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46 

        MULTIDISCIPLINARY SCIENTIFIC RESEARCH 
          BJMSR VOL 10 NO 6 (2025) P-ISSN 2687-850X E-ISSN 2687-8518 

         Available online at https://www.cribfb.com 

     Journal homepage: https://www.cribfb.com/journal/index.php/BJMSR 

                                                                                                                                                                                                    Published by CRIBFB, USA 
                                                                                                                              

DEVELOPING COUNTRIES AND THE INDUSTRY 4.0 MOVEMENT: 

RESEARCH MAPPING FOR PRACTICAL INSIGHTS                      
 

 Muhammad Yahya Hammad (a)   Syed Radzi Rahamaddulla (b)  Shahryar Sorooshian (c)1   Puteri Fadzline 

Muhamad Tamyez (d)   Muhammad Ashraf Fauzi (e) 
 

(a)PhD Researcher, Faculty of Industrial Management, Universiti Malaysia Pahang, Al-Sultan Abdullah, Malaysia; E-mail: 

yahyahammadjutt@gmail.com 
(b) Professor, Faculty of Industrial Management, Universiti Malaysia Pahang, Al-Sultan Abdullah, Malaysia; E-mail: syedradzi@umpsa.edu.my 
(c) Professor, Department of Business Administration, University of Gothenburg, Gothenburg, Sweden, E-mail: shahryar.sorooshian@gu.se 
(d) Professor, Faculty of Industrial Management, Universiti Malaysia Pahang, Al-Sultan Abdullah, Malaysia; E-mail: fadzline@umpsa.edu.my 
(e) Professor, Faculty of Industrial Management, Universiti Malaysia Pahang, Al-Sultan Abdullah, Malaysia; E-mail: ashrafauzi@umpsa.edu.my 

 

 
A R T I C L E I N F O 

 
 

Article History: 

 

Received: 16th June 2025 
Reviewed & Revised: 16th June 2025 

to 9th September 2025 

Accepted: 10th September 2025 

Published: 15th September 2025 

 
Keywords: 

 

Industry 4.0, Developing Countries, 

Developing Economies, Practical Insight, 

Emerging Economies 

 
JEL Classification Codes: 

 

      O32, L69 

 

      Peer-Review Model:  
 

      External peer review was done through  

      double-blind method.        

 
A B S T R A C T      

 

This paper investigates the adoption of Industry 4.0 in developing countries, emphasizing the unique 

challenges these economies face compared to advanced nations. Despite the global spread of digital 

technologies such as automation, big data analytics, and the Internet of Things (IoT), adoption in 
resource-constrained contexts remains limited due to inadequate infrastructure, financial restrictions, 

skill gaps, and organizational resistance. To address these issues, the study employs a bibliometric 

methodology, analyzing 398 journal articles indexed in Web of Science through co-word and 

bibliographic coupling techniques. This approach enables the mapping of dominant themes, influential 

research clusters, and key gaps in the literature. The results highlight five thematic areas: global 

technological developments, sustainability integration, adoption barriers, implementation practices, and 

strategies for overcoming obstacles. Findings indicate that while challenges are considerable, Industry 
4.0 can enhance productivity, stimulate Innovation, and support sustainability by strengthening supply 

chains and promoting efficient resource use. The study also reveals that transformative benefits can only 

be realized when supportive policies, international collaboration, private-sector participation, and 

workforce development are followed in a coordinated manner. The research contributes to theory by 

linking Industry 4.0 adoption to sustainability frameworks such as the Circular Economy and the 

Sustainable Development Goals. It also offers practical guidance for policymakers, SMEs, and managers 

on designing context-sensitive strategies tailored to developing economies. By providing a structured 

overview of challenges and opportunities, the study lays a foundation for future empirical research and 
offers actionable insights for advancing sustainable industrial transformation. 

 
 

© 2025 by the authors. Licensee CRIBFB, USA. This open-access article is distributed under the 
terms and conditions of the Creative Commons Attribution (CC BY) license 
(http://creativecommons.org/licenses/by/4.0).  

            

       

INTRODUCTION 

Technology-based processes connect different traditional industries across the ongoing technological revolution called 

Industry 4.0 (Alaloul et al., 2018). Industry 4.0 integrates technologies such as automation, big data, and IoT, shifting 

economies from product-based to service-oriented models (Javaid et al., 2024). This transformation has enhanced 

industrialization, data utilization, and process efficiency, generating significant economic and social value. Nonetheless, its 

application in realizing productivity, efficiency, and effective decision-making is currently limited in developing nations 

because of capital and infrastructure limitations (Verma et al., 2020). The Fourth Industrial Revolution is based on the prior 

Industrial Revolution (IR) progress of steam power (IR1.0), electricity (IR2.0), and computer automation (IR3.0). Industry 

4.0, characterized by networked technology and self-organized systems, has revolutionized industrial systems worldwide, 

particularly in developed industrialized countries.  

