基于Web of Science和CNKI的福寿螺研究文献计量分析

doi:10.11924/j.issn.1000-6850.casb2023-0206

摘要/Abstract

摘要：

为全面了解国内外福寿螺研究趋势及差异，基于中国知网(CNKI)和WOS数据源，利用Citespace知识图谱可视化分析软件对福寿螺研究发文量、研究团队、研究机构、研究内容、热点演化等方面进行可视化分析。结果表明：（1）国内外关于福寿螺的发文量呈现持续增长的趋势。福寿螺研究在CNKI数据库中经历了缓慢增加（1985—2005年）、快速发展（2006—2012年）、波动稳定（2013—2022年）3个阶段；在WOS数据库中，福寿螺研究开始较晚，但在2009年后发文激增，呈现波浪式增长趋势。（2）国内外文献作者及研究机构的合作网络体系基本形成，其分布特征与福寿螺原产地和入侵现状有关。国内福寿螺研究机构和团队分布主要是集中在长江中下游以南的高校和研究所，国外机构和团队分布主要集中在阿根廷、巴西、美国等国家。（3）国内外福寿螺研究的重点存在差异，国内福寿螺的研究在CNKI和WOS数据库中的内容和方向也有所不同。CNKI数据库中的研究重点关注广州管圆线虫病、福寿螺的防治方面，而WOS数据库的研究主要集中在气候变化、重金属等外界环境对福寿螺的影响方面。（4）国内福寿螺研究前沿指向入侵机制、抗性生理生化变化和遗传等方面，而国外福寿螺研究前沿指向生物多样性和系统发育上。文章指出，未来国内研究团队应加强跨区域合作，深入对福寿螺的生物特性和遗传结构研究，更好地了解其生活习性、繁殖方式和适应能力，从而制定更有效的防治策略。

关键词: 福寿螺, Citespace, 研究热点, 文献计量, 知识图谱

Abstract:

To comprehensively understand and compare the research trends in the field of Pomacea canaliculata worldwide, based on the CNKI database and Web of Science (WOS) database, Citespace knowledge graph visualization and analysis software was used to analyze various aspects of P. canaliculata research, including the volume of research publications, research teams, research institutions, research content, and hotspots evolution. The results showed that: (1) the annual quantity of domestic and overseas articles about P. canaliculata presented a continuous growth trend. It went through three phases in the CNKI database: a slow increase from 1985 to 2005, rapid development from 2006 to 2012, and a fluctuation stability phase from 2013 to 2022. In contrast, P. canaliculata research in the WOS database commenced later, but experienced a surge in the number of publications after 2009, showing a wave-like growth. (2) The cooperative network of domestic and foreign authors and research institutions had been formed, and its distributional characteristics were related to the origin and invasion status of P. canaliculata. The distribution of domestic research institutions and teams of P. canaliculata was mainly concentrated in universities and research institutes in south of the middle and lower reaches of the Yangtze River. The distribution of foreign institutions and teams was mainly concentrated in Argentina, Brazil, the United States and other countries. (3) Differences existed in P. canaliculata research emphasis at home and abroad. Additionally, the content and direction of domestic research on P. canaliculata in the CNKI and WOS databases also differed. In the CNKI database, it primarily focused on angiostrongyliasis and the prevention and management of Amazonian snail; however, P. canaliculata research in the WOS database primarily revolved around the effects of climate change, heavy metals, and other external environments. (4) Current areas of domestic research on P. canaliculata were centered on invasion mechanisms, physiological and biochemical changes related to resistance, and genetics, and foreign research primarily concentrated on biodiversity and phylogeny. It was suggested that domestic research teams should strengthen inter regional cooperation and deepen the research on the biological characteristics and genetic structure of P. canaliculata, so as to better understand their habits, reproduction modes and adaptive capacity, and thus to formulate more effective prevention and control strategies.

