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Review

The Scientific Landscape of the Aging-in-Place Literature: A Bibliometric Analysis

by
Saman Jamshidi
* and
Seyedehnastaran Hashemi
School of Architecture, University of Nevada, Las Vegas, NV 89154, USA
*
Author to whom correspondence should be addressed.
J. Ageing Longev. 2024, 4(4), 417-432; https://doi.org/10.3390/jal4040030
Submission received: 2 October 2024 / Revised: 27 November 2024 / Accepted: 3 December 2024 / Published: 10 December 2024
(This article belongs to the Special Issue Aging in Place: Supporting Older People's Well-Being and Independence)

Abstract

:
The world’s population is aging and, as populations age, they exhibit an increased prevalence of chronic diseases, which can reduce the independence of elderly individuals. The set of initiatives known as aging in place, a common policy response to the aging population, is preferred by both the elderly population and policymakers. Aging in place is a broad and multifaceted topic that involves multiple stakeholders and academic disciplines. A science map of the literature on aging in place can help researchers pinpoint their efforts and help policymakers make informed decisions. Thus, this study maps the scientific landscape of the aging-in-place literature. This review used bibliometric analysis to examine 3240 publications on aging in place indexed in the Web of Science. Using VOSviewer 1.6.20, it conducted various analyses, including a citation analysis and an analysis of the co-occurrence of author-provided keywords. The study identified key research areas, leading countries, institutions, and journals, central publications, and the temporal evolution of themes in the literature. Based on its keyword co-occurrence analysis, the study identified five major research-area clusters: (1) aging-in-place facilitators, (2) age-friendly communities, (3) housing, (4) assistive technologies, and (5) mental health. This study improves the understanding of the various interdisciplinary factors that have influenced the research on aging in place. By making this research more accessible, the study can help researchers and policymakers navigate the extensive information on aging in place and complex relationships more effectively.