However, there are specific barriers to adopting technology in developing countries, including sparse computer 

literacy, a lack of modern infrastructure, and cultural resistance to change. The significance of developing a more thorough 

understanding of the region's social and economic realities and designing approaches tailored to these conditions to 

overcome these challenges is emphasized (Xu et al., 2018). The current revolution is generally termed Industrial Revolution 

4.0 (IR 4.0), based on the concept of the Internet of Things (IoT) and the implementation of robotics in industrial processes 

to achieve higher production efficiency (Khan et al., 2022). 

                                                      
1Corresponding author: ORCID ID: 0000-0001-5336-827X 
© 2025 by the authors. Hosting by CRIBFB. Peer review under responsibility of CRIBFB, USA.  

https://doi.org/10.46281/bjmsr.v10i6.2587 

 
To cite this article: Hammad, M. Y., Rahamaddulla, S. R., Sorooshian, S., Tamyez, P. F. M., & Fauzi, M. A. (2025). DEVELOPING COUNTRIES AND 

THE INDUSTRY 4.0 MOVEMENT: RESEARCH MAPPING FOR PRACTICAL INSIGHTS. Bangladesh Journal of Multidisciplinary Scientific 

Research, 10(6), 46-55. https://doi.org/10.46281/bjmsr.v10i6.2587 

http://creativecommons.org/licenses/by/4.0/)
http://creativecommons.org/licenses/by/4.0/)
https://www.openaccess.nl/en
https://doi.org/10.46281/bjmsr.v10i6.2587
https://orcid.org/0009-0004-3928-9064
https://orcid.org/0000-0002-6555-9919
https://orcid.org/0000-0001-5336-827X
https://orcid.org/0000-0002-2251-2707
https://orcid.org/0000-0003-2137-4602


Hammad et al., Bangladesh Journal of Multidisciplinary Scientific Research 10(6) (2025), 46-55

 

47 

This paper provides the following benefits of Industry 4.0 adoption across various Industries: increased flow of 

communication and cooperation, increased productivity and Innovation, and efficient decision-making. As such, the outlined 

benefits of organizations are as follows: These stem from the execution of innovative technologies, including IoT, 

automation, and data analytics, which increase productivity, lower costs, and optimize functions. Thus, IR 4.0 supports real-

time collaboration, efficient resource utilization, and the actual enhancement of project execution, all driven by positive 

advancements across various fields (Alsehaimi & Sanni-Anibire, 2024).  

This paper discusses the issues likely to arise in developing countries concerning Industry 4.0. This research is 

against emerging knowledge on how Industry 4.0 can enhance economic development and welfare and respond to significant 

development issues. Therefore, the purpose of this study is to assess the current state of Industry 4.0 adoption in developing 

nations, with a particular focus on the technological, societal, and infrastructural factors shaping its implementation. The 

study also aims to highlight key barriers and opportunities, providing practical insights and recommendations that can guide 

policymakers, industry leaders, and researchers in promoting sustainable digital transformation. 

Unlike previous bibliometric studies that have primarily focused on global or developed economies, this paper 

contributes a distinct perspective by exclusively examining Industry 4.0 adoption in developing countries. By focusing on 

contexts characterized by resource constraints, institutional voids, and infrastructural limitations, this study generates 

insights that are directly applicable to policymakers, SMEs, and practitioners operating in these economies. This approach 

offers novel contributions by mapping not only the challenges but also practical pathways that align Industry 4.0 

implementation with the unique social and economic realities of developing nations. 

 

LITERATURE REVIEW 

Industry 4.0 represents the integration of advanced technologies, including automation, the Internet of Things (IoT), artificial 

intelligence (AI), big data analytics, and cyber-physical systems, into industrial processes. In developed economies, these 

technologies have accelerated productivity, Innovation, and sustainability transitions. However, in developing economies, 

adoption remains uneven due to resource constraints, institutional gaps, and socio-technical challenges that are not 

adequately addressed in existing studies (Ghobakhloo, 2020; Nara et al., 2021; Ocelík et al., 2023; Xu et al., 2018). Several 

studies have identified persistent barriers that hinder Industry 4.0 adoption in developing nations. These include inadequate 

digital infrastructure, financial constraints, a shortage of skilled human capital, and cultural resistance to change. Weak 

institutional support and policy uncertainty further complicate the adoption process, particularly in small and medium-sized 

enterprises (SMEs). Research emphasizes that limited access to capital and insufficient workforce readiness remain among 

the most critical challenges, restricting the ability of firms to implement and sustain advanced digital technologies (Ayalew 

& Xianzhi, 2020; Chauhan et al., 2021; Gupta et al., 2022).  

