Adaptive water governance plays an increasingly important role in sustainable urban development and water governance response to global climate change. To comprehensively understand the research situation and development trend of adaptive water management, this study conducts a systematic literature review of articles published in International Social Sciences Citation Index (SSCI) journals based on bibliometric analysis. The results show that adaptive water governance as an emerging topic of water governance has an overall growth trend in published articles. The articles on adaptive water governance mainly concentrated on the disciplines of environmental science and environmental studies. Developed countries are a hub for water governance research, and China has the sixth largest number of articles from around the world. The adaptive water governance research has formed a preliminary global collaborative network, but the authors' collaboration needs to be strengthened. The most popular topics of adaptive water governance include South Africa, adaptive management, groundwater, principal component analysis, scenario planning, the analytic hierarchy process, resources, basins, computer experiments, and technology development. This finding suggests that adaptive water governance is a critical driver for sustainable urban development and represents a critical direction in the future research of water governance.

  • Adaptive water governance research in social sciences journals has been quantitatively analyzed.

  • The bibliometric method with CiteSpace software has been applied.

  • Adaptive water governance is a critical and emerging topic in the water governance response to global climate change.

Graphical Abstract

Graphical Abstract
Graphical Abstract

Extreme weather events caused by climate change have frequently been occurring and have a great impact on residents’ lives and economic development around the world. For example, in 2021, floods in Seblitz, Germany killed 180 people, and heavy rain in Zhengzhou caused 380 deaths and an economic loss of 40.9 billion yuan. The prevention and response to frequent water disasters have become a common challenge for governments all over the world. Engineering and technology make up just one aspect of the prevention of water disasters; more important is the lack of governance capacity and mechanisms (Bakker & Morinville, 2013; Zurita et al., 2018). Therefore, adaptive water governance is a key issue of sustainable development and urban development in the contemporary world.

Adaptive water governance is the outcome of the development of water governance as well as the combination of adaptive management and water research (Huitema et al., 2009). People have long been trying to explore a successful/good water governance model. Early water governance focused on engineering and technology (Ingold et al., 2016). In general, technocrats depoliticized the management and engineering process, which is commonly referred to as supply management (Pahl-Wostl, 2017). Water governance decision-making methods during this period were top-down and did not adequately reflect changes in water demand. With the aggravation of the contradiction between the supply and demand of water resources, the ability to solve water shortages by increasing water conservancy projects has been increasingly limited (Woodhouse & Muller, 2017; Li et al., 2020; Wang & Dai, 2021). To address this challenge, integrated water resource management (IWRM) has emerged as a new water resource governance model (Berger et al., 2020). IWRM is rooted in the concept of good governance and calls for the integrated, economically, socially, and environmentally sustainable use of water resources (Smith & Clausen, 2015).

However, despite the widespread global adoption of IWRM, this water governance model remains controversial. For example, Varady et al. (2016) argue that the IWRM is not sufficiently comprehensive as the term only involves the water resource sector while ignoring energy and food, which cannot be separated from water resources. Herrfahrdt-Pähle (2013) questions whether the ‘management’ of IWRM is ‘adaptive’. Due to the frequent occurrence of extreme and sudden floods caused by climate change, the focus of water governance has gradually shifted to adaptive water governance (Godden et al., 2011). The multidimensional and dynamic aspects of adaptive water governance are well suited to managing water problems (Akamani, 2016). Adaptive water governance enables timely action in the face of complex and variable amounts of scientific information and knowledge about large ecosystems and the generation and sustainability of an ideal approach to social development in the face of increased frequency of sudden extreme weather events (Cosens & Williams, 2009). Therefore, adaptive water governance is regarded as the most promising approach to water governance.