1. Introduction

The world’s population is aging due primarily to (1) reduced mortality rates, which have resulted from improved public health, and (2) declining fertility rates [1]. As populations age, they exhibit an increased prevalence of chronic diseases, such as ischemic heart disease, diabetes, osteoarthritis, sensory impairments, and dementia [2]. Aging individuals are also more likely to experience multimorbidity (i.e., having multiple chronic conditions simultaneously), which can significantly impact their physical functions and overall quality of life [3]. In addition to such progressive impairments in various physical functions, aging is associated with a range of psychosocial problems, such as loneliness and depression, e.g., [4]. These factors diminish the ability of elderly individuals to perform the activities of daily living independently as well as their mental health, leading to poorer quality of life and increased healthcare costs, and often necessitating a move into a care institution [5].
Institutional care is often perceived as dehumanizing and detrimental to social interactions [6]. Additionally, relocating can have negative psychological effects on elderly individuals, such as stress, loneliness, and depression [7]. To address the challenges associated with an aging population, policymakers have promoted initiatives for aging in place rather than moving older adults into specialized housing or care facilities. “Aging in place” refers to the ability to live independently, safely, and comfortably in one’s own home for as long as possible, regardless of age, income, or physical abilities [1].
Aging in place is a preferred option for elderly individuals because they feel attached to their homes and communities [8]. When older adults age in place, the independence they experience can help them maintain their sense of identity and contribute to their self-reliance, self-management, and self-esteem [9]. Thus, aging in place contributes to the overall well-being of older people [10]. From the perspective of policymakers, aging in place is a better option than institutional care because aging in place is less expensive in the long term [11].
A variety of factors contribute to successful aging in place, including policies [12], home environments [13], communities and neighborhoods [14], transportation [15], facilitating physical activity [16], promoting social interactions [17], technology [18], and caregiving [19]. Hence, aging in place involves multiple disciplines and stakeholders.
Considering the breadth of the topic of aging in place, its multidisciplinary nature, and the variety of stakeholders aging-in-place initiatives involve, a science map of the literature on aging in place offers a number of benefits. First, it enables the identification of key research areas and their evolution over time. Second, it sheds light on interdisciplinary connections, which can point to opportunities for interdisciplinary research and thus lead to new insights and innovations. Third, by providing a comprehensive overview of what has been studied and published, it conserves resources by preventing duplication of effort in various disciplines. Fourth, it makes knowledge more accessible to both new and experienced researchers, facilitating their navigation of vast amounts of information. Lastly, policymakers and stakeholders can use a map of the research landscape to make more informed decisions regarding aging in place.
Various types of literature review, such as systematic, scoping, integrative, and thematic reviews, have been instrumental in mapping the literature on aging in place, e.g., [20,21,22,23]. For instance, in a scoping review, Pani-Harreman et al. [23] reviewed 34 articles and identified five major themes in the aging-in-place literature: (1) place, (2) social network, (3) support, (4) technology, and (5) personal characteristics. Similarly, Peek et al. [22] systematically reviewed the literature and identified 61 articles that addressed factors influencing the acceptance of technologies used to facilitate aging in place.
Literature reviews can offer in-depth analysis, detailed interpretation, and critical evaluation of research findings, methodologies, and theoretical frameworks but, as Donthu et al. [24] argued, they have several limitations that can restrict their applicability. First, the scope of literature reviews is often narrow and highly specific, which may limit their ability to address broader topics. Second, because the reviewing process is often conducted manually, the number of articles included in literature reviews is typically small (roughly 40–300 articles) to keep the reviewing process manageable. Third, the identification of themes in literature reviews relies on qualitative techniques, which can introduce interpretation bias into the conclusions.
Bibliometric analysis, which relies on quantitative methods, can address the limitations of traditional literature reviews by providing a broad overview of the research landscape and complementing the depth offered by literature reviews. The automated tools and algorithms used in bibliometric analysis can process vast amounts of data quickly, whereas literature reviews are often time-consuming and labor-intensive. As the volume of published research grows, bibliometric analysis remains scalable, whereas literature reviews may become increasingly impractical. Bibliometric analysis uses quantitative data, such as citation counts, the h-index, impact factors, and coauthorship networks, to provide objective measures of the influence and reach of studies. Consequently, bibliometric analysis has gained popularity across various disciplines in recent years, e.g., [25,26]. This increased popularity can be attributed to (1) the availability of metadata from databases such as the Web of Science and Scopus, and (2) computer programs like VOSviewer and Gephi, which facilitate bibliometric analysis [24].
Bibliometric analysis encompasses a variety of techniques, which can be categorized into two major types: performance analysis and science mapping. Performance analysis evaluates the research output and impact of different entities, such as individual researchers, institutions, journals, and countries. Science mapping, also known as scientific visualization, reveals the structural and dynamic aspects of scientific research. Which of these analyses a study uses depends on the research questions of interest.
For example, Oladinrin et al. [27] conducted a bibliometric analysis of the literature on aging in place, focusing mainly on performance analysis. Although their study included co-occurrence analysis—a component of science mapping—they did not identify themes in their data, which limited the scope of their contribution. In contrast, Seo and Lee’s [28] bibliometric study of aging in place incorporated both performance analysis and science mapping. However, their analysis was limited to residential environments. Although residential spaces are a crucial aspect of aging in place, it could be argued that the study may not have included other important factors, such as policies and communities. A bibliometric study that included such topics would provide a more comprehensive understanding of the literature.
Thus, considering all the factors that influence aging in place and employing appropriate types of analysis are crucial for creating a comprehensive and meaningful map of the scientific landscape of aging-in-place literature. The gaps in the existing research outlined above prompted the current paper.
This study provides a comprehensive map of the scientific landscape of aging-in-place literature. Accordingly, the study’s research questions are as follows:
  • What are the leading countries, institutions, and journals in the field of aging in place?
  • What are the central publications in the citation network of aging-in-place research?
  • What are the most frequently occurring keywords, and how are they interconnected?
  • How do these keywords evolve over time?
  • What are the major themes in the literature on aging in place?
By using a dataset that is larger than that employed by previous studies and by not limiting the scope of the research, this study provides the most comprehensive map of the aging-in-place literature to date.

2. Materials and Methods

2.1. Identifying Relevant Publications

To identify relevant articles, a search was conducted in the Web of Science Core Collection. This database was selected over others (such as Scopus and OpenAlex) because it yielded more relevant articles and offered more complete metadata (e.g., author-provided keywords). Various forms of the term aging in place (e.g., ageing in place and aging-in-place) were used to search in the title and author-provided-keywords fields. No restrictions were applied to this search (i.e., regarding time, geography, or document type) other than English as the document language.
The search, conducted in July 2024, yielded 3240 records published between 1908 and 2023. Some of these records were unrelated to the topic of aging in place. To streamline the review process, we did not manually screen the records for relevance. Instead, we used VOSviewer 1.6.20, a bibliometric software tool developed by van Eck and Waltman [29], to identify relevant papers and potential outliers. This automated method made the review process more manageable by eliminating the need for manual screening of all identified records.
VOSviewer 1.6.20 [29] provides five analysis methods for determining the relatedness of items (e.g., keywords, countries, and papers): (1) coauthorship analysis, (2) co-occurrence analysis, (3) citation analysis, (4) bibliometric coupling analysis, and (5) co-citation analysis. For an overview of these bibliometric-analysis techniques and examples of each, see Donthu et al. [24]. The current paper used citation analysis and co-occurrence analysis, which the following section explains.