Despite these barriers, Industry 4.0 presents significant opportunities for economic transformation in resource-

constrained contexts. Digital manufacturing technologies can strengthen supply chain resilience, improve operational 

efficiency, and enable green Innovation through more efficient use of resources. For example, empirical research highlights 

the role of digital technologies in supporting sustainable supply chains in Vietnam. At the same time, other studies show 

that SMEs in South Asia experience improved performance and innovation capability when adopting digital tools. These 

findings suggest that even in environments characterized by structural weaknesses, Industry 4.0 adoption can deliver 

measurable benefits if tailored strategies are applied (Akbari & Hopkins, 2022; Bag et al., 2021). The relationship between 

Industry 4.0 and sustainability has also gained prominence in recent scholarship. Integrating frameworks such as the Triple 

Bottom Line (TBL), Circular Economy (CE), and Sustainable Development Goals (SDGs) provides a holistic basis for 

assessing the impacts of digital transformation. Research demonstrates that Industry 4.0 can promote environmental 

sustainability through robotics and energy-efficient production, enhance social sustainability through workforce upskilling, 

and drive economic sustainability through Innovation and competitiveness.  

However, successful adoption requires coordinated efforts, including supportive policy frameworks, international 

collaboration, and active engagement of the private sector to overcome institutional voids and strengthen long-term 

readiness (Alojail & Khan, 2023; Elheddad et al., 2021; Giovannoni & Fabietti, 2013). This review highlights that while 

Industry 4.0 has transformative potential, developing economies face persistent barriers that distinguish their adoption 

patterns from those in advanced economies. At the same time, opportunities exist to align digital transformation with 

sustainability objectives, particularly when policies, resources, and human capital development are addressed in an 

integrated manner. What remains missing from the current body of literature is a systematic overview that synthesizes these 

barriers and opportunities specifically in the context of developing nations. Therefore, the purpose of this study is to conduct 

a bibliometric analysis of Industry 4.0 adoption in developing countries to identify key challenges and opportunities, map 

the thematic clusters of research, and provide practical insights for policymakers, industry leaders, and researchers. 

 

MATERIALS AND METHODS 

Bibliometric methodology makes use of quantitative science mapping to analyse bibliographic sets. The analysis supports 

the qualitative systematic literature review (SLR) approach and the more quantitative meta-analysis approach. 

Bibliographic coupling: Bibliographic coupling measures the similarity of articles in one way by the number of 

references that two articles have. Articles that mention comparable sources probably have a conceptual link, and it can be 

argued that the more references two articles share, the closer they are to one another in a bibliographic network (Zupic & 

Čater, 2015). 

Co-word analysis: Co-word analysis, as opposed to shared citations, focuses on sets of terms that documents share 

(Delecroix & Epstein, 2004). Co-word analysis examines the co-occurrence of keywords to identify groups of related terms 

(Mangalaraj et al., 2023). 



Hammad et al., Bangladesh Journal of Multidisciplinary Scientific Research 10(6) (2025), 46-55

 

48 

Web of Science was selected as the sole database because of its rigorous indexing standards, comprehensive 

coverage of peer-reviewed journals, and reliable citation tracking system. While this choice excludes some publications 

indexed in Scopus or Google Scholar, it ensures consistency and reliability of metadata. The thresholds applied in this study 

41 citations for bibliographic coupling and 19 keyword occurrences for co-word analysis were adopted to minimize noise, 

enhance visualization clarity, and highlight the most influential works in the field. These criteria are consistent with 

established practices in bibliometric mapping, ensuring that the analysis captures robust and meaningful clusters. 

As indicated in Table 1, publications containing pertinent keywords were found using the following search query. 

The search query relates to Industry 4.0 in developing countries and associated terms and is based on literature, identical 

terms, and a thesaurus. The search topic was used to search the Web of Science database. This option covers publications 

with keywords in the title, abstract, and authors. Furthermore, this analysis only includes journal publications; editorials, 

book chapters, novels, and conference proceedings are excluded. By restricting the study to journal articles alone, the caliber 

of peer-reviewed papers included in the science mapping analysis is ensured. 