Science Citation Index (SCI) journals focus on engineering and technology research, while Social Sciences Citation Index (SSCI) journals focus on humanities and social sciences including management, law, economics, sociology, and information science. Adaptive water governance is more of a social science research area owing to the emphasis on management and institutions. However, current research on adaptive water governance is fragmented and does not conduct a systematic review of the literature, let alone one that incorporates contemporary bibliometric approaches. Through a visualization, modularization, and quantification method, bibliometric analysis can help us systematically comprehend the evolution and hotspots of scholarly studies on specific subjects. CiteSpace, VOSviewer, and HistCite are the common software of bibliometric analysis. To examine the development and trend of adaptive water governance research through bibliometrics, we used SSCI journals as the source. This study aims to understand how scholars from the social science perspective look at adaptive water governance as well as what the popular topics and trends are in the research on adaptive water governance.

Based on the articles on adaptive water governance published in SSCI journals, this study adopts CiteSpace software and the bibliometrics method to analyze the popular topics, networks, and trends of global adaptive water governance research. The contributions of this study are as follows. First, it systematically reviews the progress of adaptive water governance from the perspective of social science; second, the popular topics and trends identified in this study are helpful for scholars who will conduct further research on adaptive water governance.

The rest of the article is organized as follows. The next section illustrates the research method and data. The third, fourth, and fifth sections provide descriptive analyses of results including publications, cooperation networks, popular topics, and trends. The last section concludes the article.

To identify the characteristics and trends of adaptive water governance research systematically and comprehensively in the social sciences, this study adopts the bibliometrics method based on CiteSpace software. The bibliometrics method is used to quantitatively analyze and visualize a specific piece of knowledge and has been widely applied in academic research (Wang et al., 2018; Song et al., 2019; Hu et al., 2021).

The data of this study came from the Web of Science (WoS). WoS is a large comprehensive multi-disciplinary database of journal citations index developed by Thomson Scientific. Based on the powerful information analysis and citation report functions of WoS and the CiteSpace software, this study statistically analyzes adaptive water governance research on the number of articles published in different years and the competitiveness of major countries and institutions and visually presents keyword co-occurrence relationships as well as cooperation between institutions and countries. Finally, this study interprets the research progress of adaptive water governance and analyzes future research trends and potential directions.

The detailed research processes of this study are as follows (Figure 1). The first step was to collect data from the WoS core collection. We selected the SSCI, and adaptive water governance was used as the keyword for full field retrieval including title, abstract, author, keywords, and keywords plus. The time span was from 1998-01-01 to 2021-12-01. Altogether, 495 records were extracted through topic-specific retrieval. We then excluded review papers, conference minutes, and editing materials, resulting in 454 final qualified articles. It is important to note that, although WoS data can be used without a format conversion, it includes some duplicate content and such duplicates need to be removed. The next step is a general description of articles published on adaptive water governance. We conducted a basic statistical analysis including the number, countries, journals, and disciplines of articles published on adaptive water governance. In step 3, we ran data analysis and interpretation of the cooperation network including author, institution, and nation. Step 4 analyzed the popular topics and proposed the trends of adaptive water governance research. Finally, we conclude with the results and address future research directions.
Fig. 1

Research process.

Number of articles published annually

The annual distribution change of publication amount is a direct reflection of, a map of the total amount in the time dimension, and a crucial indicator to measure growth characteristics (Moed, 2002). The first article on adaptive water governance retrieved from the WoS database was published in 1998 (Figure 2). It mainly describes how rapid assessments of household needs can improve water services, which can be used to determine the appropriate level of water services. Figure 2 shows the trend of the annual publication since the 1990s; the amount was steady, even scarce, before 2008, and no related articles were published from 2000 to 2007. This is because ‘sustainability’ and ‘integrated water resources management’ were the main topics of water governance at that time (Biswas & Tortajada, 2010). These gradually shifted to adaptive water governance. Before 2008, few articles were published on adaptive water governance. After 2008, this topic showed a slow growth trend, and the number of published articles decreased slightly in 2014, then recovered from the slow growth trend. In 2018, the number of articles grew rapidly, reaching a peak. However, this number gradually decreased until 2021. Overall, the total number of articles on adaptive water governance remains low.
Fig. 2

Number of articles on adaptive water governance from 1998 to 2021.

Fig. 2

Number of articles on adaptive water governance from 1998 to 2021.