2.2. Data Analysis

To identify the leading countries, institutions, and journals, three metrics were used: (1) total publications (TP), (2) total citations (TC), and (3) the average impact of each publication (TC/TP). Bibliometric studies often use TP as a metric of productivity. TC can indicate scholarly influence or impact. TC/TP is more normalized than TC and allows for comparisons that consider both quality and quantity of output; TC/TP can highlight entities that produced fewer but more influential papers. Using these metrics, the leading countries, institutions, and journals were ranked.
Citation analysis was used to determine the leading publications in the field of aging in place. In citation analysis, the relatedness of publications is determined based on the number of times they cite each other. This number is called the link count. Accordingly, publications with a higher link count are more central in the citation network than those with lower link counts. Using this method of analysis, outliers were filtered out, because irrelevant publications that found their way into the dataset would not have links with the publications on aging in place. Accordingly, the 20 most central publications in the citation network of aging in place were ranked.
For keyword analysis, five types of analysis were performed: (1) identifying the most frequently occurring keywords, (2) examining temporal variability in keywords, (3) graphical network mapping of keywords, (4) identifying clusters of keywords, and (5) identifying the most frequently occurring keywords in each cluster. Before conducting any of these analyses, the data from the Web of Science were cleaned by creating a thesaurus that enabled the use of one term for multiple forms of the same keyword (e.g., different spellings or singular and plural forms) or concept (e.g., adolescence and adolescent). Some general terms, such as the names of countries and research methods (e.g., literature review), were removed from the analysis.
For the examination of temporal variability in keywords, the most frequently occurring keywords in three time periods were examined to identify the evolution of research foci in the literature: 2010–2014, 2015–2019, and 2020–2024. These time periods were selected through several cycles of refinement; these iterations led to the identification of time frames that resulted in a sufficient number of keywords on the topic of aging in place, which enabled a meaningful temporal analysis.
For the graphical network mapping of keywords, co-occurrence analysis was performed in VOSviewer 1.6.20 [29]. In this paper’s co-occurrence analysis, the unit of analysis was the keywords provided by the authors of the identified publications. The graph consists of nodes and links. The size of the nodes represents the frequency of keyword occurrence, and a line between the nodes indicates that those keywords were mentioned together in a document. The thickness of the lines represents the number of instances of co-occurrence (i.e., the strength of the link); the greater the number of co-occurrences, the thicker the line. To enhance the readability of the diagram, the number of lines shown can be adjusted by focusing on the links with the highest link strengths. Hence, the lack of a visual link between two nodes in the diagram may not necessarily indicate the absence of an actual link. The distance between any two nodes reflects the similarity or relatedness of the items. VOSviewer 1.6.20 [29] applies a clustering algorithm to the network. This algorithm is based on the idea of maximizing a modularity-based quality function. The algorithm iteratively adjusts the assignment of keywords to clusters to maximize the quality function, resulting in a partition of keywords into clusters. Different clusters are indicated using different colors, making it easier to identify and interpret the clusters in the visual representation.
Lastly, to facilitate the qualitative analysis of each cluster, the most frequently occurring keywords in each cluster were ranked. Using the graphical network mapping of keywords and the ranking of keywords in each cluster, a theme was assigned to each cluster.

3. Results

3.1. Leading Countries

Table 1 presents the 10 leading countries ranked according to productivity, measured by TP. The United States ranked first, followed by Canada, England, and China. To assess the impact of the published papers, two measures were used: TC and TC/TP. Based on the TC metric, the United States ranked first, followed by Canada, England, and Australia. However, based on the TC/TP metric, New Zealand ranked highest, followed by Russia, the Netherlands, and England.

3.2. Leading Institutions

Table 2 presents the 20 leading institutions ranked by productivity (TP), research impact (TC), and the average impact of each publication (TC/TP). The University of Missouri, the University of Michigan, and the University of Toronto led in terms of TP on the topic of aging in place.
In terms of impact (TC), the University of Auckland, Tilburg University, and the University of Missouri ranked at the top. In terms of TC/TP, the University of Utrecht, Tilburg University, and the University of Auckland ranked highest.

3.3. Leading Journals

Table 3 shows the 10 leading journals on the topic of aging in place based on productivity (TP). The top three journals in terms of productivity were The Gerontologist, followed by the Journal of Aging and Environment (formerly known as the Journal of Housing for the Elderly) and the International Journal of Environmental Research and Public Health.
Some journals in Table 3 are relatively new, which affects their citation counts and average impact per publication (TC/TP). For example, Innovation in Aging, launched in 2017, has a significantly lower average impact per publication (TC/TP) compared to older journals like The Gerontologist, which was established in 1961.
In terms of impact (TC), The Gerontologist ranked highest, followed by the International Journal of Medical Informatics and Ageing & Society (Table 4). With respect to average impact per publication (TC/TP), the International Journal of Medical Informatics, Social Science and Medicine, and Health and Social Care in the Community were the leading journals (Table 5).