 

Table 1. Search string in Web of Science database 

 
No Keywords Justification 

1 ‘‘Industry 4.0” OR “IR 4.0” OR “Fourth 

Industrial Revolution” 

To identify the technological advancements 

associated with Industry 4.0. 

2 ‘‘Developing Country’’ OR “Developing 
Countries” OR “Developing Economy” OR 

‘‘Developing Economies’’ OR ‘‘Emerging 

Countries’’ OR ‘‘Emerging Economies’’ 

To identify the implications of Industry 4.0 in 
developing countries and emerging trends. 

 

RESULTS 

The search was conducted on 25th December 2024. A total of 513 documents were retrieved from the database using the 

search query created explicitly for this investigation. After journal publications were eliminated, 398 papers were completed. 

According to the publication trend, research increased steadily in 2017 and peaked in 2023. This rise reflects growing 

recognition of the significance of Industry 4.0 in developing countries. The continuous increase in citation rates shows how 

important older work is despite a slight decline in publications in 2024. Over the coming years, a slight rise in research 

production and impact is anticipated (Figure 1).  

 

 
Figure 1. Number of Papers published per year 

 

Bibliographic Coupling 

Out of the 513 documents, 44 documents met a threshold of 41 citations. These 44 documents create 5 clusters. The top-3 

documents based on total link strength (TLS) are (Nara et al., 2021) 214 TLS, (Tortorella & Fettermann, 2018) 202 TLS, 

and (Luthra et al., 2020) 180 TLS. In this bibliographic coupling, Table 2 displays the top ten documents. Bibliographic 

coupling refers to the strength of the coupling between the linked documents; hence, the more important the documents in 

the network, the higher the total link strength (TLS). 

 

Table 2. List of top 10 documents in bibliographic coupling  

 
Rank Publication Scope Citation TLS 

1 Nara et al. (2021) An examination of the expected impacts of Industry 4.0 technologies 
on sustainable development in the context of Brazil's plastics 

industry. 

122 214 

2 Tortorella and Fettermann 

(2018) 

Lean manufacturing and Industry 4.0 implementation in Brazilian 

industrial firms.  

247 202 



Hammad et al., Bangladesh Journal of Multidisciplinary Scientific Research 10(6) (2025), 46-55

 

49 

3 Luthra et al. (2020) An examination of the powerful influence of drivers in an emerging 

economy reveals how Industry 4.0 facilitates the diffusion of 

sustainability in supply chains. 

225 180 

4 Kumar et al. (2020) Examining the challenges in integrating Industry 4.0 technology for 

ethical and sustainable business practices in SMEs. 

240 174 

5 Tortorella et al. (2021) A comparison of manufacturers in developed and emerging countries 

with respect to Lean Production and Industry 4.0. 

64 170 

6 Chauhan et al. (2021) An empirical examination of emerging economies' performance 

impacts and adoption hurdles for Industry 4.0. 

151 165 

7 Gillani et al. (2020) Causes and Consequences of Implementing Digital Manufacturing 

Technology. 

115 165 

8 Bag et al. (2021) An empirical study of the key resources for sector 4.0 adoption and 

its effects on sustainable production and the circular economy. 

223 161 

9 Raj et al. (2020) Obstacles to Industry 4.0 Technology Adoption in Manufacturing: A 

Comparative Analysis of Different Countries. 

507 146 

10 Sharma et al. (2021) Incorporating Industry 4.0 for sustainability into emerging 

economies' multi-tiered manufacturing supply networks. 

134 125 

 

Figure 2 illustrates the network visualisation of bibliographic coupling analysis. The five groupings are independent 

of each other. The following covers emerging and upcoming Industry 4.0 developments in developing nations. The clusters 

are labeled using inductive interpretation by re-examining representative papers within the clusters and synthesising them 

based on common themes and research streams. 

 

 
Figure 2. Bibliographic coupling of Industry 4.0 in developing countries: emerging and future trends 

 

Cluster 1 (Red): Global Developments and Industry 4.0 Technologies' Effects on the Environment 

The adoption of Industry 4.0 technology worldwide is revolutionizing industrial processes by addressing the challenges of 

environmental sustainability and promoting economic growth. Industry 4.0 aims to enhance industrial intelligence by 

intelligent output with the help of upgraded technologies, namely automation, big data, and cyber-physical systems (Chien 

et al., 2017). Industrial robots, a fundamental component of Industry 4.0, lower carbon intensity through increased energy 

efficiency, productivity, and green Innovation. Their environmental benefits are increasingly noticeable in industrialized 

countries and industries like manufacturing, agriculture, and utilities (Y. Li et al., 2022). Due to the reduction of the distance 

between different types of firms, digital transformation influences the innovative activities of non-SOEs, non-high-tech, and 

non-polluting enterprises more significantly (Chen & Kim, 2023). The Fourth Industrial Revolution has had a profound 

impact on our lives and interactions, resulting in significant economic changes and heightened environmental concerns 

(Elheddad et al., 2021).  