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The number of cited papers is an additional vital indicator to reflect the level of attention of a field. It can be seen from Figure 3 that the number of citations on adaptive water governance did not change much and was relatively scarce before 2009. This number has grown rapidly since then until 2017 when there was another phase of rapid growth and change. This shows that international attention to adaptive water governance is increasing.
Fig. 3

Citation frequency of adaptive water governance articles.

Fig. 3

Citation frequency of adaptive water governance articles.

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Articles published by countries

The number of articles published by a country can reflect the country's research strength, which is a crucial dimension for analyzing the country's scientific research strength (Tamala et al., 2022). Figure 4 shows the top 10 nations with publications; these can be divided into three classes according to the change in the total amount. First, Australia and the USA have the most publications. The second group comprises Britain, Canada, and the Netherlands, and the third group includes China, South Africa, Spain, India, and Scotland. China ranks sixth, meaning that research on adaptive water governance still needs to be strengthened.
Fig. 4

Top 10 countries with related articles.

Fig. 4

Top 10 countries with related articles.

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Articles published by journals

Journal Citation Report (JCR) is a scientific tool for evaluating the influence of articles, encouraging scholars to contribute to high-level journals from various disciplines, and promoting the international influence of a certain discipline (Wang et al., 2010). There is a linear relationship between the quality of the article and the journal. Figure 5 shows the top 10 journals including published articles, among which Ecology and Society has the largest number of articles. According to the JCR in 2021, this journal's impact factor is 4.403 and the JCR ranking is Q1. In fact, the impact factors of the journals published on adaptive water governance were almost all above 3.0, mostly in Q1 and Q2 (see Table 1), indicating that research on adaptive water governance has high influence and development potential.
Table 1

Basic information of the top 10 journals.

JournalImpact factorJCR ranking
Ecology and Society 4.403 Q1 
Sustainability 3.251 Q2 
Environmental Science & Policy 5.581 Q1 
Regional Environmental Change 3.678 Q2 
Environmental Governance 3.266 Q2 
Global Environmental Change Human and Policy Dimensions 9.523 Q1 
Water 3.103 Q2 
Climate and Development 2.311 Q3 
Journal of Environmental Governance 6.789 Q1 
Marine Policy 3.228 Q2 
JournalImpact factorJCR ranking
Ecology and Society 4.403 Q1 
Sustainability 3.251 Q2 
Environmental Science & Policy 5.581 Q1 
Regional Environmental Change 3.678 Q2 
Environmental Governance 3.266 Q2 
Global Environmental Change Human and Policy Dimensions 9.523 Q1 
Water 3.103 Q2 
Climate and Development 2.311 Q3 
Journal of Environmental Governance 6.789 Q1 
Marine Policy 3.228 Q2 
Fig. 5

Top 10 journals with published articles.

Fig. 5

Top 10 journals with published articles.

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Articles published by discipline

Altogether, 66 disciplines were involved in the retrieved literature. The top 10 disciplines in the number of publications are shown in Figure 6. First, environmental science and environmental research published are outstanding. The second most popular discipline, in the middle, is water resources. Ecology, geography, green sustainable science and technology, development research, meteorology and atmospheric science, regional urban planning, and engineering environmental science followed all at the same low level.
Fig. 6

Top 10 disciplines of the published articles.

Fig. 6

Top 10 disciplines of the published articles.

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Author cooperation network

High-yield authors and high-influence authors in a scientific research field can be identified by analyzing the number of articles published as well as their citation frequency. Figure 7 shows the knowledge map of published authors in the international adaptive water governance research field drawn by CiteSpace. Therein, the analysis node was selected as the author and the node label was set to be named by the clusters. In this way, we could more intuitively observe the article authors who are most prolific and analyze their cooperative relationships. The line between each node indicates the cooperation between authors; the thicker the line, the closer the cooperation. Furthermore, multiple nodes can form a network, indicating that there is more communication and cooperation between authors. In Figure 7, Gosnell, Arnold and Benson et al., Davidson, Serrao-Neumann, Ellison et al., Gersonius, Ashley and Brown et al., Adger, Blackstock, and Brown are grouped with higher levels of cooperation. In fact, few authors currently publish in the field because the adaptability of water governance research is not widely followed, although some authors conduct comparative research on a macro level, so their articles are more forward-looking, lack research from the perspective of more subdivided and professional fields, have a relatively smaller audience range, and have a relatively low range and frequency. In summary, the authors have not formed an obvious collaborative network and are loosely connected with the exception of a few authors who have established collaborative relationships.
Fig. 7

Cooperation network of authors.