3.4. Central Publications

Using citation analysis, the relatedness of papers was determined based on the number of times they cited each other. Subsequently, papers were ranked based on the number of links they had in the citation network. Table 6 lists the top 20 papers.
At the top of this list was a paper by Wiles et al. [8] published in The Gerontologist, which was ranked as the leading journal on the topic of aging in place in terms of both productivity and impact (see Table 3 and Table 4). Using qualitative methods (i.e., focus groups and interviews), Wiles et al. [8] explored the meaning of aging in place and elderly individuals’ perspectives on the ideal place to do so in New Zealand. Wiles coauthored two other papers [30,31] that ranked among the 20 most central publications (Table 6).
Four of the papers listed in Table 6 were literature reviews [20,21,22,23]; these papers could serve as sources for a more in-depth exploration of the topic. For example, the second paper on the list was a systematic literature review by Peek et al. [22], published in the International Journal of Medical Informatics (the second most influential journal on the topic). That paper reviewed factors that play a role in the acceptance of technologies used to support aging in place. Another paper coauthored by Peek [32], which ranked 16th among the top 20 papers, explored the use of technologies to support aging in place in the Netherlands. Two of the other papers listed in Table 6, including another literature review, explored the use of technology to support aging in place [18,20].
Table 6. The 20 most central publications in the citation network of aging-in-place research.
Table 6. The 20 most central publications in the citation network of aging-in-place research.
RankCitationPublication TitleLinks CountTC
1[8]The meaning of “aging in place” to older people25984
2[22]Factors influencing acceptance of technology for aging in place: A systematic review20603
3[31]Geographical Gerontology: The constitution of a discipline20146
4[33]The process of mediated aging-in-place: A theoretically and empirically based model15193
5[23]Definitions, key themes and aspects of ‘ageing in place’: A scoping review1597
6[34]Moving beyond ‘ageing in place’: Older people’s dislikes about their home and neighbourhood environments as a motive for wishing to move1592
7[35]Ageing in place in the United Kingdom14221
8[30]Re-spacing and re-placing gerontology: Relationality and affect14100
9[18]Ageing-in-place with the use of ambient intelligence technology: Perspectives of older users13161
10[36]Conducting research on home environments: Lessons learned and new Directions12202
11[37]Safe as houses? Ageing in place and vulnerable older people in the UK11109
12[38]Older people’s decisions regarding ‘ageing in place’: A Western Australian case study1194
13[39]Aging in place and the places of aging: A longitudinal study1163
14[10]The ideal neighbourhood for ageing in place as perceived by frail and non-frail community-dwelling older people1076
15[14]Photovoicing the neighbourhood: Understanding the situated meaning of intangible places for ageing-in-place1051
16[32]Older adults’ reasons for using technology while aging in place9270
17[21]The quality of life of older people aging in place: A literature review9127
18[12]Aging in place: From theory to practice9114
19[20]Smart homes and home health monitoring technologies for older adults: A systematic review8352
20[40]The impact of age, place, aging in place, and attachment to place on the well-being of the over 50s in England8124
Note. TC = total citations

3.5. Keyword Analysis

This section reports three types of keyword analysis: (1) analysis of the most frequently occurring author-provided keywords, (2) analysis of the temporal evolution of author-provided keywords, and (3) network analysis and analysis of clusters of author-provided keywords.

3.5.1. Most Frequently Occurring Author-Provided Keywords

In the co-occurrence analysis, which was performed in VOSviewer 1.6.20 [29], the relatedness of keywords provided by the papers’ authors was determined based on the number of documents in which they co-occurred. After multiple iterations, a minimum occurrence value of 8 was selected; this value resulted in a manageable number of keywords and clear, meaningful clusters. The LinLog/modularity normalization method was chosen, because it results in more distinct clusters in the keyword–network layout. The clustering resolution was increased from the default value of 1 to that of 1.07 to enhance the distinctions between closely related clusters. This process resulted in the identification of the 40 most frequently occurring author-provided keywords (Table 7) and a keyword network with five clusters (Figure 1).
Five major themes emerged from the qualitative examination of the 40 most frequently occurring author-provided keywords. First, two primary groups of people were evident in the list: elderly people and caregivers. Second, aging-friendly environments were discussed at various levels, including homes, communities, and cities. Third, the keywords pointed to health conditions that pose challenges for aging in place, including dementia, disabilities, frailty, and the risk of falls. Fourth, a prominent theme was the use of technology to support aging in place. Lastly, the keywords indicated potential outcomes, such as healthy aging, high quality of life, well-being, independent living, and place attachment.

3.5.2. Temporal Evolution of Author-Provided Keywords from 2010 to 2024

To examine the evolution of studies of aging in place, keywords were grouped according to their frequency of occurrence in three time periods: 2010–2014, 2015–2019, and 2020–2024 (Table 8). These time periods were selected through several cycles of refinement; these iterations led to the identification of time frames that resulted in a sufficient number of keywords on the topic of aging in place, which enabled a meaningful temporal analysis. Keywords from before 2010 were excluded from the analysis because their quantity was insufficient.
Figure 2 shows how the ranking of keywords changed over time. The first three keywords—aging in place, elderly, and aging—maintained their ranking at the top of the list over time, because they are general terms central to the topic of aging in place.
Over time, general terms moved down in the rankings, whereas more specific terms rose to the top. For example, the keyword home, which was among the top 20 keywords in 2010–2014, was not present in the later periods. Instead, the term smart homes appeared, indicating a focus on the integration of technology into home environments. Another example was the term place; it had been absent from the top 20 keywords since 2015, but place attachment emerged in 2020–2024.
Two terms that rose significantly in prominence over time were neighborhood and age-friendly cities and communities. This trend suggested a shift toward considering settings for successful aging in place that extended beyond the home environment. The ranking of the keyword dementia underwent a notable increase over time. Additionally, the rising ranking of keywords like well-being and healthy aging from 2020 to 2024 indicated a growing focus on the overall well-being of older adults.

