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International Journal of Environmental Research and Public Health logoLink to International Journal of Environmental Research and Public Health
. 2021 Jul 14;18(14):7503. doi: 10.3390/ijerph18147503

Theme Trends and Knowledge-Relationship in Lifestyle Research: A Bibliometric Analysis

Ah-Ram Kim 1, Hae Yean Park 2,*
Editor: Paul B Tchounwou
PMCID: PMC8306612  PMID: 34299955

Abstract

Healthy living habits (healthy eating, regular physical activity, abstinence from smoking, restrictions on alcohol consumption, and stress management) can help prevent a significant number of diseases. The purpose of this study is to use a bibliometric analysis to analyze the relationships between countries, institutions and authors through lifestyle studies from 2016 to 2020 to find out the latest research trends. This study utilized bibliometric data collected through Scopus including thesis titles, authors, agencies, countries/regions, publication years, and keywords. Data were analyzed using the VOS viewer (Vers. 1.6.13; Leiden University, Leiden, The Netherlands) and the findings were used to visualize similarity mapping techniques. Publication of lifestyle-related research papers has steadily increased between 2016 and 2020. The country/region most actively conducting such research was the United States, also home to the majority of institutions conducting work in the field. PloS ONE published the most lifestyle-related research under the field of Medicine. Identified keywords were related to risk measures, psychosocial factors, prevention, health promotion, and risk factors. Lifestyle research is a promising field of research worldwide and has great potential to improve human health, the environment, and quality of life. The findings are expected to promote future research and give direction to the advancement of the field of research by comprehensively analyzing and summarizing lifestyle research trends.

Keywords: lifestyle, health, bibliometric analysis

1. Introduction

Worldwide, the rate of older adults (i.e., those aged 65 years and older) is expected to almost double over the next 30 years, from 12% to 22% [1]. This phenomenon will increase the rate of chronic diseases, considering that the prevalence of diseases increases with age and that older people are severely affected [2]. It will lead to higher social costs for health care and financial burdens for individuals and society. Therefore, an understanding of healthy aging is becoming increasingly necessary. Healthy living habits, including normal weight maintenance, smoking cessation, and regular exercise, contribute to reduced physical disability and mortality over time [3]. Such habits could help prevent a significant number of diseases [2].

The World Health Organization (WHO) defines lifestyle as “a specific type of behavior that can reduce disease and early death by personal, physical, mental, and social interaction”. According to the WHO, behavioral factors related to unhealthy lifestyles include a diet that lacks fruits and vegetables, smoking, lack of physical activity, a sedentary lifestyle, and drinking [4]. Lifestyle factors are multifaceted, interrelated, and related to multiple non-communicable diseases (NCDs) [5]. As of 2017, unhealthy behavior is estimated to account for more than 23 million deaths and 36.5% disability-adjusted life spans worldwide [6]. Additionally, a healthy lifestyle is the most effective strategy for preventing NCDs [7]. Therefore, understanding the association of studies on lifestyle factors is critical for establishing health policies and presenting a direction for future research. Many research institutes have supported policies to reduce the burden of disease by reducing unhealthy lifestyles [8,9].

Studies exploring trends in existing lifestyle-related research mainly used systematic reviews and meta-analysis with limited targets, such as specific age groups, specific diseases, and specific target groups [10,11,12,13]. Analyzing research trends using qualitative research methods has disadvantages such as limited time and funding and biased analysis results, depending on the researcher’s major. Therefore, literature research or content analysis is better suited for a micro-understanding of the details within a particular academic field [14,15].

The bibliometric analysis has been widely used in quantitative analysis of academic literature to describe the trends and contributions of countries/regions, journals, scholars, and keywords [16,17]. Co-occurrence word analysis is an important bibliometric technique from the late 1970s that can identify the main themes, investigate hot spots, and detect knowledge in the literature [18,19]. Thus, bibliometrics can contribute to monitoring the evolvement and patterns of effective publications [20]. In recent years, it has been applied to biomedicine and health care [21,22]. The bibliometric analysis provides researchers and related stakeholders with an opportunity to gain a beneficial understanding of the field of research and promote cross-disciplinary collaboration [23]. To achieve these benefits, such methods should also be applied to lifestyle-related research.