 

Cluster 2 (Green): Industry 4.0 Adoption and Sustainability in Developing Economies 

The adoption of Industry 4.0 in developing nations can revolutionize sustainability by filling administrative and 

technological gaps and bringing industrial practices into line with sustainable development objectives. Supply chains in 

Vietnam are anticipated to be most impacted by drones, analytics of big data, and the Internet of Things (Akbari & Hopkins, 

2022). The impact of talent capabilities on employee development and sustainable supply chain results was less pronounced 

but still noteworthy. The report offers managers two approaches to enhance the mining industry's sustainable supply chain 

results (Bag et al., 2020). These economies may align industrial practices with sustainable development goals by overcoming 

obstacles such as limited digitization and economic volatility by promoting cooperation between politicians and industry 

leaders.  



Hammad et al., Bangladesh Journal of Multidisciplinary Scientific Research 10(6) (2025), 46-55

 

50 

Cluster 3 (Blue): Opportunities and Difficulties of Industry 4.0 Adoption in Developing Nations 

Developing nations face financial and institutional challenges, and as a result, their Industry 4.0 formation process differs 

from that of industrialized nations. In affluent nations, the initiative strategy, started by economic subjects, offers more 

flexibility and efficacy than the prescriptive approach (Bogoviz et al., 2019). Both internal and external constraints severely 

impact digitalisation, yet adoption increases supply chain competency and functional effectiveness (Alaloul et al., 2018). 

Indus. Industry 4.0 initiatives can transform the way products are designed, produced, delivered, and disposed of, but they 

pose challenges for developing nations, particularly India (Luthra & Mangla, 2018). The most highly ranked drivers are the 

sustainable aspects, which encompass both environmental and social factors, whereas the most highly ranked barriers are 

the organizational and environmental dimensions (Sharma et al., 2021). These obstacles demonstrate that targeted 

approaches are necessary to overcome them and capitalize on the benefits of Industry 4.0. They also emphasize how crucial 

it is to successfully overcome structural and financial constraints to deploy Industry 4.0 in developing countries. 

 

Cluster 4 (Yellow): Implementation of Industry 4.0 in Various Economies 

Industry 4.0 is being implemented in several economies to drive Innovation, streamline industrial structures, improve labour 

competencies, and remove technology and resource barriers for long-term performance improvement. The initiative seeks 

to improve industrial capability through Innovation, industry structure optimization, quality emphasis, talent training, and 

green manufacturing (Tortorella et al., 2021). However, in implementing this ambitious plan, the industry often faces 

challenges like resource constraints and technological barriers (L. Li, 2018). Larger performance (LP) gains result from the 

LP technique's good association with Industry 4.0 technology, according to data from a survey of 110 businesses. Contextual 

variables also play a role, although not all aspects are equally significant (Tortorella & Fettermann, 2018). Industry 4.0 

impacts operational performance improvement through process-related technologies, reducing low setup effects and 

positively influencing flow practices, while process-related technologies negatively influence low setup effects (Tortorella 

et al., 2019).  

 

Cluster 5 (Purple): Overcoming Obstacles to Industry 4.0 Adoption 

Smart cities are significantly influenced by environmental, technological, social, and legal challenges (Aghimien et al., 

2022). In addition, the structures made of glass are capable of supplying lighting resources, solar energy, and water 

management. All three can be applied in the same context, namely the triple bottom line, corporate social responsibility, 

and Industry 4.0, to enhance the sustainable healthcare supply chain 4.0 (Daú et al., 2019). Technology infrastructure is 

necessary in developed nations, but in underdeveloped nations, standards and laws might be improved to encourage adoption 

(Raj et al., 2020). Overcoming these obstacles requires awareness campaigns, improved resource allocation, and simplified 

legislation to support easier transitions to Industry 4.0. Unlocking the full potential of Industry 4.0 across multiple sectors 

will undoubtedly require both proactive measures and technological improvements. 

A Summary of the bibliographic coupling analysis is presented in Table 3, which includes cluster number and color, 

cluster label, number of publications, and representative publications. 