Fig. 7

Cooperation network of authors.

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Institutional cooperation network

We ran CiteSpace, selected the institution as the analysis node, and set the node label to be named by clusters. Figure 8 shows the co-occurrence network map of international research institutions of adaptive water governance. It can be seen that international research institutions of adaptive water governance are concentrated geographically. In addition, most of the institutions have connection convergence, such as Univ Oxford (Oxford University) and Australian Natl Univ (Australian National University), Univ Tasmania (University Tasmania) and Griffith Univ (Griffith University), Univ Arizona (the University of Arizona), Colorado State Univ (Colorado State University) and Charles Darwin Univ (Charles Darwin University), James Cook Univ (James Cook University) and CSIRO Land & Water, Deakin Univ (Deakin University) and Chinese Acad Sci (Chinese Academy of Sciences). This shows that many research institutions are engaged in close cooperation. Table 2 lists relevant indicators of institutional cooperation networks. First, centrality is an indicator that measures the importance of nodes in the network. High centrality means that the node has established cooperative relationships with multiple research institutions, playing the role of ‘transportation hub’. In Figure 8, high-center circular nodes can clearly be seen. CiteSpace uses purple circles to mark the centrality of Univ Tasmania, Deakin Univ, Griffith Univ, James Cook Univ, Chinese Acad Sci, Univ Oxford, Australian Natl Univ, Univ Arizona as being above 0.1; this represents their high level of importance. Second, the half-life is an indicator that describes the aging degree. The larger the half-life of an institution is, the longer the institution has existed, and the greater its contributions will be. As can be seen in Table 2, Univ Oxford has the longest history, while Univ Tasmania and Griffith Univ are new research institutions.
Table 2

Indicators of institutional cooperation networks.

InstitutionYearHalf-life periodCentrality
Univ Tasmania 2016 −0.5 0.22 
Deakin Univ 2016 3.5 0.19 
Griffith Univ 2016 −0.5 0.19 
James Cook Univ 2012 3.5 0.14 
Univ Arizona 2012 4.5 0.14 
Chinese Acad Sci 2012 5.5 0.14 
Univ Oxford 2010 7.5 0.13 
Australian Natl Univ 2009 6.5 0.10 
InstitutionYearHalf-life periodCentrality
Univ Tasmania 2016 −0.5 0.22 
Deakin Univ 2016 3.5 0.19 
Griffith Univ 2016 −0.5 0.19 
James Cook Univ 2012 3.5 0.14 
Univ Arizona 2012 4.5 0.14 
Chinese Acad Sci 2012 5.5 0.14 
Univ Oxford 2010 7.5 0.13 
Australian Natl Univ 2009 6.5 0.10 
Fig. 8

Cooperation networks of institutions.

Fig. 8

Cooperation networks of institutions.

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National cooperative network

We ran CiteSpace, selected the analysis node as the country, and set the node label to be named by clusters to obtain the coexisting network map of international adaptive water governance research countries (Figure 9). It can be seen that Australia, the USA, the UK, India, and Canada are marked with purple circles, which have large centrality and are not less than 0.1. In addition, from the perspective of cooperation, major countries maintain very close cooperation, especially China and India, which have published few studies on adaptive water governance. Additionally, China has considerable cooperation with the USA and Australia. The UK, Canada, and the Netherlands have published more cooperative papers, and Mexico has cooperated closely with South Africa. As shown in Table 3, the USA ranks first in terms of half-life and has been active for the longest time, promoting the development of the field of adaptive water governance.
Table 3

Indicators of national cooperation network.