Key words: Pomacea canaliculata, Citespace, research hotspots, bibliometrics, knowledge map

张喆, 雷雪双, 刘志, 李兆华, 张劲. 基于Web of Science和CNKI的福寿螺研究文献计量分析[J]. 中国农学通报, 2024, 40(7): 155-164.

ZHANG Zhe, LEI Xueshuang, LIU Zhi, LI Zhaohua, ZHANG Jin. Bibliometric Analysis of Research in Pomacea canaliculata Based on Web of Science and CNKI[J]. Chinese Agricultural Science Bulletin, 2024, 40(7): 155-164.

图/表 11

参考文献 45

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数据库	聚类名称	大小	同质性	平均年份	数据库	聚类名称	大小	同质性	平均年份
CNKI	#0福寿螺	252	1	2006	WOS	#0 biological invasions	32	0.859	2014
	#1养殖	86	0.923	1996		#1 Angiostrongylus cantonensis	31	0.884	2015
	#2广州管圆线虫病	62	0.906	2010		#2 biological control	27	0.813	2016
	#3危害	57	0.962	2009		#3 high-throughput sequencing	25	0.935	2015
	#4饲料	49	0.94	1995		#4 toxicological mechanism	17	0.924	2014
	#5发生规律	43	0.91	2006		#5 eutrophic water	14	0.987	2016
	#6生活习性	37	0.955	2002		#6 invasive species	13	0.975	2012
	#7防治措施	32	0.974	2001		#7 invasive plants	10	0.91	2011
	#8纤维素酶	31	0.987	2004		#8 mitochondrial genome	10	0.91	2011
	#9密度	24	0.979	2013		#9 cytotoxicity	10	0.992	2017
	#10水稻田	21	0.98	2004		#10 physiological response	9	1	2012

数据库	聚类名称	大小	同质性	平均年份	数据库	聚类名称	大小	同质性	平均年份
CNKI	#0福寿螺	252	1	2006	WOS	#0 biological invasions	32	0.859	2014
	#1养殖	86	0.923	1996		#1 Angiostrongylus cantonensis	31	0.884	2015
	#2广州管圆线虫病	62	0.906	2010		#2 biological control	27	0.813	2016
	#3危害	57	0.962	2009		#3 high-throughput sequencing	25	0.935	2015
	#4饲料	49	0.94	1995		#4 toxicological mechanism	17	0.924	2014
	#5发生规律	43	0.91	2006		#5 eutrophic water	14	0.987	2016
	#6生活习性	37	0.955	2002		#6 invasive species	13	0.975	2012
	#7防治措施	32	0.974	2001		#7 invasive plants	10	0.91	2011
	#8纤维素酶	31	0.987	2004		#8 mitochondrial genome	10	0.91	2011
	#9密度	24	0.979	2013		#9 cytotoxicity	10	0.992	2017
	#10水稻田	21	0.98	2004		#10 physiological response	9	1	2012

聚类名称	大小	同质性	平均年份
#0 bimodal breathing	49	0.752	2017
#1 invader	46	0.721	2014
#2 Pomacea canaliculata	46	0.79	2014
#3 climate change	43	0.703	2016
#4 alarm response	37	0.797	2014
#5 invasive species	36	0.759	2015
#6 heavy metal	35	0.797	2013
#7 intermediate hosts	23	0.889	2014
#8 oxidative stress	18	0.873	2019
#9 policy	15	0.958	2014
#10 gene structure	14	0.944	2016

聚类名称	大小	同质性	平均年份
#0 bimodal breathing	49	0.752	2017
#1 invader	46	0.721	2014
#2 Pomacea canaliculata	46	0.79	2014
#3 climate change	43	0.703	2016
#4 alarm response	37	0.797	2014
#5 invasive species	36	0.759	2015
#6 heavy metal	35	0.797	2013
#7 intermediate hosts	23	0.889	2014
#8 oxidative stress	18	0.873	2019
#9 policy	15	0.958	2014
#10 gene structure	14	0.944	2016