Open access peer-reviewed chapter

The Focus and Trends of Digital Transformation in Higher Education: A Bibliometric Analysis Based on Web of Science 2014–2024

Written By

Ailing Tian and Jian-Hong Ye

Submitted: 15 May 2025 Reviewed: 07 July 2025 Published: 16 August 2025

DOI: 10.5772/intechopen.1011910

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Abstract

With the advancement of digital technology, higher education institutions around the world are undergoing digital transformation. These digital technologies have profoundly affected the teaching model, learning methods, and student experience in the field of higher education. By using the Citespace software to conduct bibliometric analysis of the 2014–2024 SSCI and SCI core collections in the Web of Science database, this paper aims to detect the research frontiers, hotspots, and future trends of international higher education in the digital era. According to the search formula, this paper mainly analyzes 2109 articles. The descriptive results show that six scholars from the United States are highly cited authors, and five highly cited documents lay the foundation of knowledge in this field. Research hotspots mainly include digital teaching technology, digital teaching models, education quality, and learner development. Research frontiers mainly involve distance education, teaching/learning strategies, flipped classroom, intention, mobile learning, identity, and support. Although research in this field is taking on diverse directions, the conclusions reflect a lack of critical reflection on the pedagogical and ethical implications by scholars, as well as a weak pedagogical perspective in the research.

Keywords

  • bibliometrics
  • digital education
  • higher education
  • research trends
  • research hotspots
  • WOS database

1. Introduction

In recent years, higher education institutions around the world have experienced rapid and influential changes due to technological advances and the trend toward digitalization of social development. As an important part of the education system, higher education institutions, with their core position in knowledge production and dissemination, not only actively guide the knowledge dissemination and social changes triggered by digital technology but also are profoundly shaped in reverse by them. This change is caused by the following factors: The migration of knowledge dissemination subjects from traditional institutions to digital platforms, the reconstruction of teaching interaction paradigms by social media and big data, the change of resource supply models by MOOCs and open educational resources, and the reshaping of learning experiences by educational games and collaboration tools [1]. In the field of international higher education, digital technology is seen as a means of providing high-quality teaching resources, offering blended learning approaches, and improving the student experience [2]. However, it is worth noting that despite the continuous pressure for change brought about by advanced digital technologies, most higher education institutions have still failed to fully and appropriately utilize this technology to promote the transformation of teaching methods. Some traditional higher education institutions have shown difficulties in adapting in the digital age [3].

Educators can design more engaging learning experiences by experimenting with digital technology. This innovative use of technology will benefit both teachers and students. By continually exploring new ways to teach, educators can develop better, more cutting-edge teaching methods that enhance learning and promote active student engagement [4]. Higher education institutions are no longer a physical space for disseminating information and knowledge, and students can receive support and assistance from higher education institutions through technology platforms [5]. During this process, higher education institutions need to achieve profound changes in three aspects: innovating the ways of service provision and financial support, optimizing the digitalization of administrative processes, and completely transforming the ways of teaching and learning [6].

Currently, in terms of infrastructure, digital technology in higher education manifests itself in various forms. Learning portals and digital services serve as essential tools to meet contemporary educational practices and demands [7]. Secondly, from a pedagogical perspective, the widespread use of digital technology in higher education has facilitated the creation of digitally formatted teaching resources, which have become the primary means of delivering online education [8]. Therefore, the core objective of digital transformation in higher education extends beyond ensuring the smooth implementation of educational processes—it should also focus on building a dynamic platform that integrates innovation and development. By systematically incorporating cutting-edge scientific advancements and high-quality educational resources, digital transformation can effectively facilitate the implementation of cross-institutional collaborative projects and promote the co-creation of online platforms for science and education. This shift holds profound implications for advancing educational equity: on one hand, it lowers barriers to learning through the democratization of open educational resources; on the other, it dismantles information silos by leveraging digital environments, enabling global knowledge sharing, and offering new pathways to reduce educational disparities in society [9].

Presently, a large number of research results have been accumulated in the field of digital higher education, covering a variety of dimensions such as technology application, teaching mode, and learning experience. However, these studies are characterized by fragmentation and lack of systematic sorting of the overall knowledge network, especially the integration and analysis of research focus and future direction of the research field are still blank. Based on this, this study focuses on the progress of international higher education research in the digital era from 2014 to 2024. By systematically combing through the relevant literature, it aims to explore the following questions:

  1. What kind of distribution characteristics does the knowledge base of digital higher education research present, such as major journals, highly cited authors, highly cited articles, and so on?

  2. What are the current hot areas and key directions of digital higher education research?

  3. What are the future development trends of digital higher education research?

By answering the three questions, this research has the following main contributions to the academic community: Firstly, subsequent researchers were able to clearly grasp the key themes of the digital transformation of global higher education during the decade from 2014 to 2024, including some digital teaching models and digital teaching technologies; secondly, this study analyzed the future development direction of digital higher education research, which can provide a reference for the education departments of various countries to formulate digital transformation policies and goals.