NationYearHalf-life periodCentrality
AUSTRALIA 2009 6.5 0.33 
USA 1998 18.5 0.31 
ENGLAND 2008 7.5 0.14 
INDIA 2010 8.5 0.13 
CANADA 2008 7.5 0.12 
NationYearHalf-life periodCentrality
AUSTRALIA 2009 6.5 0.33 
USA 1998 18.5 0.31 
ENGLAND 2008 7.5 0.14 
INDIA 2010 8.5 0.13 
CANADA 2008 7.5 0.12 
Fig. 9

Cooperation network of nations.

Fig. 9

Cooperation network of nations.

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Research topic

Keywords represent the author's focus and a summary of the main content of the article. Through an analysis of a paper's keywords, the core issues of the article can be understood (Song et al., 2019). Additionally, an analysis of high-frequency keywords over the entire field can illuminate the most popular topics. Keywords with high centrality play a crucial role as links and mediators in the network (Hu et al., 2021). The more obvious a centrality is, the stronger its control and guiding role will be, indicating that the keyword is highly relevant. In the WoS literature index, 454 articles related to ‘Adaptive Water Governance’ were found in the SSCI database from ‘all fields’. CiteSpace is used as a visual analysis tool for literature, combining measurement with the visual analysis method. The G-index was selected in the Selection Criteria section, that is, the modified G-index was selected for each section, which should contain more or fewer nodes, and this can be achieved by increasing or decreasing the scale factor K. This was set as 25 in this retrieval. Then, using 1 year as the cutoff point to conduct the keyword co-occurrence analysis, the co-word network was obtained (Figure 10). The knowledge clustering map of the research subject terms and keywords was then developed (Figure 11).
Fig. 10

Co-word network maps.

Fig. 10

Co-word network maps.

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Fig. 11

Knowledge map of popular topics. Please refer to the online version of this paper to see this figure in colour: http://dx.doi.org/10.2166/wp.2022.196.

Fig. 11

Knowledge map of popular topics. Please refer to the online version of this paper to see this figure in colour: http://dx.doi.org/10.2166/wp.2022.196.

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In Figure 10, each node represents a keyword, and the larger the node, the higher the frequency of the keyword. In addition, the circle layer represents the frequency of the keyword in each year, and the thickness of the circle layer is proportional to the number of citations in that year. If the outermost circle of the node is purple, the keyword will have great centrality and attract more attention. To some extent, the keyword represents a popular recent research topic. The cluster analysis of the knowledge network based on keywords obtained 10 clusters, a Q-value of 0.3443, and an S-value of 0.7076, indicating that the network clustering results are good. From the perspective of the overall network, the keyword networks interact with each other without omissive clustering, indicating that, although there is a wide range of research on adaptive water governance, the research topics in each sub-field are strongly correlated, and the common knowledge base is relatively clear. Moreover, the smaller the cluster number is, the more complete the cluster topic cover layout is. The 10 clusters are in order of size as follows: #0South Africa, #1Adaptive governance, #2Groundwater, #3PCA, #4Scenario planning, 5#APH, #6Resource, #7Watershed, #8Computer experiment, and #9Howiesons Poort (Figure 11). These clusters reflect the focus of global literature research in recent years and show the international research hotspots in the field of adaptive water governance. In international studies on adaptive water governance, the keywords with the highest frequency are governance and climate change, and other keywords with high frequency are framework, governance, and impact (Table 4). From the perspective of high centrality, the recent popular topics of international research on adaptive water governance ranked from high to low as governance, climate change, framework, and impact. In addition, changes in the color of the cluster outline reflect the timing of the appearance of the cluster. This is marked in the lower right corner of the CiteSpace diagram from gray to red, representing the appearance time from early to late. Thus, #9Howiesons Poort is the most novel in current research. The specific content of each clustering topic is as follows.

Table 4

Indicators of keywords.