3.5.3. Keyword Networks and Clusters of Author-Provided Keywords

Figure 1 illustrates the keyword network, representing each cluster with a different color. The size of the nodes corresponds to the frequency of keyword occurrences, and the lines between nodes indicate that those keywords were mentioned together in a document. The thickness of the lines represents the strength of the link; the thicker the line, the stronger the link. For enhanced readability, the figure shows only the top 200 lines in terms of link strength. Identifying the 10 most frequently occurring keywords in each cluster (see Table 9) facilitated the qualitative analysis of each cluster. The following paragraphs provide a detailed discussion of each cluster.
Cluster 1: Aging-in-Place Facilitators. The first cluster, shown in green in Figure 1, included keywords related to factors that facilitate aging in place. These factors included technology, home modifications, informal care, and home care. They were associated with conditions that elderly individuals may face as they age, such as dementia, disability, and the risk of falls.
Cluster 2: Age-Friendly Communities. The second cluster, highlighted in red in Figure 1, focused on age-friendly communities and cities. The key terms in this cluster included place attachment, sense of place, belonging, and social support. Additionally, this cluster featured prominent keywords related to the positive outcomes of aging in place, such as quality of life, healthy aging, active aging, physical activity, and health promotion.
Cluster 3: Housing. The third cluster, highlighted in blue in Figure 1, focused on housing and homes. Two major themes emerged from this cluster: (1) relocation, which encompassed migration, and (2) health, including mental health.
Cluster 4: Assistive Technologies. Cluster 4, highlighted in yellow in Figure 1, focused on the use of technologies to support aging in place and elder care. The key terms in this cluster included smart homes, ambient assisted living, assistive technologies, gerontechnology, and the Internet of things. Notably, the inclusion of technology acceptance and technology adaptation as keywords indicated that, although these technologies can significantly enhance the independence, well-being, and overall quality of life of older adults, their minimal acceptance by the elderly population remains a crucial issue, e.g., [22].
Cluster 5: Mental Health. The fifth cluster, highlighted in purple in Figure 1, focused on mental health, encompassing concepts such as loneliness, living alone, social isolation, and depression.

4. Discussion

This study maps the scientific landscape of the literature on aging in place through a bibliometric analysis. The results highlight the multifaceted nature of aging in place, emphasizing the need for a multidisciplinary approach to understanding and addressing the diverse factors influencing successful aging in place. The study identifies key research areas, leading countries, institutions, and journals, central publications, and the temporal evolution of themes in the literature. These findings offer valuable insights into the current state of research and suggest several critical considerations for future work.
In our network analysis of the research on aging in place, we identify five major research-area clusters, each characterized by prevailing keywords and their interconnections. We label these clusters based on their dominant keywords as follows: (1) aging-in-place facilitators, (2) age-friendly communities, (3) housing, (4) assistive technologies, and (5) mental health.
As individuals age, their ability to perform activities of daily living (ADL) independently can decline [41] due to physical [42] and cognitive limitations [43]. This makes caregiving an important factor in aging in place, which is also evident in Figure 1, as it is central to the aging-in-place facilitators cluster (cluster 1). For instance, Vreugdenhil [44] identified dementia, caregiving, and informal care as critical concerns related to aging. Caregiving can range from formal arrangements, like long-term care facilities to informal support through home care e.g., [45].
Both caregiving and the home environment impact successful aging in place [19]. To that end, creating a barrier-free environment is essential, making home modifications a critical strategy to ensure universal design [46]—an idea that connects the aging-in-place facilitators cluster to the housing cluster. Evidence shows that such home modifications can lead to longer stays in one’s home, thereby supporting aging in place [13].
Technology is another important facilitator, enabling tools like telehealth [47]. As shown in Figure 1, keywords such as telehealth and telecare connect the aging-in-place facilitators and assistive technologies clusters, emphasizing the role of technology in supporting independent living and providing care [48]. Technologies can help with early illness detection [49], fall and emergency detection through sensors [50], and assistance from robots [51]. However, several factors, such as age, education level, and whether individuals live alone, can influence the acceptance of technology by older adults, as highlighted by Chimento-Diaz et al. [52].
Formal care is also essential in supporting older adults, with long-term care emerging as a key concept in the mental health cluster. Studies indicate that long-term care facilities can lead to negative outcomes, including loneliness [53], social isolation [54], and depression [55]. On the other hand, Bolton and Dacombe [4] investigated how social isolation can impact health among older adults who are aging in place. Their study emphasized that aging in place can increase the risk of social isolation, which may in turn lead to various health problems.
The keywords mental health and health promotions bridge the housing and mental health clusters. This connection is logical, as promoting aging in place—allowing elderly individuals to remain in their homes rather than transitioning to long-term care facilities—can have a positive impact on their health [56]. Studies show that elderly individuals prefer to remain in their homes [8], where they feel a sense of belonging and attachment. For example, Muszyński [57] examined various aspects of housing and found that the home environment reflects multiple dimensions of an older person’s identity, including physical, biographical, aesthetic, and axiological dimensions. The study highlighted two key aspects of place: (1) objects collected by older adults and (2) activities in which they engage in their homes.
The housing cluster connects with the assistive technologies cluster via keywords like smart homes e.g., [58]. However, they appear distantly related in Figure 1, indicating limited overlap between these research areas.
Cluster 2, titled age-friendly communities, is closest to the housing cluster since both pertain to built environments at different scales. This suggests that age-friendly environments require planning at various levels, from urban [59] to home scales [60], to create a supportive fit between individuals and their environments [39]. The place attachment theory can explain the positive effects of such environments [12,61]. Lewis and Buffel [39] explored how place attachment and the sense of belonging in neighborhoods evolve over time for individuals who are aging in place. The study found that these feelings can vary widely among people based on their personal circumstances and changes in their community.

