地	④	细菌、真菌
6	王楠等^[20](东北林业大学)	2019	林地	②⑤	细菌、真菌
7	余炎炎等^[21](河南大学)	2020	高原土	①②③⑤⑥	细菌
8	孙弘哲等^[22](哈尔滨师范大学)	2018	林地	②⑤	细菌、真菌
9	车子涵等^[23](青海示范大学)	2020	高原	①②③⑤	细菌、真菌
10	段亚楠等^[24](山东农业大学)	2021	农田土	①⑥	细菌、真菌
11	陈末等^[25](新疆农业大学)	2020	湿地	②③⑥	细菌
12	林尤伟等^[26](东北林业大学)	2016	林地	②③⑤	细菌、真菌
13	张宝贵等^[27](中国科学院寒区旱区环境与工程研究所)	2012	高原	②③	细菌
14	李君锋等^[28](西北师范大学)	2012	草地	①③⑥	细菌
15	关键飞等^[29](牡丹江师范学院	2020	农田土	①④⑤	细菌
16	马大龙等^[30](哈尔滨师范大学)	2020	林地	①②⑥	细菌、真菌
17	陈泓硕等^[31](哈尔滨师范大学)	2020	农田土	①②④	细菌
18	李昌明等^[32](兰州大学)	2012	高原土	①②⑥	细菌
19	张宝贵等^[33](中国科学院寒区旱区环境与工程研究所)	2016	高原土	①②	细菌
20	董康等^[34](兰州交通大学)	2013	高原土	①②⑤	细菌、真菌
21	张宝贵等^[35](中国科学院寒区旱区环境与工程研究所)	2017	农田土	①②⑥	细菌
22	Dandan Song et al^[36](哈尔滨师范大学)	2022	林地	①②⑤	细菌、真菌
23	胡霞等^[37](乐山师范学院	2021	农田土	③⑤	细菌、真菌
24	孙嘉鸿等^[38](东北师范大学)	2022	农田土	①②③⑤	细菌、真菌
25	张超凡等^[39](东北师范大学)	2018	林地	③	细菌
26	薛烨飞等^[40](东北师范大学)	2021	农田土	④⑤	细菌、真菌
27	王奥等^[41](四川农业大学)	2012	林地	①③⑤	细菌、真菌
28	李淼等^[42](中国地质大学)	2011	高原土	①②⑤	细菌
29	姜霁珊等^[43](延边大学)	2019	林地	①②⑤	细菌、真菌
30	刘超等^[44](哈尔滨师范大学)	2021	林地	②③	细菌
31	王艳发等^[45](中国地质大学)	2016	高原土	①②	细菌、真菌
32	孙秦川等^[46](兰州交通大学)	2017	高原土	①②③④⑤	细菌
33	吴明辉等^[47](中国科学院西北生态环境资源研究院)	2021	高原土	①②③⑤	细菌
34	胡维刚等^[48](兰州大学)	2016	高原土	①②⑤	细菌、真菌
35	谭波等^[49](四川农业大学)	2014	林地	③	细菌、真菌
36	谭波等^[50](四川农业大学)	2013	林地	①③⑤	细菌、真菌
37	Patrick O.Sorensen et al^[51](波士顿大学)	2018	林地	①⑤	细菌、真菌
38	Grant Jensen et al^[52](滑铁卢大学)	2022	农田土	③⑤	细菌、真菌
39	Meisner Annelein et al^[53](隆德大学)	2021	农田土	①②③	细菌、真菌
40	Tsunehiro Watanabe et al^[54](北海道大学)	2019	林地	⑤⑥	细菌、真菌
41	xia Hu et al^[55](成都大学)	2017	高原土	③⑥	细菌、真菌
42	H.Wu et al^[56](卡尔斯鲁厄理工学院)	2012	高原土	②⑤⑥	细菌、真菌