The purpose of our study is to examine the latest trends in lifestyle-themed studies using bibliometric analysis. This study is the first quantitative study to analyze research trends and knowledge relationships in lifestyle research. It will provide valuable guidance on future research directions in this rapidly evolving field.

2. Material and Methods

2.1. Data Collection

Scopus is an extensive international academic database containing authoritative information. It contains a variety of information available for bibliometric research, including the title of the paper, author, agency, country/region, year of publication, and keywords. It provides reliable data for bibliometric analysis in the field of recent lifestyle (or rehabilitation) research.

We searched for papers from 2016 to 2020 using the following search strategy: TITLE (lifestyle) AND DOCTYPE (ar) AND ACCESSYPE (OA) AND PUBYEAR < 2021. Two authors reviewed the resulting publications for the reliability of the search strategy. The study included all papers with an abstract, and excluded news, congresses, and letters to the editor. All data retrieved from the journal were organized in electronic spreadsheets.

2.2. Data Analysis and Visualization Maps

Our study aimed to leverage bibliometric analysis to identify bibliometric information, including knowledge structures in the field of lifestyle research, research boundaries, hot spots where research is actively conducted, and authors and institutions actively studying in related fields. Co-word analysis was used in each paper to compute the frequency of co-occurrences and perform hierarchical clustering based on co-occurrence information [18,19]. The VOS viewer (ver. 1.6.13; Leiden University, Leiden, The Netherlands) was used to extract bibliometric information about countries/regions, institutions, authors, and keywords. VOS viewer uses visualizations of similarity mapping techniques. It produces better-structured maps than other widely used techniques in the bibliometric field [24]. In particular, when constructing a map, the similarity is measured to represent the associated strength by the thickness or color of the line. Nearby items are items of high similarity, while items of low similarity are placed away from each other. Unlike other mapping programs, VOS viewer graphically represents them through bibliometric analysis in an easy-to-understand manner. Through network mapping, various maps were created on the simultaneous generation of countries/regions, institutions, authors, and keywords. Each node in the map is represented by a labeled circle. Larger nodes mean higher frequency, and smaller nodes mean lower frequency. The color of each circle is determined by the cluster to which each word belongs. The thickness and length of lines between nodes show the strength of the connectivity between the words.

2.3. Results Ethics

Data on bibliometric information were retrieved and downloaded from Scopus. This information is available to the public. Such data extraction does not involve direct contact or interaction with humans. Therefore, there is no ethical problem in research. Approval from the Research Ethics Committee is not required, including the use of these data.

3. Results

3.1. Publication Outputs

Based on our search strategy, we identified and incorporated 6075 publications on lifestyle from Scopus. The publication period was from 2016 to 2020, and it was only for journals with “lifestyle” included in the title. The number of annual publications in 2016, 2017, 2018, 2019, and 2020 was 1037, 1115, 1174, 1272, and 1477, respectively.

3.2. Distribution of Source Journals

Table 1 lists the top 10 journals on this topic. PloS ONE published the most papers (148/6075), followed by the International Journal of Environmental Research and Public Health (145/6075) and Nutrients (124/6075). The top 10 journals published 869 publications, accounting for 16.13% of all publications in this study.

Table 1.

Top 10 journals publishing research on lifestyle research, 2016–2020.