4.1. Limitations

This study has three major limitations. First, it relies solely on the Web of Science database. While comprehensive, the Web of Science may not include all relevant studies, and our review may thus have left some out of the analysis. For example, PubMed is frequently used in medical fields, and excluding it could lead to omitting relevant studies. However, because this study encompasses 3240 records, and most high-quality literature in PubMed is also indexed in the Web of Science, it is reasonable to assume that the study provides representative coverage of the main topics.
Second, it is possible that some irrelevant studies were included among the identified publications. However, the use of co-occurrence analysis, which assesses the relevance of studies based on the co-occurrence of keywords in the same document, mitigates this problem. Because keywords unrelated to aging in place are less likely to appear with relevant keywords, co-occurrence analysis reduces the inclusion of irrelevant studies.
Third, bibliometric analysis does not reveal the direction of relationships or indicate causal connections between nodes. Therefore, it should be used as a complementary method alongside a traditional literature review [24].

4.2. Conclusions

This study provides an overview of the landscape of the literature on aging in place, identifying key research areas, influential publications, and evolving trends. The findings highlight the importance of a multidisciplinary and holistic approach to supporting aging in place that encompasses its physical, cognitive, social, and technological dimensions as well as the built environment in which aging in place occurs. By leveraging the insights enabled by this study’s scientific map, future multidisciplinary research can contribute to the development of holistic and effective strategies that allow older adults to age in place with dignity and a high quality of life.

Author Contributions

Conceptualization, S.J. and S.H.; methodology, S.J. and S.H.; formal analysis, S.J. and S.H.; data curation, S.J.; writing—original draft preparation, S.J. and S.H.; writing—review and editing, S.J. and S.H.; visualization, S.H. All authors have read and agreed to the published version of the manuscript.

Funding

The publication fees for this article were supported by the UNLV University Libraries Open Article Fund.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

The raw data supporting the conclusions of this article will be made available by the authors on request.

Conflicts of Interest

The authors declare no conflicts of interest.