2. Data sources and research methods

2.1 Data sources and analysis

The Social Sciences Citation Index (SSCI) and Sciences Citation Index (SCI) databases of Web of Science were selected as the data retrieval platform to search for research literature on international higher education in the context of the digital age. The search terms were “Digital Age” and “Higher Education.” The time span was from January 1, 2014 to December 31, 2024, and the document type was Article. A total of 7386 documents were retrieved. After further screening the article language as English and the research field as Education Educational Research, and deduplication and cleaning in CiteSpace software, a total of 2109 research documents were obtained. The literature search formula for this study is as follows:

((TS = ((“higher education” OR “tertiary education”)) AND TS = ((“digitalization” OR “digitization” OR “digital transformation” OR “educational technology” OR “e-learning” OR “online education” OR “ICT in education” OR “blended learning” OR “online learning” OR “flipped classroom” OR “metaverse” OR “virtual reality” OR “augment reality” OR “artificial intelligence”))))

In terms of time, overall, during the period 2014–2024, the research literature on international higher education in the context of the digital age generally showed a steady growth trend. Specifically, from 2014 to 2018, the number of publications increased slowly year by year, from 62 to 105. However, starting in 2019, the number of publications in this field increased significantly and peaked in 2024 at 388. Overall, research in the field of higher education has received increasing attention in the context of the digital age, and the number of publications has increased year by year, and this trend is expected to continue in the future.

In terms of the distribution of source publications, there are 158 SSCI journals and SCI journals that are sources of international higher education research in the context of the digital age, and the journals are widely distributed. Among these, the journals with more than 50 publications are as follows: 322 articles from Education and Information Technologies, accounting for 15%; 115 articles from Interactive Learning Environments, accounting for 5%; 111 articles from International Review of Research in Open and Distributed Learning, accounting for 5%; 103 articles from Australasian Journal of Educational Technology, accounting for 5%; 97 articles from International Journal of Educational Technology in Higher Education, accounting for 5%; 90 articles from Computers and Education, accounting for 4%; 82 articles from British Journal of Educational Technology, accounting for 4%; 55 articles from Internet and Higher Education, accounting for 3%; 54 articles from ETR&D: Educational Technology Research and Development, accounting for 3%; 52 articles from Journal of Computing in Higher Education, accounting for 2%.

Judging from the content of the papers published, these journals mainly focus on educational technology, online learning, distance education, and the application of artificial intelligence and data analysis in higher education, but their respective research focuses are different. For example, ETR&D: Educational Technology Research and Development focuses on theoretical research and technological development in educational technology, including the development of instructional design models for flipped classrooms and the design of online courses. Interactive Learning Environments mainly studies interactive learning systems, including generative AI, virtual reality, augmented reality, and so on. International Review of Research in Open and Distributed Learning focuses on massive open online courses (MOOCs). This is related to the positioning of different journals, as well as represents different directions and types of international higher education research in the context of the digital age.

2.2 Research tools and methods

This study used CiteSpace 6.2.R4 visualization software as a research tool. CiteSpace is an information visualization software developed in Java. It mainly uses co-citation analysis theory and path-finding network algorithms to explore the key paths and knowledge turning points of discipline evolution and draws a series of visual images to analyze the potential driving mechanism of discipline evolution and explore the frontier of discipline development.

This study selected this tool to visually analyze the collected literature data from three aspects. First, the key authors and key documents in the field were analyzed by co-citation of authors and co-citation of documents to understand their knowledge base. Second, the co-occurrence and clustering analysis of keywords in the literature was used to explore the hotspots of international higher education research in the context of the digital age. Finally, salient word detection was performed on the basis of keyword co-occurrence. The specific parameter values include: the time range of the research literature is 2014–2024, and the time slice (Year Per Slice) is 1 year. The node type in the co-citation analysis is set to cited author and cited document, and the node type in the co-occurrence analysis is keyword. The node value is selected as g-index (k = 10) in the co-citation analysis and TopN = 50 in the burstness analysis.

3. Results

3.1 Knowledge base

In CiteSpace analysis, the co-citation data of authors can reflect key scholars with a high degree of influence in the field, whose research has played an important role in the evolution of knowledge in the field. The co-citation data of documents can present the highly cited documents in the field, which constitute the knowledge base of the field.

3.1.1 Author co-citation analysis

An analysis of the total number of citations by author shows that there are six scholars with more than 100 citations. Garrison is a well-known professor at the University of Calgary in Canada. He has long been committed to the research of educational technology and distance education and has created the Community of Inquiry (CoI) framework for studying text-based learning interactions in online learning environments. He has also proposed the importance of teachers’ sense of presence and teacher-student interaction in distance learning. Many researchers, such as Borup et al. [10] and Abou-Khalil et al. [11], have explored teachers’ instructional strategies and students’ learning strategies in online learning within Garrison’s theoretical framework.

Davis is a professor at Texas Tech University in the United States. He proposed the Technology Acceptance Model (TAM) in 1986, which emphasizes the key roles of perceived ease of use and perceived usefulness in technology adoption. TAM has been widely cited in discussions of higher education trends in the digital age, as seen in the works of Abdullah and Ward [12] and Cai et al. [13].