FrequencyDegreeCentralityKeyword
52 75 0.17 Governance 
107 74 0.15 Management 
77 65 0.14 Climate change 
56 70 0.11 Framework 
46 60 0.11 Impact 
FrequencyDegreeCentralityKeyword
52 75 0.17 Governance 
107 74 0.15 Management 
77 65 0.14 Climate change 
56 70 0.11 Framework 
46 60 0.11 Impact 

#0(South Africa) emphasizes the impact of climate on adaptive water governance and internal elements. This research focuses on South Africa and discusses climate change, conducts policy analysis on climate change, develops and explores adaptive governance, mitigates the damage from climate change, enhances the ability to adapt and cope with climate variability, and establishes the corresponding thought model.

#1(Adaptive governance) mainly focuses on the response of adaptive governance measures for adaptive water governance. Taking ecosystem services and subsistence fisheries as examples, it discusses the major measures of adaptive governance and the implementation of stakeholder participation. It further analyzes the adaptability of cooperative governance and the participatory approach.

#2(Groundwater) focuses on globally advocated sustainable goals. Taking groundwater as an example, the resource barrier is discussed, and social resilience is analyzed on the premise of resource dependence to achieve sustainable development goals.

#3(PCA) focuses on methods. To be specific, it emphasizes the analysis of regional community natural resource governance using South Australia as an example to explore the adaptive capacity of social learning and discussing environmentally friendly behaviors, threatened communities, new ecosystems, global warming, and additional topics.

#4(Scenario Planning) mainly involves scenario planning, focusing on practical work in the public sector, environmental flows, intermittent rivers, social ecosystems, environmental governance, and so on.

#5(APH) also focuses on methods in addition to the socio-ecological resilience of adaptive water governance, the adaptability of design principles, shared socio-economic approaches, socio-economic scenarios, and social capital topics.

#6(Resource) focuses on the rapidly changing resource profile, taking note of aquatic fisheries and coral loss, social learning, participatory processes, stakeholder analysis, and social network analysis, which are all mentioned to enhance the resilience of ecosystem resources.

#7(Watershed) focuses on watershed issues. Taking the basin as the background, this research discusses the emerging ‘basin diseases,’ analyzing the problems of flood control and disaster reduction as well as location attachment and lake basin governance.

#8(Computer Experiment) mainly includes experimental design and optimization modeling. To optimize the design of adaptive water governance, it involves an adaptive regression spline, the urban airflow model, computer experiments, and control strategies.

#9(Howiesons Poort) focuses on technology development. This research stresses social aggression and pressure conditions suitable for developing technological adaptability. For some researchers, Howiesons Poort still represents an unusually brief technological development in the Mesolithic period that may have been associated with environmental pressures. Thus, many hypotheses suggest that it was an environmental adaptation, while for others, on the contrary, it implies complex cognition by elaborate techniques and symbols.

In a word, international research on adaptive water governance has gradually shifted from the impact of a single factor such as water, soil, atmosphere, or climate change to a multi-factor comprehensive study of natural ecosystems in recent years. In addition, scholars with different academic backgrounds are committed to discussing the same research context from multiple perspectives, reflecting the evolution and development characteristics of popular research topics on adaptive water governance in different development stages.

In order to study the evolution process of the topic, after generating a co-occurrence clustering map of keywords, the cluster number was used as the Y-axis and the citation publication year as the X-axis to obtain a timeline map of the co-occurrence word network (Figure 12). The timeline map can show the time span and research progress of the development and the evolution of each cluster. In Figure 11, research from 2010 to 2019 is relatively concentrated. Furthermore, the relevant studies of #1Adaptive governance were published from 1998 to 2021. From the correlation number and intensity of cluster points, it can be seen that international studies on adaptive water governance have been focused on the analysis of adaptive governance. Among them, studies on #0South Africa, # 2Groundwater, and #5APH continued to produce novel perspectives until 2021. These points may indicate the trends of future development. However, the relevant studies of #8Computer Experiment are restricted to 2009; as shown in the map, the relevant studies of #4Scenario Planning and #7Watershed clustering are restricted to 2019, and these citations gradually decreased or even stopped. This shows that computer experiments, scenario planning, and watershed research are no longer popular research topics.
Fig. 12

Knowledge map of timelines.

Fig. 12

Knowledge map of timelines.