 

Table 3. Bibliographic coupling analysis on Industry 4.0 in developing countries: emerging and future trends 

 
Cluster color 

and number 

Cluster label Number of 

publications 

Representative publication 

1 Red Global Developments and Industry 4.0 
Technologies' Effects on the Environment 

15 Chien et al. (2017), Y. Li et al. (2022), Chen and Kim 
(2023), Elheddad et al. (2021) 

2 Green Industry 4.0 Adoption and Sustainability in 

Developing Economies 

9 Akbari and Hopkins (2022), Yadav et al. (2020), Raut 

et al. (2019), Bag et al. (2020) 

3 Blue Opportunities and Difficulties of Industry 4.0 

Adoption in Developing Nations 

8 Bogoviz et al. (2019), Chauhan et al. (2021), Luthra 

and Mangla (2018), Sharma et al. (2021) 

4 Yellow Implementation of Industry 4.0 in Various 

Economies 

6 L. Li (2018). Tortorella and Fettermann (2018), 

Tortorella et al. (2021), Tortorella et al. (2019) 

5 Purple Overcoming Obstacles to Industry 4.0 

Adoption 

6 Aghimien et al. (2022), Daú et al. (2019), Raj et al. 

(2020) 

 

Co word Analysis 

Using the same database, three clusters were produced when 35 of the 2277 keywords displayed by the co-word analysis 

satisfied 19 thresholds. The terms “industry 4.0” (194 occurrences), “Industry 4” (91 occurrences), and “management” (81 

occurrences) are the most often occurring keywords. Table 4 displays the top 15 keywords in the co-occurrence of keywords 

analysis.  

 

Table 4. The top 15 keywords in the co-occurrence analysis 

 
Rank Keyword Occurrences TLS 

1 Industry 4.0 194 600 

2 Industry 4 91 425 

3 Management 81 355 

4 Sustainability 63 337 

5 Challenges 60 306 

6  Performance 75 305 

7 Innovation 85 300 



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51 

8 Future 58 294 

9 Internet 51 283 

10 Barriers 46 261 

11 Impact 60 234 

12 Model 47 234 

13 Framework 46 232 

14 Supply chain 45 221 

15 Things 22 221 

 

The network structure of co-word analysis is displayed in Figure 3. Three clusters in the artwork stand for three 

different subjects. The three clusters are given labels based on the author's inductive interpretation. These clusters depict 

three themes based on the keywords covered below. 

 

 
Figure 3. Analysis of co-occurrence in Industry 4.0 in developing countries, emerging, and future trends 

 

Cluster 1 (Green): Sustainable Development and Industry 4.0 

With the introduction of cutting-edge technologies like cloud computing, IoT, and cyber-physical systems (CPS), Industry 

4.0 revolutionises automation and connectivity. However, a lack of clarity and defined ready frameworks makes it difficult 

for many firms to grasp and implement (Aghimien et al., 2022). Building on the developments of earlier industrial 

revolutions, the fourth one uses connected technology to combine the digital and physical worlds. It drives Innovation, 

changes modern life and production, and presents new opportunities and difficulties (Xu et al., 2018). A modern perspective 

on sustainable development highlights key global challenges, including poverty, climate adaptation, and ecological balance, 

emphasizing the evolving strategies and collaborative efforts to address these issues, particularly in developing nations 

(Elliott, 2012).  

 

Cluster 2 (Red): Combining Industry 4.0 with Sustainability 

Sustainability and Industry 4.0 encourage innovative approaches to addressing challenging sustainability issues and 

maximizing long-term value across various sectors. Sustainability is a multifaceted idea and promotes an integrated strategy 

to deal with its issues. With an emphasis on integrated reporting, it addresses the functions of reporting systems, business 

models, and governance (Giovannoni & Fabietti, 2013). The attitude impacts skills and task performance in fraud risk 

assessment for accountants amid the changing work environment due to emerging technologies. It aims to influence policy 

and capacity building in the public sector (Popoola et al., 2018). In order to optimize life cycle value and improve 

sustainability, the paper explores incorporating Industry 4.0 principles into various industries. To promote the industry's use 

of digital technology, it highlights research gaps and the necessity of specialist techniques (Alaloul et al., 2018).  