Rank Journal Publisher Country Categories Publication
1 PloS ONE PUBLIC LIBRARY SCIENCE United States Multidisciplinary 148
2 International Journal of Environmental Research and Public Health MDPI Switzerland Medicine 145
3 Nutrients MDPI Switzerland Food Science, Nutrition 124
4 BMC Public Health BMC United Kingdom Medicine 111
BMJ Open BMJ PUBLISHING GROUP
5 Scientific Reports NATURE RESEARCH United Kingdom Natural Science 79
6 American Journal of Lifestyle Medicine SAGE PUBLICATIONS INC United States Lifestyle 78
7 Journal of Medical Internet Research JMIR PUBLICATIONS, INC Canada Medicine 43
Preventive Medicine ACADEMIC PRESS INC ELSVIER SCIENCE Netherlands Preventive medicine, Public health 43
8 Sustainability MDPI Switzerland Cross-disciplinary 36
9 Obesity WILEY United States Endocrinology 33
10 Public Health Nutrition CAMBRIDGE UNIV PRESS United Kingdom Nutrition 29

3.3. Distribution and Co-Authorship of Countries/Regions

According to the search results, 6075 publications came from 225 countries/regions. As shown in Table 2, the United States has the largest number of publications (1586/6075) and the United Kingdom ranks second (674/6075), followed by Australia (573/6075). Figure 1 shows the location of the 225 countries/regions that were publishing lifestyle research. The co-authorship analysis of countries/regions reflects their relationship with the degree of collaboration in the field. The larger nodes represent more productive countries/regions in this field. The thickness and length of links between nodes represent the cooperative relationship between countries/regions. The 225 countries/regions from nine collaboration clusters are distinguished by different colors.

Table 2.

Top 10 countries/regions publishing lifestyle research, 2016–2020.

Rank Countries/Regions Publication Citation
1 United States 1586 14,324
2 United Kingdom 674 7159
3 Australia 573 4542
4 China 364 2654
5 Spain 349 3342
6 Netherlands 326 3549
7 Germany 314 3347
8 Italy 292 3144
9 Canada 277 2255
10 Sweden 271 3768
11 Japan 263 1176
12 India 217 845
13 Brazil 191 993
14 Iran 186 488
15 Denmark 165 1982
16 France 165 1753
17 South Korea 158 755
18 Norway 140 1238
19 Finland 127 1930
20 Poland 112 1245

Figure 1.

Figure 1

Distribution and co-authorship of countries/regions.

3.4. Distribution and Co-Authorship of Organizations

According to the search results, research organizations contributed to lifestyle research. Table 3 presents the top five most productive organizations in lifestyle research. Department of Nutrition, Harvard T.H. Chan School of Public Health, and Department of Epidemiology, Harvard T.H. Chan School of Public Health (20 publications) ranked first among all identified organizations, followed by the Tehran University (13 publications), the Harvard Medical School (12 publications) and the Pennington Biomedical Research Center (11 publications). Co-authorship analysis was performed by VOS viewer to display the visualization network map of organizations in lifestyle research. The link between institutions is determined by the number of publications co-authored between them, each of which published at least five papers and formed seven clusters. These clusters are shown in Figure 2.

Table 3.

Top five organizations publishing lifestyle research, 2016–2020.

Rank Organizations Publication Citation
1 Department on Nutrition, Harvard T.H. Chan School of Public Health 20 293
2 Department on Epidemiology, Harvard T.H. Chan School of Public Health 20 257
3 Tehran University 13 3
4 Harvard Medical School 12 89
5 Pennington Biomedical Research Center 11 133

Figure 2.

Figure 2

Distribution and co-authorship of organizations.

3.5. Distribution and Co-Authorship of Authors

According to the search results, lifestyle publications were written by authors. Table 4 presents the top 10 most productive authors in lifestyle research. Wang, Y (34 publications) ranked first among all authors, followed by Li, Y (31 publications) and Zhang, X. (26 publications). These clusters are shown in Figure 3.

Table 4.

Top 10 most productive authors in lifestyle research, 2016–2020.

Rank Author Countries/Regions Publication Citation
1 Wang, Y. China 34 159
2 Li, Y. United States 31 716
3 Zhang, X. United States 26 164
4 Chen, J. China 24 215
5 Li, J. United States 23 210
6 Liu, Y. China 21 152
7 Wang, X. China 19 139
8 Wang, J. China 19 133
9 Chen, Y. United Kingdom 19 126
10 Mercer, CH. United Kingdom 17 176

Figure 3.