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Research trend

Burst Detection represents the phenomenon of the transition of the keyword to be investigated in a short time, emphasizing mutability. Through the investigation of keyword mutability, research hotspots from a specific time can be understood (Song et al., 2019). The principle is to determine which words are popular according to the rate of increase in the title, abstract, keywords, and so on. Thus, it can be used to identify research hotspots and development trends. Compared to an analysis based on word frequency or co-occurrence word frequency, an evolutionary path analysis based on emergent words can more easily detect the emerging fields and development trends of scientific research. In this study, CiteSpace was used to detect emergent words mainly based on the Kleinberg algorithm by examining word frequency, and words with a high rate of change in a certain period were detected from a large number of subject terms. As shown in Figure 13, in international studies on adaptive water governance, background and adaptation to climate change are two hotspots. Furthermore, their mutability lasts the longest. In the most recent 5 years, the majority of international research has been focused on the adaptability of water governance including social ecosystems, climate change adaptation, the issue of agriculture, and decision factors. Therein, climate change adaptation, the issue of agriculture, and the determinants of paroxysmal continued until 2021, suggesting that these aspects could be at the forefront of adaptive water governance.
Fig. 13

Top 10 keywords with the strongest citation bursts.

Fig. 13

Top 10 keywords with the strongest citation bursts.

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Research basis

The knowledge base is composed of cited references, is connected by citation relations, and tracks citations and co-citations in the research frontier in the literature. Additionally, co-citation analysis of the literature reflects the structural relationship between references that are simultaneously cited in one study. The analysis of clusters and key nodes in co-citation network clustering can reveal the knowledge structure, knowledge basis, and evolution characteristics of the research field (Song et al., 2019). We ran CiteSpace, selected the analysis node as the reference and the cited author, and set the node label to be named by centrality in order to obtain a co-citation visual knowledge map (Figure 14). The two nodes with the highest centrality are cited authors: [Anonymous], Pahl-Wostl. The remaining important nodes are listed in Table 5, with a center degree greater than 0.1. Among them, the paper by [Anonymous] has the longest half-life, which means that this citation has existed in the network for the longest time, has the greatest influence, and has the highest citation frequency. The analysis results of the network cluster map show that there are 15 main clusters in this research area: #0Local government, #1Ghana, #2Cogovernance, #3Wetlands, #4Operationalisation, 5#Panarchy, #6South Africa, #7Climate change, #8Adaptive capacity, #9Environmental fluence, #10Collaboration, #11Palau, #12Hydraulic mission, #14Cost-effectiveness, and #15Climate proofing. The smaller the cluster number is, the more completely the cluster topic covers the topic, and the color of the cluster outline reflects the time when the citation appears. Thus, the local government clustering topic covers the most complete topic, and the #10Collaboration clustering topic is the most novel.
Table 5

Indicators of cited references.

FrequencyDegreeCentralityHalf-life periodAuthorYearCluster
52 54 0.27 12.5 [Anonymous] 2004 
47 56 0.24 6.5 Pahl-Wostl 2006 
25 43 0.15 6.5 Adger 2005 
10 40 0.14 6.5 Biesbroek 2010 
17 35 0.10 3.5 Haasnoot 2013 
16 25 0.10 3.5 Engle 2011 
FrequencyDegreeCentralityHalf-life periodAuthorYearCluster
52 54 0.27 12.5 [Anonymous] 2004 
47 56 0.24 6.5 Pahl-Wostl 2006 
25 43 0.15 6.5 Adger 2005 
10 40 0.14 6.5 Biesbroek 2010 
17 35 0.10 3.5 Haasnoot 2013 
16 25 0.10 3.5 Engle 2011 
Fig. 14

Co-citation network cluster maps.

Fig. 14

Co-citation network cluster maps.