Hair is the dean of the Business School at the University of South Alabama, specializes in quantitative methods, including multivariate analysis and structural equation modeling. His work emphasizes rigorous measurement model validation, the flexible application of PLS-SEM, and multidimensional structural model evaluation, offering a standardized framework for empirical research. These principles have been widely adopted, as demonstrated in studies by Al-Adwan and Al-Debei [14] and Abbad [15]. Venkatesh is a professor at Virginia Tech in the United States. A key focus of his academic investigations lies in the domains of information systems and technology adoption behavior. The field of IT adoption research has been significantly shaped by his Unified Theory of Acceptance and Use of Technology (UTAUT series), a foundational model for analyzing how individuals adopt cutting-edge technologies. In the domain of higher education digitalization, these models have served as foundational frameworks for multiple studies, ranging from Jakkaew and Hemrungrote’s [16] early exploration to Abadie et al.’s [17] contemporary analysis.

Bandura was the David Starr Jordan Professor of Psychology at Stanford University. His research fields include psychology and education, focusing on the interaction between individual psychology and behavior and the environment. He is the proposer of the construction of social cognitive theory and self-efficacy theory. His conceptual models feature prominently in research addressing both learner psychology in digital education (e.g., [18]) and comparative studies of instructional models (e.g., [19]), particularly regarding college populations.

Creswell is a professor at the University of Michigan and has established himself as a leading authority in mixed methods methodology. His extensive publication record encompasses scholarly works addressing various research approaches, with particular emphasis on qualitative and mixed methods studies. Notably, he played a pivotal role in establishing the academic periodical dedicated to Mixed Methods Research. The author’s technical tools such as “analysis memo” and “triangulation” have become the standard practice in qualitative research and mixed methods research and are often used to gain an in-depth understanding of the exploration and understanding of instructional technology on the overall learning experience of learners, including college students’ sense of belonging, engagement, and self-confidence. Notable examples include Spencer et al. [20] and Evenhouse et al. [21], whose works demonstrate these applications. 3.1.2 Co-citation analysis of literature.

Two documents are said to be co-cited if they both appear in a third document. Co-citation analysis can be used to identify important documents in a field. In this study, there are five documents that have been cited more than 30 times (see Table 1). These documents together form the knowledge base for international higher education research in the digital age from three perspectives.

Total CitationsAuthorsArticle
100Braun & ClarkeOne size fits all? What counts as quality practice in (reflexive) thematic analysis?
60Hodges et al.The Difference Between Emergency Remote Teaching and Online Learning
46O’Flaherty & PhillipsThe use of flipped classrooms in higher education: A scoping review
45Zawacki-Richter et al.Systematic review of research on artificial intelligence applications in higher education – where are the educators?
35Abeysekera & DawsonMotivation and cognitive load in the flipped classroom: definition, rationale and a call for research

Table 1.

Frequently cited documents in international higher education research in the digital age (2014–2024) (Cited ≥30 times).

First, the research methods of international higher education in the digital age are explored. Braun and Clarke [22] explore the quality criteria of thematic analysis methods; analyze the diversity of thematic analysis in terms of paradigm, philosophy, and procedure; point out that common problems stem from the wrong assumption of homogenization of thematic analysis; and finally provide reviewers and editors with improvement guidelines in the form of 20 key questions to improve the quality of thematic analysis research on international higher education in the digital age.

Second, the technological development of international higher education in the digital age is reviewed. O’Flaherty and Phillips [23] used a scoping review method to review the research progress of flipped classrooms from 1994 to 2014, comprehensively combing relevant research and finding that flipped classrooms can cultivate lifelong learning skills for twenty-first century learners, However, future evaluations of the effectiveness of flipped classrooms should also include student engagement. Zawacki-Richter et al. [24] used a systematic literature review to analyze the application of AI in higher education from 2007 to 2018. The results show that AI is mainly used in academic support services and institutional and administrative services in higher education. However, there has been little critical reflection on AI in higher education, and the connection with theoretical teaching perspectives is weak. The ethical and pedagogical approaches to its application need to be further explored.

Finally, the teaching technologies commonly used in international higher education are clarified. Abeysekera and Dawson [25] provide a comprehensive definition of the flipped classroom model, expound its teaching principles, construct six testable propositions for theoretical argumentation, explore the impact of the flipped model on learning motivation and cognitive load, and call on future scholars to conduct in-depth research on the effectiveness of the flipped classroom. Hodges et al. [26] analyze the essential differences between emergency remote teaching (ERT) and online learning: ERT is an emergency measure that quickly switches traditional face-to-face teaching to a virtual format during a crisis, and it is usually not adequately prepared and designed; meanwhile online learning is a carefully planned and designed learning method that focuses on teaching interaction and learning outcomes and usually requires a longer preparation time.