Figure 3

Distribution and co-authorship of authors.

3.6. Co-Occurrence Analysis of Top Keywords

We used VOS viewer to extract and cluster the top 100 keywords. The analysis was conducted after excluding the search term “lifestyle.” Appendix A shows the frequency and link strength of the top 100 keywords. As shown in Figure 4, we used VOS viewer to build a visualization network map of the 100 keywords in seven clusters with co-occurrence. The keywords physical activity (595), obesity (472), and diet (318) are located at the center of the visualization map. The node label is the keyword, and the node size represents its frequency. Links connecting two nodes represent a co-occurrence relationship between the keywords.

Figure 4.

Figure 4

Co-occurrence analysis of top keywords.

4. Discussion

This study collected and analyzed bibliometric information from lifestyle-related studies. The analysis identified research trends, countries, institutions, authors, and keywords related to lifestyle.

A change in the number of academic publications in a field is an important indicator of its evolutionary trend [25]. Lifestyle research has been on a steady rise over the past five years and has achieved remarkable results. It has been published over 500 times in the United States, the United Kingdom, and Australia. There is a large network of co-authors in various countries/regions who have shown cooperation internationally. Yellow represents mainly South American country/region, while red and sky blue included European country/region. The blue color indicates an Asian country/region, the brown color is a Chinese country/region, and the green color is a Middle Eastern country. These results are consistent with prior studies that suggest that cooperation between countries/regions may be affected by geographical proximity or common language [25]. This suggests the existence of a large gap between countries/regions. Through links with countries that lack research, the gap between public health should be bridged through the focus of preventive and population-based aims, treatment and patient-centered clinical practices.

All five organizations that are most actively researching lifestyle have been found to be American institutions. We show that the top institutions are consistent with the core countries of the study. These results show that the most productive countries and institutions are leading the trend in lifestyle research and have cooperative relationships. The arrangement of organs in Figure 2 is also horizontal. This shows that the related fields are mainly medical and the areas issued are limited. As lifestyle plays an important role not only in medical aspects of human life but also in other aspects, these results suggest a need for active multi-disciplinary research in various fields.

We identified authors conducting research in this field of study. Only 40 of them published more than 10 papers on lifestyle issues. These results confirm that there are many researchers interested in lifestyle, but cooperation and subsequent research among authors is limited. Collaboration among scholars promotes the flow of information and improves the efficiency of researchers by gradually reducing research costs [26]. Furthermore, encouraging collaboration between authors, agencies, and countries can increase the number of published authors and contribute to more effective research in relevant fields [25]. Therefore, it is desirable to strengthen cooperation between countries and authors worldwide for the diversity of lifestyle-related studies.

Keywords are standardized terms used to ensure that publications are indexed uniformly by topic. Mapping a co-keywords network by analyzing the frequency of co-keywords in several publications helped identify internal structures and trends in lifestyle research [27]. Analyzing the relationship between the top 100 keywords created five clusters. With respect to lifestyle characteristics, these five clusters were analyzed as follows.

Cluster 1 (red) mainly focused on risk diseases and included keywords such as metabolic syndrome, hypertension, diabetes, epidemiology, etc. Non-communicable diseases (NCDs), such as heart disease, stroke, cancer, chronic respiratory diseases, and diabetes, are the leading cause of mortality in the world [28]. NCDs are affected by lifestyle factors such as smoking, lack of diet, and lack of physical activity. This increases metabolic risk such as high blood pressure, dyslipidemia, glucose metabolic disorder, insulin resistance, or obesity [29]. Therefore, lifestyle interventions are needed to reduce the prevalence of major risk factors for chronic diseases and early detection. These efforts could significantly reduce their human and economic costs. For these efforts, academic research must be conducted continuously to accurately identify the risk factors of lifestyle.

