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Review

Contributions of the 5G Network with Respect to Decent Work and Economic Growth (Sustainable Development Goal 8): A Systematic Review of the Literature

by
Saul Beltozar-Clemente
1,
Orlando Iparraguirre-Villanueva
2,
Félix Pucuhuayla-Revatta
3,
Fernando Sierra-Liñan
4,
Joselyn Zapata-Paulini
5,* and
Michael Cabanillas-Carbonell
6
1
Dirección de Cursos Básicos, Universidad Científica del Sur, Lima 15097, Peru
2
Facultad de Ingeniería y Arquitectura, Universidad Autónoma del Perú, Lima 15842, Peru
3
Facultad de Ingeniería, Universidad Tecnológica del Perú, Lima 15306, Peru
4
Facultad de Ingeniería, Universidad Privada del Norte, Lima 15306, Peru
5
Escuela de Posgrado, Universidad Continental, Lima 15311, Peru
6
Escuela Técnica Superior de Ingenieros de Telecomunicación, Universidad Politécnica de Madrid, 28040 Madrid, Spain
*
Author to whom correspondence should be addressed.
Sustainability 2023, 15(22), 15776; https://doi.org/10.3390/su152215776
Submission received: 25 September 2023 / Revised: 22 October 2023 / Accepted: 2 November 2023 / Published: 9 November 2023
(This article belongs to the Collection Technological Innovation and Economic Growth)

Abstract

:
Decent work and economic growth are fundamental elements for the sustainable development of a society, with Sustainable Development Goal 8 (SDG8) being one of the key objectives of the United Nations’ 2030 Agenda. The 5G network has great potential to contribute significantly to the achievement of SDG8, offering faster and more reliable connectivity, which opens up new possibilities for innovation, operational efficiency, and job creation. The present study aimed to investigate the role of 5G technologies concerning decent work and economic growth (SDG8). As part of the method, 265 articles extracted from main databases such as Scopus, IEEExplore, and ScienceDirect were analyzed using the PRISMA methodology, resulting in 74 relevant articles after applying the inclusion and exclusion criteria. As a result, a greater contribution to the use of the 5G network was identified in sectors such as manufacturing, health, and transportation, generating greater economic growth and job creation. It was also found that the technological applications with the greatest contributions are “Internet of Things” and “Artificial intelligence”. Finally, it was concluded that the results of this review are useful for future research on technologies that support 5G networks, contributing to economic growth and equitable and sustainable decent work in a wide range of sectors and rural areas.