From the results of the co-citation of authors and the co-citation of literature, there is no direct overlap between highly cited authors and highly cited literature, which shows that in the field of international higher education research in the context of the digital age, scholars’ research revolves around different core issues of the same topic, reflecting the diversity and richness of knowledge production in this field.

3.2 Research hotspots

The keywords are the distillation and concentration of literature research. Analyzing the keywords that appear frequently in the literature can reflect the research hotspots in a particular field. This study conducts a co-occurrence analysis of the keywords in the collected literature and also performs keyword clustering based on keyword co-occurrence. After keyword clustering, 14 clusters were generated, with 233 keyword nodes and 295 node connections (see Figure 1). The top 10 clusters were selected for further reading of the specific research content contained in different clusters (see Table 2). Combining the high-frequency keywords, the following three hot topics in international higher education research in the context of the digital era were identified: “digital teaching technology,” “digital teaching models,” and “educational quality and learner development (Figure 2).”

Figure 1.

Time distribution of international higher education research in the digital age.

TopicClusterNameKeyword nodeProfile valueHigh frequency keyword
Digital teaching technology0Educational technology230.895Learning analytics; student satisfaction; flipped learning; personalized learning
1Artificial intelligence210.986Generative AI; student engagement; active learning; natural language processing
4Virtual reality180.899Online education; cognitive load; learning outcome; engineering education
Digital teaching models2Distance learning180.991Community of inquiry; cognitive presence; technology acceptance; social presence
3Online learning180.886Higher education; technology acceptance model; social presence; distance learning
9Blended learning150.913Social media; collaborative learning; academic performance; literature review
Education quality and learner development5Teacher education180.931Pre-service teachers; tertiary education; project-based learning; systematic review
6Self-regulated learning170.802Self-regulated learning (SRL) strategies; relatedness; artificial intelligence; self-regulation
7Learning outcomes160.87Digital competence; environments; critical thinking; project-based learning
8Post-secondary education160.936Online learning; user acceptance; teachers; pedagogical issues

Table 2.

Research clusters and hot topics in international higher education in the digital age (2014–2024).

Figure 2.

Keyword co-occurrence analysis.

3.2.1 Digital teaching technologies

This theme includes four clusters, which mainly involve the use of different digital technologies in the field of international higher education in the context of the digital age, including artificial intelligence, virtual reality, digital technologies in flipped classroom, and so on. These digital teaching technologies are driving the digital transformation of higher education. Researchers are not only concerned about the impact of these digital teaching technologies on learning outcomes, but also concerned about learner engagement, satisfaction, and the personalized learning experience of learners.

The digital technologies used in flipped classroom in higher education institutions provide learners with multiple ways to access course content [27]. To explore the effectiveness of flipped classroom teaching strategies, Chiang et al. [28] developed a three-phase collaborative teaching model and conducted a case study of 29 graduate students. The results showed that collaborative teaching in flipped classroom can improve learner satisfaction, engagement, and collaboration. However, poor-quality pre-class videos and a lack of foreign language support can reduce student interest. Therefore, the researchers suggest that teachers should optimize learning materials and use interactive exercises to improve learning outcomes.

Intelligent teaching models formed by artificial intelligence and education provide new ways to improve teaching effectiveness and enrich the learning experience. An intelligent learning environment with personalization, intelligent interaction, and real-time feedback is an important factor in enhancing students’ active learning behaviors. In order to reveal the mechanism of students’ participation in intelligent teaching scenarios and promote their active learning, Wang et al. [29] found through empirical analysis that students’ willingness to participate, interactivity, and AI usefulness significantly affect their participation in intelligent teaching, and AI usefulness can also moderate the impact of students’ willingness to participate on their participation in intelligent teaching. Therefore, the researchers suggest adopting a learner-centered teaching method in intelligent teaching to promote students’ active participation and provide them with a better learning experience.

Wu and Wang [30] developed a VR creativity enhancement system based on haptic vibration feedback to explore how digital technology can improve students’ creativity. A comparison of the experimental group with the control group found that participants in the experimental group showed better results in terms of creative performance, attention level, and cognitive load. This study supports the 4P model of creativity and confirms that individual creativity can be enhanced through external technological interventions. Despite the increased cognitive load on the participants wearing VR equipment, they performed better in terms of creative performance and attention, which suggests that moderate cognitive challenge may promote creativity. In addition, the VR creative enhancement system developed in this study can be applied to teaching environments such as creative courses and art education to cultivate individuals’ innovative abilities and meet the complex challenges of the twenty-first century.

3.2.2 Digital teaching models

This theme includes three clusters, covering the three digital teaching models commonly used in international higher education, including distance learning, online learning, and blended learning. Researchers not only focus on learners’ adoption behavior, willingness to use, and influencing factors of digital technology but also analyze in depth the learning effectiveness and academic performance of learners under the digital teaching model, providing empirical support for the digital transformation of education.