 

Cluster 3 (Blue): Influence and Function of New Technologies on Sustainability, Industries, and Healthcare 

Emerging technologies like IoT, AI, blockchain, and Industry 4.0 are changing healthcare, industries, and sustainability by 

promoting efficiency, transparency, and Innovation. The roles that IoT, Industry 4.0, AI, and blockchain play in day-to-day 

operations while examining their effects on healthcare, industries, and society (Tabassum et al., 2021). Blockchain and 

Industry 4.0 technologies are converging in reshaping business models by enhancing transparency, efficiency, and data 

security. Their integration brings significant developments, particularly in healthcare and supply chain management (Chand 

Bhatt et al., 2021). Industry 4.0's sustainability features emphasize how it affects environmental, social, and economic 

sustainability. Industry 4.0 tools are deployed in production, addressing issues such as managing a circular supply chain, 

servitization, and production planning. 



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52 

Co-word analysis, including cluster number and color, cluster label, number of keywords, and sample keywords, 

is summarised in Table 5. 

 

Table 5. Summary of co-word analysis on Industry 4.0 in developing countries: emerging and future trends 

 
Cluster color 

and number 

Cluster label Number of 

keywords 

Representative Keywords 

1 (Green) Sustainable Development and Industry 

4.0 

12 Fourth industrial revolution, Innovation, Industry 4.0, technology 

2 (Red) Combining Industry 4.0 with 

Sustainability 

12 Sustainability, emerging economy, challenges 

3 (Blue) Influence and Function of New 

Technologies on Sustainability, 

Industries, and Healthcare 

11 Industry 4, future, model, technology 

 

DISCUSSIONS 

The study has significant theoretical and managerial consequences for developing and implementing Industry 4.0 

technologies, especially in developing economies. Theoretically, this study advances knowledge of how Industry 4.0 

concepts impact Innovation and sustainability. This is related to cluster 3 ("Opportunities and Difficulties of Industry 4.0 

Adoption in Developing Nations"). This study explores the impact of contextual factors on digital transformation, 

highlighting Industry 4.0's potential to foster Innovation, productivity, and sustainability while addressing sustainability 

issues (Alhammadi et al., 2024). The revolutionary role that Industry 4.0 technologies play in improving the performance 

of green Innovation through resource efficiency and sustainability. Open Innovation is an important collaborative model 

that significantly enhances the process of generating environmentally friendly innovations. For instance, the application of 

TBL (Triple Bottom Line), CE (Circular Economy), and SBMs (Sustainable Business Models) can help fix institutional 

challenges and help foster sustainable development in developing countries. The present work extends current theories on 

digital transformation by including findings on the institutional and economic constraints on integrating sophisticated 

technology. Theoretical impacts particularly demonstrate how Industry 4.0 technologies enable several types of creativity 

that incorporate TBL, CE, and SBMs to foster sustainability. To boost the SDGs' contribution, this research calls for more 

focus on relatively underexplored domains of innovation research that encompass marketing and organizational innovations 

(Alojail & Khan, 2023). 

The paper also stresses the importance of managers mitigating the challenges of Industry 4.0 adoption in terms of 

its managerial aspects. In this way, the managers can avoid challenges such as reluctance to change, lack of experience, and 

poor support. Sustainable solutions involve calls for strategic investments in digital technology, collaboration ecosystems, 

and building the healing capacity of the nation’s workforce. The similar results also underscore the significance of co-

optation as well. Real sustainability improvements are realized when an organization’s digital change agenda is designed to 

support the organization’s achievement of the Sustainable Development Goals (Alojail & Khan, 2023). The study suggests 

that advanced analytics tools can enhance supply chain management and organizational efficiency, allowing managers to 

incorporate big data, machine learning, and predictive insights for flexibility. Proactive strategies address work pressure and 

talent retention. Organisations could enhance their performance, comprehend supply chain dynamics, and make far more 

precise demand predictions with the aid of real-time data or even predictive and machine learning (Agrawal et al., 2023). 

Organizations must address challenges like resistance, inexperience, and poor infrastructure through strategic investments 

in digital technology, collaborative ecosystems, and workforce development, aligning with Sustainable Development Goals 

for improved long-term sustainability (Alojail & Khan, 2023). The study emphasizes the potential of advanced analytics 

and data-driven decision-making in supply chain optimization, encouraging managers to adopt technologies like big data 

and machine learning. These difficulties from Cluster 3 (Opportunities and Difficulties of Industry 4.0 Adoption in 

Developing Nations) and Cluster 5 (Overcoming Obstacles to Industry 4.0 Adoption) are made worse in developing nations 

by poor acquisition of new technologies and constrained finances and infrastructure (Ayalew & Xianzhi, 2020).  