Cluster 2 (green) focused primarily on relatively young subjects and psychosocial factors, including keywords such as adolescence, young, children, university students, anxiety, stress, and quality of life. According to a recent study, young adults and women are at higher risk of mental distress [30]. Additionally, a recent report by the Centers for Disease Control and Prevention (CDC) stated that young people in the U.S. (age 18–29 years) had the highest symptoms of mental pain distress. Lifestyle factors are a promising avenue for helpful treatments for depression and anxiety [31], as they affect our physical and mental health. It is necessary to study the living factors of depression and anxiety in the future based on a prior study [32,33] that found life mediation to be useful for preventing and treating mental diseases. These results confirmed that research on teenagers and young people as well as older adults is actively underway.

Cluster 3 (blue) focused on prevention and initial intervention and included keywords such as intervention, primary care, and prevention. NCDs are the leading causes of morbidity and mortality worldwide [34]. WHO [35] has made the prevention of NCDs a global priority. They generally have a long prodromal stage, taking many years to develop [34]. Lifestyle-related studies show that active research is being conducted as a preventive strategy that can slow down or stop the NCDs process. We confirm that lifestyle-related research should focus not only on disease management but also on disease prevention.

Cluster 4 (yellow) focuses on health promotion and includes keywords such as nutrition, health behavior, and behavior change. Countries around the world are implementing policies, strategies, and health programs to cope with the spread of chronic diseases and encourage healthy behavior. As the first step in prevention, the American College of Lifestyle Medicine (ACLM) introduced six ways to manage health through regular physical exercise, adequate and quality sleep, smoking cessation, stress management, and relationship maintenance. Lifestyle Medicine (LM) has produced significant changes in the concept of health, moving from a care-centered approach to an approach focused on promoting well-being [36].

Cluster 5 (purple) focuses on risk factors and includes keywords such as smoking, diet, alcohol, and body mass index (BMI). Unhealthy lifestyles include insufficient physical activity practices, adverse eating habits, sleep patterns, and alcohol and smoking [37,38]. Recently, a study found that very few Europeans achieved the recommended levels of physical activity, diet, low alcohol consumption, smoking cessation, and good sleep quality [39]. Therefore, our research supports the need to quit smoking, maintain a healthy weight, and abstain from drinking. Further research on risk factors is needed for a healthy lifestyle.

Our study is, to our knowledge, the first bibliometric analysis of lifestyle-related publications. Still, there are some limitations to this study. First, we selected most of the papers published in English (93.17%). Most of Scopus publications have been published in English, but there may be linguistic bias. Second, the quality of the papers published by Scopus is not uniform. This means that bibliometric analysis did not evaluate and analyze the quality of the paper, but only quantitative analysis. Third, the data currently used in this study, excluding search engine data such as PubMed, Google Scholar, and Web of Science, were analyzed only within the scope. Therefore, there is a possibility that a paper retrieved from a search engine other than Scopus may be missing. This requires further research to combine and analyze data from different search engines.

In terms of future research opportunities, we present future research directions through extensive reviews of literature using bibliometric analysis. Firstly, this study focuses on the term of “lifestyle” only. However, the field of lifestyle a diverse set of multifaceted. Thus, future research should focus on analyzing the concept from the lifestyle of various other disciplines of study. Secondly, given the nascent stage and the continuous rapid expansion of this field, it is quite evident that many more influential papers are to be witnessed. Thus, future research should continue to carry out such bibliometric studies on lifestyle within intervals of every five to seven years. This will contribute to the constant development of research concerning lifestyle.

5. Conclusions

This study uses bibliometric quantitative analysis and visualization network maps of data extracted from Scopus to show the research status, trends, co-country, co-authors, and co-keyword networks of lifestyles. We confirm that lifestyle research is a promising field of research worldwide and has great potential to improve human health and environment and improve quality of life. The findings are expected to promote direction for future research to advance the field of research by comprehensively analyzing and summarizing lifestyle research trends.

Appendix A

Table A1.

Top 100 keywords in lifestyle research, 2016–2020.