Merhi [31] conducted an empirical investigation applying the technology acceptance model and innovation diffusion theory to examine determinants of podcast adoption among university students in distance education contexts. The research outcomes revealed that learners’ adoption intentions were significantly predicted by perceived utility and comparative benefits. Students believed that podcasts were a more effective review tool than textbooks because using podcasts reduced the need for them to take notes and they could access the course material frequently to review it. Also, as an effective tool to support learning, podcasts can provide a flexible and mobile learning experience, which increases the motivation and fun of learning.

Chen and Hwang [32] integrated the Unified Theory of Acceptance and Use of Technology to examine the effect of college students’ self-regulation on their behavioral intention to continue online learning. After assessing students’ self-regulation using a questionnaire, the researchers found that self-regulated metacognition and motivation could predict students’ future academic performance, effort expectancy, and social influence and that self-regulated metacognition could positively predict learners’ behavioral intention. This shows that self-regulation is an important part of online learning. In addition, students’ technology acceptance should be considered when assessing their willingness to continue online learning.

Escamilla-Fajardo et al. [33] point out that the increasing use of social media platforms in blended learning has promoted changes in the educational environment. However, there is currently little research on the effects of social media platforms on teaching and learning and student performance. In view of this, the researchers explored the implementation of TikTok in a university physical education course. The study found that TikTok, as a teaching tool, significantly enhanced students’ motivation, creativity, and curiosity and enhanced their learning experience by using music and movements that were aligned with the course content. Therefore, the researchers recommend introducing TikTok into physical science courses to enrich teaching methods. Despite the potential risks of TikTok, such as addiction, its educational value outweighs the risks.

3.2.3 Education quality and learner development

This theme includes four clusters related to the quality of higher education and learner development in the context of the digital age, including teacher education, self-regulated learning, learning outcomes, and post-secondary education. Related research explores how digital technologies can be used to support pre-service teacher training, self-regulated strategies of learners in AI-enabled educational environments, learning outcomes related to digital competencies, and the acceptance of online learning among teachers at the post-secondary level.

Eady et al. [34] investigated the effectiveness of an online synchronous platform for pre-service teacher training by administering a questionnaire to 58 pre-service teachers based on the EPEC conditions hierarchy (ease of use, psychologically safe environment, e-learning self-efficacy and competence). The results showed that platform ease of use was critical to the psychologically safe environment and e-learning efficacy of the training teachers, which in turn affected learning outcomes. In addition, course facilitator support and appropriate technological tools for training teachers were additional factors that influenced the online learning experience. Therefore, the researchers proposed the inclusion of instructor support and appropriate technological tools for training teachers in the original EPEC hierarchy to optimize online course design and improve learners’ online learning outcomes.

To explore how artificial intelligence can provide students with self-regulated learning skills in higher education, Koć-Januchta et al. [35] developed an AI e-textbook on biology for university students that integrates a knowledge base of 5000 concepts and algorithms and provides the possibility to ask questions and receive answers. The assessment of learning achievements revealed a significant positive association between students’ self-directed learning competencies and their ability to engage in profound, substantive learning when utilizing the AI textbook. Particularly in the biological sciences domain, learners demonstrated favorable responses to the AI system’s scaffolding in developing essential cognitive frameworks for knowledge acquisition.

Kohnke et al. [36] used a number of 1–6-minute microlearning activities to investigate the digital competence of higher education teachers, their use of digital technology, and the impact on their learning outcomes in the post-pandemic era. By watching micro-videos, the teachers generally reported that microlearning was flexible and stress-free, allowing them to focus on immediate tasks and improve their digital competence in a fragmentary way. In addition, some surveyed teachers also learned how to use digital resources in online and blended environments, equipping them with the necessary digital skills for teaching in the “new normal” of the post-pandemic era.

Salyers et al. [37] focused on the attitudes of adult learners returning to school toward online learning. Using a mixed research method, the researchers investigated the perceptions of students at post-secondary institutions (colleges and universities) in Canada toward online learning and assessed the impact of key components of online courses on the learner experience. The study found that most students taking online courses are female and that the navigational convenience of online learning platforms and course design significantly predict a positive online learning experience for learners. The results of this study are of great significance for the teaching of online learning in post-secondary education institutions around the world.

3.3 Evolution of research frontiers

In CiteSpace, emerging words can reflect the frontiers of the field of international higher education research in the context of the digital age. The burst strength represents its contribution to the forefront of the field, and the year in which burstness ends indicates its latest progress in the field. The closer the year is, the more recent the research direction.

In this study, the sensitivity of the bursting word detection was set to 1.0, and the minimum duration was 2 years. The results showed a total of 51 bursting words. The CiteSpace system automatically generates a chart that only displays the top 25 important bursting words (see Figure 3). Combining the keyword clustering and high-frequency nodes generated by CiteSpace, the authors mainly selected the following seven bursting words for focused analysis (see Table 3).

Figure 3.

Top 25 keywords with strongest citation bursts (2014–2024).

KeywordsBurst StrengthBurst start yearBurst end year
Distance education7.4420142017
Teaching/Learning strategies6.1120142018
Flipped classroom4.420172020
Intention3.4620182020
Mobile learning4.4220202021
Identity4.1520222024
Support3.3820222024

Table 3.