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To study the evolution process of the knowledge base of international adaptive water governance, after the generation of the co-citation network cluster map, the cluster number was used as the Y-axis and the citation publication year as the X-axis to obtain the timeline map of the co-occurrence word network (Figure 15). The timeline map can show the time span and research progress of the development and evolution of each cluster. Moreover, it can be seen that studies from 2004 to 2019 are concentrated and that the studies of #1Ghana, #3Wetlands, and #11Palau continue to have novel perspectives until 2021, indicating that these points still represent the foundation of current development. However, the studies on #4Operationalisation and #14Cost-effectiveness are restricted to 2014, and those on #2Cogovernance and #6South Africa are restricted to 2016. The relevant studies of #0Local Government, #5Panarchy, and #9Environmental fluence are restricted to 2018, and related citations gradually decreased or even stopped, indicating that these studies have no longer provided a knowledge base support for research in recent years.
Fig. 15

Co-citation network clustering timeline maps.

Fig. 15

Co-citation network clustering timeline maps.

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This study provides a new quantitative and visualizing analysis of adaptive water governance research through the CiteSpace software based on the data of the SSCI core collection. This study explores the popular topics and frontiers in the field of adaptive water governance in recent years, analyzes the evolution of the global knowledge body of adaptive water governance, and provides a reference and basis for further research.

The main conclusions of this study are as follows. First, as a new research field, the attention of scholars on adaptive water governance is increasing yearly based on articles published in the SSCI journals. Second, among the 66 disciplines involved in the study of adaptive water governance, 10 disciplines, including environmental science, environmental research, water resources, ecology, geography, sustainable science, development research, atmospheric science, regional urban planning, and engineering environmental science, have a strong influence. Third, among the 85 countries involved in the study of adaptive water governance, Australia is the leading country with strong collaborative influence, accounting for 29.08% of the global articles, followed by the USA, the UK, and Canada. Fourth, Ecology and Society, followed by Sustainability and Environmental Science Policy, was the most influential of the 164 journals that published articles on adaptive water governance. Fifth, authors of adaptive water governance research have not yet formed close collaborations, while international research institutions on adaptive water governance work closely together, especially the University of Tasmania, Deakin University, Griffith University, James Cook University, the University of Arizona, and Oxford University, which play important roles in global cooperative networks. Cooperation between countries is also strong, especially among Australia, the USA, the UK, India, and Canada, which occupy a central position in the global cooperation network. Sixth, there are 10 clusters in the adaptive water governance research that represent the popular topics of adaptive water governance in recent years. In particular, research on adaptation to climate change, agriculture, and determinants constitutes the forefront topics of adaptive water governance research.

With an increasing number of scholars coming to realize the importance of adaptive water governance, diversified knowledge and cutting-edge hotspots have sprung up around adaptive water governance; research perspectives are gradually expanding, and research systems are constantly improving. However, there are still some shortcomings in the concept, theoretical framework, practice, and policy response of adaptive water governance. First, a universally accepted concept, analysis framework, knowledge system, and paradigm for adaptive water governance have not yet been formed. Second, research on adaptive water governance needs to be more interdisciplinary and comprehensive. Current studies focus on resources, river basins, and other physical entities and lack exploration of the development mechanism and future scenario simulation of adaptive water governance. Although there is a basic understanding of multi-disciplinary interaction, the breadth and depth of multi-disciplinary participation still need to be improved. In the context of the big data era, it would be possible to explore and utilize large-scale and high-precision information-processing methods to dynamically monitor the development of adaptive water governance and deepen the research on the development approach of adaptive water governance with different scales and types. Finally, the response of adaptive water governance is insufficient, and no targeted response measures and policies have been formed thus far. In the future, it will be necessary to combine the changes in governance structure and function in the development process of adaptive water governance, emphasize different response models under multi-agent interactions, and strengthen the research on the regulation mechanism of adaptive water governance.

There are some limitations to this study. At present, it is difficult to investigate the relationship between references and cited literature because of the small correlation density and short time span of the research network. In the future, it will be necessary to enhance the extension of the research field, focus on expanding and reasonably refining the research branches, attract more researchers and institutions, and further form a broader research network and knowledge system. In addition, SCI journals have been excluded in this study, limiting the explanatory power and the persuasiveness of our conclusions. Follow-up research is needed to expand the research data sources to understand the research topics and progress of global adaptive water governance more comprehensively.

All relevant data are included in the paper or its Supplementary Information.

The authors declare there is no conflict.

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