Managers must adopt advanced technology like AI, Machine learning, and IoT for real-time data-driven decisions 

in resource-sensitive settings. Industry 4.0 promotes smooth digitization, and sound risk management strategies are essential 

for enhancing operational performance and meeting Quality 4.0 standards (Mohamed et al., 2019). Combining Six Sigma 

techniques with business 4.0 technology can enhance performance across industries by prioritizing middle management 

training, integrating innovative technologies, and optimizing production processes (Akanmu & Nordin, 2022). Tailored 

strategies that address resource limitations, foster resilience, and stimulate creativity can significantly aid developing 

economies. 

 

CONCLUSIONS 

The primary purpose of this study was to investigate the adoption of Industry 4.0 in developing countries by systematically 

identifying the barriers, opportunities, and future directions through bibliometric mapping. Industry 4.0, a technological 

shift enabling automation, analytics, and IoT, could remove growth constraints in developing countries, encourage 

Innovation, and advance sustainability. However, overcoming barriers like infrastructural, financial, and staff preparedness 

is crucial. Policymakers must promote investments in digital enablers and provide enabling policies and regulatory 

environments. Further research should investigate the applications of blockchain and AI technologies across various 

industries. Harmonizing these technologies with sustainable development goals could foster a robust approach. 

Industrialized nations have fundamental variations from developing economies regarding institutional and economic 



Hammad et al., Bangladesh Journal of Multidisciplinary Scientific Research 10(6) (2025), 46-55

 

53 

constraints (Bogoviz et al., 2019).  Another limitation is the possibility of bias from the qualitative character of the co-word 

analysis and bibliographic coupling employed in this investigation. The findings may not be as objective as they would be 

if the grouping and theme trends are subjectively interpreted.  

The study focuses on broad patterns in developing countries, and not specific contextual elements. Institutional, 

cultural, and economic factors influence the adoption of Industry 4.0. Future studies should perform comparative analysis 

and examine grey literature and real-time data for a comprehensive understanding of the rapidly developing topic. If 

empirical studies are used in several industrial contexts, a more comprehensive view of Industry 4.0 implementation and 

challenges could be acquired (Ghobakhloo, 2020). Technologies that have received less attention, such as blockchain, 

quantum computing, and artificial intelligence, require focus to capture their disruptive nature correctly (Gökalp et al., 

2017). Also, there is a need to understand how government policies and collaborations with international partners can help 

break down barriers to adoption, especially concerning infrastructure and end-user readiness (Ibrahim et al., 2022). 

However, studies on integrating Industry 4.0 with the Sustainable Development Goals remain important, as they suggest 

that such integration will benefit resource-deficient regions of the developing world (Mubarak et al., 2021).  

Future research should extend beyond bibliometric mapping to include comparative empirical studies across 

developing countries, particularly in SMEs and agriculture-based industries. Mixed-method approaches that combine 

bibliometric, survey, and case study evidence would provide richer insights into adoption patterns and barriers. Emerging 

technologies such as blockchain, quantum computing, and AI also require deeper investigation to capture their disruptive 

potential in resource-limited contexts. Furthermore, the role of government policy and international partnerships deserves 

closer scrutiny to understand how coordinated efforts can overcome institutional voids and accelerate Industry 4.0 adoption. 
 

 
Author Contributions: Conceptualization, M.Y.H. and S.R.R.; Methodology, M.Y.H. and M.A.F.; Software, M.Y.H. and M.A.F.; Validation, P.F.M.T.; 
Formal Analysis, M.Y.H.; Investigation, M.Y.H.; Resources, M.Y.H.; Data Curation, M.Y.H.; Writing – Original Draft Preparation, M.Y.H.; Writing – 

Review & Editing, S.S. and S.R.R.; Visualization, M.A.F.; Supervision, S.R.R.; Project Administration, M.Y.H.;  Funding Acquisition, S.R.R., M.A.F.,  

P.F.M.T., and S.S. Authors have read and agreed to the published version of the manuscript. 
Institutional Review Board Statement: Ethical review and approval were waived for this study, due to that the research does not deal with vulnerable 

groups or sensitive issues. 

Funding: This study is funded by Universiti Malaysia Pahang Internal Grant funds, with Grant No. RDU230307 
Acknowledgments: The authors thank AI tools developers, as this study benefited from these tools in enhancing the presentation flow and language 

editing. 

Informed Consent Statement: Informed consent was obtained from all subjects involved in the study. 
Data Availability Statement: The data presented in this study are available on request from the corresponding author. The data are not publicly available 

due to restrictions. 

Conflicts of Interest: The authors declare that they have no conflicts of interest.              

                                                                                                                                                                                                                      

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