Keywords with high incidence in international higher education research in the digital age (2014–2024).

3.3.1 Distance education

“Distance education” is a keyword that has appeared frequently in 2014–2017. Its rise has been accompanied by changes on both the teacher and student sides, including changes in teachers’ curriculum design and teaching methods, as well as researchers’ concerns about student classroom participation and the quality of learning.

O’Shea et al. [38] pointed out that teachers’ distance teaching design should use appropriate technology to ensure that the content and presentation of online courses are attractive enough to improve students’ online learning engagement; Mkhize et al. [39] explored the acceptance and influencing factors of the e-learning system myUnisa among students at distance education universities in Africa. The study found that myUnisa’s compatibility with learning materials and the value it adds to the learning experience were the factors influencing students’ use of the LMS. Shelton et al. [40] focused on the student factors that contributed to failure in distance education courses in higher education institutions. The researchers found through empirical methods that the frequency of their classroom interactions, rather than the total amount of classroom interactions, was a better predictor of academic performance. Therefore, frequent and timely interactions between teachers and students are crucial to improving student academic performance and reducing dropout rates in distance education.

3.3.2 Teaching/learning strategies

“Teaching/Learning strategies” have been prominent in research from 2014 to 2018. Researchers have aimed to improve the learning experience of learners and explore the relationship between teaching/learning strategies and learning outcomes in a variety of digital teaching scenarios.

Jaggars and Xu [41] investigated teaching and learning strategies in online teaching platforms. The researchers found that teachers regularly reminding students and responding to questions in a timely manner, and students actively participating in interactions and providing class feedback on their own initiative, can lead to a better student online learning experience and academic performance. Viegas et al. [42] focused on teaching and learning strategies in remote laboratories based on virtual reality technology and found that teachers’ motivation of students to use virtual laboratories can overcome the barriers to use for beginners. Yilmaz and Keser [43] pointed out that the key to improving students’ learning experience is not to adopt new teaching methods but to improve and improve the teaching strategies used in the teaching and learning process through a reflective approach. Therefore, researchers focused on the learning strategies of students who reflectively used podcasts for distance learning and found that their reflective thinking activities such as self-questioning, planning their learning progress, and evaluating the process contributed to their academic success.

3.3.3 Flipped classroom

The “flipped classroom” became a buzzword between 2017 and 2020. Researchers focused on the flipped learning design model, the adaptability of the teaching subject to the flipped classroom, and the role of the flipped classroom in preventing academic cheating.

Lee et al. [44] developed a flipped learning design model for higher education and successfully implemented it in a university. The results showed that the flipped learning design model developed by the researchers could improve teaching quality and student satisfaction. Simmons et al. [45] also studied how to adapt teachers who are used to face-to-face teaching methods to flipped classroom teaching and proposed some practical measures, including providing professional development training for teaching staff, determining teaching topics suitable for flipped classroom, and regularly assessing student learning; Etgar et al. [46] studied academic cheating among students in higher education institutions and suggested using flipped classroom to prevent academic cheating. In a flipped classroom, the teacher helps students construct knowledge through discussion and guidance and customizes the content and methods of learning according to the abilities of students, thereby reducing students’ academic cheating.

3.3.4 Intention

“Intention” is a keyword that will appear frequently in 2018–2020. Researchers are mainly concerned with learners’ acceptance of the use of different digital technologies in teaching and their behavioral intentions, including online learning services, virtual learning tools, massive open online courses, etc.

Rajak et al. [47] studied the factors affecting college students’ intention to use online learning services. Through multiple regression analysis, it was found that this intention is affected by a combination of factors, including instructor characteristics, course content, and individual learner perceptions. Valencia-Arias et al. [48] proposed the eLearning Technology Acceptance Model (eLTAM) and studied college students’ acceptance of virtual learning tools and key factors. The results show that teacher preparation, learning autonomy, and self-efficacy are the main factors affecting students’ intention to adopt e-learning tools. Massive open online courses (MOOCs) are considered to be a platform for promoting educational equity, but their usage and completion rates among college students in developing countries are poor. Mohan et al. [49] used an extended unified theory of technology acceptance and use to explore the factors influencing Indian students’ intention to use MOOCs. The results show that usage habits and the content of the platform courses are the main predictors of Indian college students’ intention to use MOOCs.

3.3.5 Mobile learning

“Mobile learning” has a high incidence in 2020–2021. Research mainly involves the current situation and related impacts of flexible learning using mobile electronic devices, mobile programs, and mobile virtual reality devices by learners.

Sugden et al. [50] designed a series of online activities to study the participation and depth of learning of college students in mobile learning. Through a mixed research method, it was found that mobile learning promoted learners’ emotional, cognitive, and behavioral participation and stimulated their deep learning. Kumar et al. [51] conducted qualitative interviews with teachers and students using the Google Classroom mobile app and found that students regarded it as an online learning community with a peer group and usually used functions such as note viewing, classroom feedback, assignment submission, and so on, and teachers believed that the mobile app had simplified teacher-student communication and course management, bringing innovation to teaching; Sprenger and Schwaninger [52] studied the technological acceptance of mobile virtual reality devices by learners and found that despite its lower cost, mobile VR was not as popular as higher-quality, computer-based VR systems in educational settings. After using mobile virtual reality devices, learners’ perceived usefulness and behavioral intention decreased.