Rank Keyword Frequency Link Strength Rank Keyword Frequency Link Strength
1 Physical activity 595 538 51 Lifestyle change 41 27
2 Obesity 472 421 52 Type 2 diabetes mellitus 40 34
3 Diet 318 295 53 Chronic disease 40 33
4 Exercise 218 203 54 Dietary habits 39 34
5 Lifestyle intervention 203 175 55 Screen time 38 36
6 Smoking 170 157 56 Inflammation 38 33
7 Nutrition 144 137 57 Students 38 31
8 Health promotion 143 116 58 Gender 38 28
9 Healthy lifestyle 141 105 59 Lifestyle migration 38 7
10 Weight loss 124 116 60 Mortality 37 33
11 Metabolic syndrome 122 103 61 Stress 37 33
12 Risk factors 121 106 62 China 37 25
13 Adolescents 112 96 63 Dementia 36 33
14 Hypertension 111 94 64 Cardiovascular diseases 36 32
15 Diabetes 108 100 65 Insulin resistance 36 31
16 Prevention 106 100 66 BMI 35 32
17 Epidemiology 106 92 67 Women 35 28
18 Health 100 86 68 Socioeconomic status 34 32
19 Quality of life 98 86 69 Sedentary lifestyle 34 27
20 Cardiovascular disease 91 82 70 Dietary patterns 33 29
21 Overweight 89 85 71 Youth 33 27
22 Type 2 diabetes 89 78 72 Adherence 32 30
23 Pregnancy 89 77 73 Cognition 32 29
24 Children 88 81 74 Risk factors 32 26
25 Depression 87 80 75 Health behaviors 32 25
26 Lifestyle factors 83 48 76 Sedentary behaviors 31 30
27 Mental health 80 66 77 Qualitative research 31 27
28 Public health 79 54 78 COVID-19 31 26
29 Health behavior 77 64 79 Health behavior 31 24
30 Intervention 75 67 80 Coronary artery disease 31 24
31 Body mass index 75 64 81 Prevalence 30 27
32 Alcohol 70 65 82 Elderly 30 24
33 Sleep 65 64 83 eHealth 29 25
34 Mediterranean diet 59 55 84 Stroke 29 25
35 Cancer 58 56 85 Child 29 24
36 Breast cancer 56 47 86 Health education 29 24
37 Lifestyle modification 51 38 87 Well-being 29 21
38 Primary care 50 39 88 Behavior change 28 25
39 Older adults 50 35 89 Cohort study 28 25
40 Education 49 43 90 University students 28 23
41 Aging 48 42 91 Motivation 27 24
42 Randomized controlled trial 48 39 92 Behavior 27 23
43 Lifestyle medicine 47 21 93 Knowledge 27 23
44 Adolescent 45 41 94 Colorectal cancer 27 22
45 Lifestyle behaviors 44 36 95 Prediabetes 27 22
46 Childhood obesity 43 30 96 Anxiety 26 24
47 Blood pressure 42 38 97 Diabetes prevention 26 21
48 Diabetes mellitus 42 36 98 Lifestyle interventions 26 18
49 mHealth 41 40 99 Social media 26 16
50 Body composition 41 37 100 qualitative 25 23

Author Contributions

Conceptualization, A.-R.K. and H.Y.P.; methodology, A.-R.K.; software, A.-R.K.; formal analysis, A.-R.K.; investigation, A.-R.K.; writing—review and editing, A.-R.K. and H.Y.P.; visualization, A.-R.K.; supervision, H.Y.P.; project administration, H.Y.P.; funding acquisition, H.Y.P. Both authors have read and agreed to the published version of the manuscript.

Funding

This work was supported by the National Research Foundation of Korea (NRF) grant funded by the Korea government (MSIT) (NRF-2020R1C1C1011374).

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

The data used in this analysis come from the Scopus and are available on its web page www.scopus.com (accessed on 26 January 2021).

Conflicts of Interest

The authors declare no conflict of interest.

Footnotes

Publisher’s Note: MDPI stays neutral with regard to jurisdictional claims in published maps and institutional affiliations.

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Data Availability Statement

The data used in this analysis come from the Scopus and are available on its web page www.scopus.com (accessed on 26 January 2021).


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