序号 No.	文献出处 Sources of literature	发表时间 Publish time	对照类型 Control Type	影响因素 Influence factors	菌类 Mushrooms
1	马晓飞等^[15](新疆师范大学)	2015	农田土	①②③④	细菌、真菌
2	秦璐等^[16](新疆大学)	2013	农田土	①②③④⑤⑥	细菌、真菌
3	杨晓等^[17](青岛大学)	2016	农田土	①②	细菌、真菌
4	王鹭等^[18](兰州大学)	2011	高原土	①②⑥	细菌
5	伍文宪等^[19](四川省农业科学院)	2019	草地	④	细菌、真菌
6	王楠等^[20](东北林业大学)	2019	林地	②⑤	细菌、真菌
7	余炎炎等^[21](河南大学)	2020	高原土	①②③⑤⑥	细菌
8	孙弘哲等^[22](哈尔滨师范大学)	2018	林地	②⑤	细菌、真菌
9	车子涵等^[23](青海示范大学)	2020	高原	①②③⑤	细菌、真菌
10	段亚楠等^[24](山东农业大学)	2021	农田土	①⑥	细菌、真菌
11	陈末等^[25](新疆农业大学)	2020	湿地	②③⑥	细菌
12	林尤伟等^[26](东北林业大学)	2016	林地	②③⑤	细菌、真菌
13	张宝贵等^[27](中国科学院寒区旱区环境与工程研究所)	2012	高原	②③	细菌
14	李君锋等^[28](西北师范大学)	2012	草地	①③⑥	细菌
15	关键飞等^[29](牡丹江师范学院	2020	农田土	①④⑤	细菌
16	马大龙等^[30](哈尔滨师范大学)	2020	林地	①②⑥	细菌、真菌
17	陈泓硕等^[31](哈尔滨师范大学)	2020	农田土	①②④	细菌
18	李昌明等^[32](兰州大学)	2012	高原土	①②⑥	细菌
19	张宝贵等^[33](中国科学院寒区旱区环境与工程研究所)	2016	高原土	①②	细菌
20	董康等^[34](兰州交通大学)	2013	高原土	①②⑤	细菌、真菌
21	张宝贵等^[35](中国科学院寒区旱区环境与工程研究所)	2017	农田土	①②⑥	细菌
22	Dandan Song et al^[36](哈尔滨师范大学)	2022	林地	①②⑤	细菌、真菌
23	胡霞等^[37](乐山师范学院	2021	农田土	③⑤	细菌、真菌
24	孙嘉鸿等^[38](东北师范大学)	2022	农田土	①②③⑤	细菌、真菌
25	张超凡等^[39](东北师范大学)	2018	林地	③	细菌
26	薛烨飞等^[40](东北师范大学)	2021	农田土	④⑤	细菌、真菌
27	王奥等^[41](四川农业大学)	2012	林地	①③⑤	细菌、真菌
28	李淼等^[42](中国地质大学)	2011	高原土	①②⑤	细菌
29	姜霁珊等^[43](延边大学)	2019	林地	①②⑤	细菌、真菌
30	刘超等^[44](哈尔滨师范大学)	2021	林地	②③	细菌
31	王艳发等^[45](中国地质大学)	2016	高原土	①②	细菌、真菌
32	孙秦川等^[46](兰州交通大学)	2017	高原土	①②③④⑤	细菌
33	吴明辉等^[47](中国科学院西北生态环境资源研究院)	2021	高原土	①②③⑤	细菌
34	胡维刚等^[48](兰州大学)	2016	高原土	①②⑤	细菌、真菌
35	谭波等^[49](四川农业大学)	2014	林地	③	细菌、真菌
36	谭波等^[50](四川农业大学)	2013	林地	①③⑤	细菌、真菌
37	Patrick O.Sorensen et al^[51](波士顿大学)	2018	林地	①⑤	细菌、真菌
38	Grant Jensen et al^[52](滑铁卢大学)	2022	农田土	③⑤	细菌、真菌
39	Meisner Annelein et al^[53](隆德大学)	2021	农田土	①②③	细菌、真菌
40	Tsunehiro Watanabe et al^[54](北海道大学)	2019	林地	⑤⑥	细菌、真菌
41	xia Hu et al^[55](成都大学)	2017	高原土	③⑥	细菌、真菌
42	H.Wu et al^[56](卡尔斯鲁厄理工学院)	2012	高原土	②⑤⑥	细菌、真菌

	细菌Bacteria				真菌Fungi
	异质性 Heterogeneousness		整体效应 Overall effect		异质性 Heterogeneousness		整体效应 Overall effect
	P	I²	P	Z	P	I²	P	Z
温度 Temperature	0.94	0%	0.003	2.98	0.87	0%	0.02	2.37
pH值	0.87	0%	<0.000 01	4.59	0.69	0%	0.000 2	3.74
含水量 Water content	0.96	0%	<0.000 01	5.31	0.97	0%	0.001	3.85
有机质 Organic matter	0.86	0%	0.34	0.96	0.86	0%	0.35	0.94
有机氮 Organic N	0.94	0%	0.000 3	3.65	0.88	0%	0.05	1.95
全氮 Total N	0.91	0%	0.005	2.79	0.99	0%	0.05	1.98

	细菌Bacteria				真菌Fungi
	异质性 Heterogeneousness		整体效应 Overall effect		异质性 Heterogeneousness		整体效应 Overall effect
	P	I²	P	Z	P	I²	P	Z
温度 Temperature	0.94	0%	0.003	2.98	0.87	0%	0.02	2.37
pH值	0.87	0%	<0.000 01	4.59	0.69	0%	0.000 2	3.74
含水量 Water content	0.96	0%	<0.000 01	5.31	0.97	0%	0.001	3.85
有机质 Organic matter	0.86	0%	0.34	0.96	0.86	0%	0.35	0.94
有机氮 Organic N	0.94	0%	0.000 3	3.65	0.88	0%	0.05	1.95
全氮 Total N	0.91	0%	0.005	2.79	0.99	0%	0.05	1.98

季节性冻融期土壤微生物的数量影响因素Meta分析

Meta-analysis of influencing factors on soil microbial population in seasonal freeze-thaw period

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