3.3.6 Identity

“Identity” is a buzzword in the period 2022–2024. Researchers focus on the transformation and shaping of the identities of academic researchers, teachers, and students brought about by digital technology in the field of higher education.

Butson and Spronken-Smith [53] focus on the impact of artificial intelligence on the academic identity of researchers, exploring the ethical, methodological, and epistemological issues of artificial intelligence in higher education and revealing the relationship between the efficiency and morality of academic researchers and innovation and integrity under the influence of artificial intelligence. Dai et al. [54] explore the transformation of teachers’ identities as they transition from face-to-face teaching to virtual educational worlds. Teachers believed that the new teaching environment provided more possibilities for student-teacher interaction and reshaped their identity, enhancing their sense of professional identity. Ou et al. [55] adopted a post-humanist perspective to examine the impact of students’ use of artificial intelligence language tools on their identity. The research demonstrated that regular utilization of AI-powered writing assistants (e.g., ChatGPT) in scholarly composition significantly enhanced students’ academic discourse competence and facilitated individual linguistic progress. These intelligent systems effectively converted traditional writing tasks into dynamic learning environments, enabling learners to adopt innovative roles as digitally enhanced knowledge constructors.

3.3.7 Support

“Support” is expected to be a keyword with a high frequency of occurrence between 2022 and 2024. Researchers are mainly concerned with the support and assistance provided by digital technologies such as artificial intelligence and virtual reality for student development, and most of the research results indicate that digital technologies have a positive impact on student development.

Rienties et al. [56] used a mixed research method to explore what support distance learners desire from AI digital assistants. The study found that distance learners hoped that AI digital assistants could provide instant academic support, emotional and social support, and so on; Yang et al. [57] studied how generative AI can support students’ active deep learning. The study found that students not only used generative AI to assist with coursework but also actively explored the conversational functions of generative AI to complete reading and writing tasks and develop reflective learning methods. Agbo et al. [58] developed a virtual reality-based game program and evaluated its support for students’ computational thinking. The experiment found that the VR game program supported students’ computational thinking and problem-solving skills better than traditional methods, and the immersion provided by VR also enabled students to obtain higher cognitive benefits from computational thinking.

3.4 General discussion

From the above analysis, it can be seen that research on higher education in the digital age is taking on a diverse range of directions. In the future, these different research directions may intersect and overlap in time and space, thus inspiring more research perspectives and orientations. This means that research on higher education in the digital age will continue to be updated and differentiated, thus forming a richer body of knowledge. In particular, with the continuous evolution of digital teaching technology and digital teaching methods, researchers have begun to pay more attention to how to improve education quality and learner development through modes such as distance education, mobile learning, and flipped classroom. At the same time, teaching/learning strategies designed for diverse learning scenarios have gradually strengthened personalized support systems, using digital technologies such as artificial intelligence and virtual reality to stimulate students’ intention to learn and identity shaping. In addition, future research will also pay more attention to the systematic improvement of the “support” for mechanism of digital technology in educational practice, exploring effective intervention paths enabled by technology, in order to respond to complex and ever-changing teaching needs and learning challenges.

However, one alarming finding of this bibliometric analysis is that international higher education research in the context of the digital age from 2014 to 2024 mainly examines the feasibility of digital technologies in teaching practices, with a serious lack of critical reflection on the pedagogical and ethical impacts and the technological risks of using artificial intelligence in higher education. On the one hand, regarding pedagogy, in our bibliometric analysis, most researchers focus on how to use research methods to evaluate the impact of digital technologies on the field of education. However, authors from the education sector accounted for a relatively small proportion of the overall author population. This phenomenon indicates the need for an in-depth examination of digital technology development from an educational perspective. On the other hand, regarding the ethical impact, in a recent systematic review of learning analytics, the researchers pointed out that the privacy of participants is rarely mentioned in existing research [59]. In the future, in the field of higher education, as educators and educational researchers delve deeper into how to effectively integrate digital teaching technologies and give full play to the potential and value of digital technologies in building intelligent learning and teaching systems, they should pay more attention to protecting the privacy of participants.

A notable theoretical deficiency persists across digital technology education research, aligning with prior review studies’ conclusions. Hew et al.’ [60] analysis of leading educational technology journals revealed over 40% of publications lacked theoretical foundations. Similarly, Bartolomé et al. [61] observed that while higher education technology studies proliferate, they frequently neglect pedagogical frameworks. The current review confirms this trend, with most examined studies prioritizing empirical pattern identification and predictive modeling over theoretical development, despite their practical implications for educational technology implementation. This is now a trend with the development of data availability and computational technology. However, in the literature review of this study, there is little literature that shows the progress of pedagogy and psychological learning theory related to technology such as artificial intelligence. Future researchers can focus on developing and empirically validating theories of digital pedagogical technology related to pedagogy and psychological learning, in order to extend the research to a wider level and help peers understand the causes and mechanisms of the dynamic development of international higher education in the digital age, which will have a huge impact on the development of international higher education.