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Figure 1. The keyword network visualization, with five clusters, was created using VOSviewer 1.6.20. Each cluster is represented by a different color. This network is based on the co-occurrence analysis of the keywords provided by the authors. The size of the nodes represents the frequency of keyword occurrence, and a line between the nodes indicates that those keywords were mentioned together in a document. The thickness of the lines represents the number of instances of co-occurrence (i.e., the strength of the link); the greater the number of co-occurrences, the thicker the line.
Figure 1. The keyword network visualization, with five clusters, was created using VOSviewer 1.6.20. Each cluster is represented by a different color. This network is based on the co-occurrence analysis of the keywords provided by the authors. The size of the nodes represents the frequency of keyword occurrence, and a line between the nodes indicates that those keywords were mentioned together in a document. The thickness of the lines represents the number of instances of co-occurrence (i.e., the strength of the link); the greater the number of co-occurrences, the thicker the line.
Jal 04 00030 g001
Figure 2. Temporal evolution of author-provided keywords from 2010 to 2024. NORC = naturally occurring retirement community; ADL = activities of daily living; AAL = ambient assisted living.
Figure 2. Temporal evolution of author-provided keywords from 2010 to 2024. NORC = naturally occurring retirement community; ADL = activities of daily living; AAL = ambient assisted living.
Jal 04 00030 g002
Table 1. The 10 leading countries ranked according to productivity (TP).
Table 1. The 10 leading countries ranked according to productivity (TP).
RankCountryTPTCTC/TP
1USA130519,56915.00
2Canada347673119.40
3England243611925.18
4China209213610.22
5Australia206292014.17
6The Netherlands153399226.09
7Sweden117163713.99
8Germany78104913.45
9South Korea7784210.94
10Taiwan6969510.07
Note. TP = total publications; TC = total citations; TC/TP = average impact of each publication.
Table 2. The 20 leading institutions ranked by productivity (TP), research impact (TC), and the average impact of each publication (TC/TP).
Table 2. The 20 leading institutions ranked by productivity (TP), research impact (TC), and the average impact of each publication (TC/TP).
RankProductivity Impact Average Impact of Each Publication
InstitutionTPInstitutionTCInstitutionTC/TP
1Univ. Missouri59Univ. Auckland1656Univ. Utrecht83.10
2Univ. Michigan55Tilburg Univ.1411Tilburg Univ.74.26
3Univ. Toronto49Univ. Missouri1142Univ. Auckland66.24
4Simon Fraser Univ.47Univ. Montreal1128Fontys Univ. Applied Sci.63.33
5Univ. Maryland47National Univ. Singapore997Univ. Montreal56.40
6Johns Hopkins Univ.35Simon Fraser Univ.976Univ. Kansas46.30
7Univ. Illinois35Univ. Michigan872Manchester Metropolitan Univ.43.45
8Univ. Hong Kong33Univ. Utrecht831National Univ. Singapore39.88
9Univ. Wisconsin33Univ. Toronto825Harvard Univ.36.79
10Lund Univ.32Univ. Maryland812Swansea Univ.35.20
11Univ. California Berkeley32Fontys Univ. Applied Sci.760Newcastle Univ.35.00
12Univ. Pennsylvania32Newcastle Univ.735Georgia Inst. Tech.33.65
13Washington Univ.32Johns Hopkins Univ.693Eindhoven Univ. Tech.33.15
14Hong Kong Polytech Univ.31Maastricht Univ.644Univ. Alberta31.79
15Maastricht Univ.29Univ. California Berkeley616Oregon Health & Sci. Univ.31.27
16Northwestern Univ.29Univ. Alberta604Goethe Univ. Frankfurt29.82
17Univ. Florida28Lund Univ.584Univ. Ghent29.30
18Queens Univ.26Texas A&M Univ.576Open Univ.28.38
19Karolinska Inst.25Univ. Florida573Texas A&M Univ.27.43
20National Univ. Singapore25Georgia Inst. Tech.572Thomas Jefferson Univ.26.09
Note. TP = total publication; TC = total citation; TC/TP = average impact of each publication; Univ. = University; Inst. = Institute; Sci. = Science; Tech. = Technology.
Table 3. The 10 leading journals on the topic of aging in place based on productivity (TP).
Table 3. The 10 leading journals on the topic of aging in place based on productivity (TP).
RankJournalTPTCTC/TP
1Gerontologist269339512.62
2Journal of Aging and Environment a109136112.49
3IJERPH80112114.01
4Innovation in Aging73360.49
5Ageing & Society60159526.58
6Journal of the American Geriatrics Society5658110.38
7Journal of Applied Gerontology4870914.77
8BMC Geriatrics4347010.93
9Journal of Aging Studies42105925.21
10Journal of Gerontological Social Work2842815.29
Note. TP = total publications; TC = total citations; TC/TP = average impact of each publication; IJERPH = International Journal of Environmental Research and Public Health.
a The Journal of Aging and Environment was formerly titled the Journal of Housing for the Elderly.
Table 4. The 10 leading journals on the topic of aging in place based on impact (TC).
Table 4. The 10 leading journals on the topic of aging in place based on impact (TC).
RankJournalTCTPTC/TP
1Gerontologist339526912.62
2International Journal of Medical Informatics165611150.55
3Ageing & Society15956026.58
4Journal of Aging and Environment a136110912.49
5IJERPH11218014.01
6Health & Social Care in the Community10862347.22
7Journal of Aging Studies10594225.21
8Social Science & Medicine9962147.43
9Journal of Applied Gerontology7094814.77
10Ageing International6072623.35