4. Limitation

Although this study systematically analyzed the latest developments in digital higher education research, it still had some limitations. For example, the number of documents analyzed was limited. We only analyzed articles from the Web of Science (WOS) SSCI and SCI-E databases, excluding publications from other key databases such as Scopus. Additionally, all selected articles were written in English, which neglected articles written in other languages and included in other databases, and the depth and comprehensiveness of the analysis were not sufficient. In addition, we only analyzed the literature and lacked some empirical studies of the literature findings. When applying the CiteSpace tool for burst term detection, we identified 51 burst terms but only analyzed 6 high-frequency research terminologies. While this approach effectively highlights key concepts in the field, its focus on highly influential papers may not fully capture the complete landscape of digital higher education research. Future studies could incorporate both WOS and Scopus databases to improve coverage and representativeness [62, 63, 64, 65]. Subsequent researchers could incorporate analytical methods such as timezone view to gain deeper insights into evolutionary trajectories across different time periods.

5. Conclusion

This study used CiteSpace to conduct a visual analysis of research literature on international higher education in the context of the digital age from 2014 to 2024. It can be seen that international academia’s research on higher education in the digital age presents an intrinsic development law and evolutionary path. Analysis of its development law and evolutionary path can deepen understanding of higher education and its research in the digital age and provide an important reference for higher education institutions to better respond to the challenges of the digital age in the future. Overall, this paper mainly draws the following four conclusions:

First, in terms of the number of publications, research on higher education in the digital age in the international academic community continues to grow and is expected to continue to do so in the future. This is due to the continuous development of emerging technologies, whether it be online learning, distance education, the flipped classroom, or artificial intelligence and virtual reality. Researchers are concerned with how digital technologies can improve higher education quality and learner development.

Second, several key scholars in the United States have laid the intellectual foundation for highly cited research on higher education in the digital age. Researchers in Africa, South America, and other regions are fewer in number, which presents an asymmetry in knowledge production. The United States and other regions continue to produce a large number of cutting-edge research results by virtue of their dominant position in knowledge production in higher education in the digital age. However, due to weak digital infrastructure and a lack of educational resources, regions lagging behind are unable to keep up, leading to a deepening knowledge divide between regions and groups.

Third, research hotspots focus on digital teaching technology, digital teaching models, and education quality and learner development. These three research hotspots all point to the use of digital technology, student engagement, and monitoring of teaching results, that is, exploring how digital technology affects the education system, improves the learning experience of learners, and promotes better student academic performance. Instead of simply viewing digital technology as a tool to improve teaching efficiency, researchers are more concerned about its role in shaping the education ecosystem, influencing learner autonomy, and helping learners meet future challenges.

Fourth, research in higher education in the digital age has shown a diverse development pattern, with new research directions constantly emerging based on existing research hotspots. This change is reflected not only in the application of technological tools in higher education but also in the deeper evolution of educational concepts, teaching models, and the construction of learner identities. In the research context from 2014 to 2024, many topics have emerged, among which the maturity and popularity of distance education models are particularly representative, giving rise to systematic discussions on diverse teaching/learning strategies. Meanwhile, flipped classroom, as an important form of pedagogical paradigm innovation, have become a bridge connecting technology and teaching practice, significantly enhancing teaching interactivity and learner engagement.

In addition, the intention of learners has become a key variable in measuring the acceptance of educational technology and motivation for continuous learning, providing theoretical support for educational intervention and curriculum design. With the technological development and widespread use of intelligent terminal devices, mobile learning has gradually broken through the limitations of time and space, creating a more flexible and personalized learning ecosystem that further promotes the development of learner initiative and self-regulation. In this process, the construction of individual identity in the field of higher education has also attracted widespread attention from researchers. In particular, in a virtual learning environment, identity has become an important issue for academic researchers, teachers, and students in the face of the digital teaching technology wave. In order to effectively respond to the digital transformation of education, researchers have gradually focused on the support mechanisms for learners from metaverse technologies such as artificial intelligence and virtual reality, covering multiple levels such as technical support, emotional support, and ability development support, with the aim of ensuring the quality of education and maximizing learning outcomes. In the era of AI+, international higher education research may also usher in new research trends.

Funding

This work was supported by the First-Class Education Discipline Development of Beijing Normal University: Excellence Action Project (Grant Number: YLXKPY-XSDW202408) and the Priority Self-financed Project of the 2025 Annual Programs in the 14th Five-Year Plan of Guangxi Educational Science (Grant Numbers: 2025B098).

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Written By

Ailing Tian and Jian-Hong Ye

Submitted: 15 May 2025 Reviewed: 07 July 2025 Published: 16 August 2025