Note. TP = total publications; TC = total citations; TC/TP = average impact of each publication; IJERPH = International Journal of Environmental Research and Public Health.
a The Journal of Aging and Environment was formerly titled the Journal of Housing for the Elderly.
Table 5. The 10 leading journals on the topic of aging in place based on average impact of each publication (TC/TP).
Table 5. The 10 leading journals on the topic of aging in place based on average impact of each publication (TC/TP).
RankJournalTC/TPTPTC
1International Journal of Medical Informatics150.55111656
2Social Science & Medicine47.4321996
3Health & Social Care in the Community47.22231086
4PLOS one33.1916531
5Research on Aging28.8520577
6Clinical Interventions in Aging28.4010284
7Journal of Rural Studies28.3813369
8Cities28.2313367
9Ageing & Society26.58601595
10Archives of Gerontology and Geriatrics25.9418467
Note. TP = total publications; TC = total citations; TC/TP = average impact of each publication.
Table 7. The 40 most frequently occurring author-provided keywords.
Table 7. The 40 most frequently occurring author-provided keywords.
RankKeywordOccurrencesTotal Link Strength
1Aging in place10822157
2Elderly5891393
3Aging268624
4Environment104289
5Dementia101243
6Housing94271
7Smart homes75209
8Tech.75253
9Wellbeing72188
10AAL71188
11Long-term care67138
12Neighborhood66186
13Communities59181
14Home59169
15Quality of life57153
16Assistive tech.54161
17Age-friendly cities and communities53131
18ADL50130
19Home modifications50142
20Independent living50152
21Aged4492
22Disabilities4388
23Frailty41102
24Health40114
25Healthy aging39103
26Place3973
27Fall3895
28Assisted living37101
29Place attachment3573
30Rural3588
31Gerontechnology34123
32Home care3393
33Nursing homes3382
34Caregivers3296
35Internet of things31106
36Accessibility3081
37COVID-193083
38Design3073
39Seniors3071
40Community dwelling2981
Note. ADL = activities of daily living; AAL = ambient assisted living; Tech. = technology. Link strength is the number of publications in which two terms occur together. The total link strength is the sum of the strengths of all links an item has with other items in the network. It provides an overall measure of an item’s connectivity and its importance within the network.
Table 8. The 20 most frequently occurring author-provided keywords in three time periods: 2010–2014, 2015–2019, and 2020–2024.
Table 8. The 20 most frequently occurring author-provided keywords in three time periods: 2010–2014, 2015–2019, and 2020–2024.
RankYears 2010–2014 Years 2015–2019 Years 2020–2024
KeywordOcc.KeywordOcc.KeywordOcc.
1Aging in place176Aging in place310Aging in place513
2Elderly47Elderly99Elderly182
3Aging25Aging47Aging65
4Housing14AAL23Housing30
5Environment11Housing16Dementia29
6AAL9Environment14Environment28
7Home9Technology14Technology26
8Technology9Assistive tech.13Smart homes25
9Aged8Communities13Communities24
10Assisted living8Dementia13Neighborhood24
11Communities8Independent living13Age-friendly cities and communities23
12Dementia8Smart homes13Wellbeing23
13Assistive tech.7ADL12Healthy aging22
14NORC7Quality of life12Home modification21
15Telecare7Neighborhood11Independent living19
16Design6Rural11COVID-1918
17Home modification6Social support11ADL17
18Long-term care6Frailty10Assistive tech.17
19Neighborhood6Age-friendly cities9Place attachment17
20Place6Health9Long-term care16
Note. Occ. = occurrences; NORC = naturally occurring retirement community; ADL = activities of daily living; AAL = ambient assisted living; Tech. = technology.
Table 9. The 10 most frequently occurring author-provided keywords in each cluster.
Table 9. The 10 most frequently occurring author-provided keywords in each cluster.
RankCluster 1Cluster 2Cluster 3Cluster 4Cluster 5
KeywordKeywordKeywordKeywordKeyword
1DementiaAging in placeAgingSmart homesLong-term care
2Tech.ElderlyHousingAALAssisted living
3Home modificationEnvironmentHomeAssistive tech.Nursing homes
4ADLWellbeingHealthIndependent livingLoneliness
5AgedNeighborhoodPlaceGerontechnologyLiving alone
6DisabilitiesCommunitiesRuralInternet of thingsSocial capital
7FrailtyQuality of lifeMental healthDesignTelecare
8FallAge friendly citiesRelocationSeniorsSocial isolation
9Home careHealthy agingSocial participationHealthcareDepression
10CaregiversPlace attachmentMigrationTech. acceptanceFrail elderly
Note. ADL = activities of daily living; AAL = ambient assisted living; Tech. = technology.
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Jamshidi, S.; Hashemi, S. The Scientific Landscape of the Aging-in-Place Literature: A Bibliometric Analysis. J. Ageing Longev. 2024, 4, 417-432. https://doi.org/10.3390/jal4040030

AMA Style

Jamshidi S, Hashemi S. The Scientific Landscape of the Aging-in-Place Literature: A Bibliometric Analysis. Journal of Ageing and Longevity. 2024; 4(4):417-432. https://doi.org/10.3390/jal4040030

Chicago/Turabian Style

Jamshidi, Saman, and Seyedehnastaran Hashemi. 2024. "The Scientific Landscape of the Aging-in-Place Literature: A Bibliometric Analysis" Journal of Ageing and Longevity 4, no. 4: 417-432. https://doi.org/10.3390/jal4040030

APA Style

Jamshidi, S., & Hashemi, S. (2024). The Scientific Landscape of the Aging-in-Place Literature: A Bibliometric Analysis. Journal of Ageing and Longevity, 4(4), 417-432. https://doi.org/10.3390/jal4040030

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