1. Introduction

Decent work and economic growth are two key objectives of the global sustainable development agenda [1]. The International Labor Organization (ILO) plays a central role in promoting decent work, which is defined as “productive work carried out in conditions of freedom, equity, security and human dignity” [2]. Decent work is important for individual workers’ well-being and it is fundamental for sustainable economic growth and poverty reduction. When people have decent and adequately paid employment, they can consume, invest, and contribute to the economic development of their countries. Global economic growth is a key indicator of a country’s development and prosperity. It is also important to consider an economic and environmental concept that seeks to change the way we produce, consume, and manage resources in society; the circular economy [3] can be used as an innovative approach that can transform the way economies and societies operate, promoting environmental sustainability and economic growth at the same time. The world Gross Domestic Product (GDP) is a broad measure of global economic growth. The International Monetary Fund (IMF) expected the world economy to grow by 6% in 2021, in stark contrast to 2020, when it experienced a contraction of −3.3% due to the COVID-19 pandemic, and the year 2022, which was estimated to register a growth of 4.4%. In terms of economic developments, stronger growth was projected in 2021, at 5.1%, compared to figures of −4.7% in 2020 and 3.6% in 2022. This reflects a significant improvement in the economic outlook for 2021 and 2022 compared to 2020 [4]. The World Bank estimated that the world economy grew by 2.9% in 2019. However, due to the effects of the COVID-19 pandemic, there was an estimated contraction of 3.5% in 2020. A gradual recovery is expected in the coming years, with projected growths of 5.6% in 2021 and 4.3% in 2022 [5]. Foreign direct investment (FDI) plays a crucial role in global economic growth by driving investment, job creation, and technology transfer. According to the United Nations Conference on Trade and Development (UNCTAD), the FDI declined by 42% in 2020 due to the COVID-19 pandemic, but a gradual recovery is expected in the coming years [6]. International trade is an important driver of global economic growth. According to the World Trade Organization (WTO), the volume of world trade in goods is expected to grow by 8.0% in 2021, following a 5.3% contraction in 2020. However, the outlook remains uncertain due to the economic and health challenges related to the pandemic [7].
However, globally, there are still significant challenges in promoting decent work and equitable economic growth. Labor informality, unemployment, underemployment, and the gender gap in employment are some of the persistent problems faced by many economies [8]. In this context, it is crucial to implement policies and strategies that promote decent work and inclusive economic growth. This implies fostering entrepreneurship, strengthening labor skills, promoting equal opportunities, and guaranteeing social protection for workers [9]. Investments in education, training, and skill development are essential to improve the employability and productivity of workers. In addition, it is important to foster the creation of quality jobs, especially in sectors that drive innovation, technology, and sustainability [10].
The COVID-19 pandemic has exacerbated existing challenges to decent work and economic growth worldwide. The health crisis has led to significant economic contraction, job losses, and increased inequality. Economic recovery and the promotion of decent work have become urgent priorities for governments and international organizations [11]. It should also be noted that decent work and economic growth are fundamental elements for the sustainable development of a society [12]. Decent work refers to jobs that offer fair, safe, and dignified conditions with social protection and labor rights. On the other hand, economic growth implies a sustained increase in production and the generation of wealth in an economy.
In this context, the 5G network, or the fifth generation of mobile technology, has emerged as a transformative tool with the potential to significantly boost decent work and economic growth. This high-speed, low-latency wireless network offers faster and more reliable connectivity, opening up new possibilities for innovation, operational efficiency, and job creation [13]. It is transforming the way we work and how business operations are conducted in a variety of industries. Its advanced technical capabilities, such as low latency and increased connectivity capacity, are enabling the development of innovative applications and technologies that improve productivity and the quality of work. Investment in research and development (R&D) and the adoption of innovative technologies are key drivers of economic growth. According to the Global Innovation Index 2020, published by the World Intellectual Property Organization (WIPO), countries such as Switzerland, Sweden, and the United States lead the innovation ranking, boosting their economic growth [14]. This systematic literature review aims to examine how the 5G network impacts decent work and economic growth in line with Sustainable Development Goal 8. It will analyze how this technology influences productivity, innovation, and job creation, exploring the link between 5G-related R&D investment and economic growth based on a previous study.
This article is structured in seven different sections. After the Introduction, Section 2 presents the literature review. Section 3 presents the method followed to review the literature. Section 4 shows the results. Section 5 discusses the results. Section 6 presents the main conclusions of the article, and finally, Section 7 presents the limitations and recommendations of the research.

2. Literature Review

The 5G network, or the fifth generation of mobile technology, has been considered one of the most important innovations in wireless communications [15]. It offers significantly faster data transfer speeds, a lower latency, and a higher connectivity capacity than previous generations of mobile networks. It has great potential to contribute to the achievement of Sustainable Development Goal 8 of the United Nations’ 2030 Agenda, which focuses on decent work and sustainable economic growth [16], as it drives operational efficiency, fosters innovation, and creates new business opportunities. Below are some key points about the impact of the 5G network on these aspects.

2.1. Impact of 5G on Economic Growth

The 5G network provides significantly faster data transfer speeds and increased connectivity capacity, enabling the adoption and development of new digital technologies and services [17]. This technology is driving digital transformation in multiple sectors, such as manufacturing, healthcare [18], transportation [19], and agriculture [20], generating new business opportunities and increasing productivity. The implementation of the 5G network is driving investments in infrastructure and related technology development, which, in turn, stimulates economic growth [21].

2.2. Impact of 5G on Decent Work

The 5G networks facilitate teleworking and remote collaboration, enabling greater work flexibility and the inclusion of people who previously had barriers to accessing certain jobs [22]. The increased connectivity and low latency of the 5G network facilitate real-time communication, improving efficiency [23] and decision making in work environments. The implementation of the 5G network also creates jobs in several sectors [24], including network-related technology, infrastructure, and services [25]. Telework and remote collaboration are clear examples of how the 5G network is boosting decent work [26].
With significantly faster data transfer speeds, the 5G network enables real-time communication, facilitating collaboration and flexible working. This provides opportunities for people to access jobs that were previously limited by geography or mobility barriers, contributing to labor inclusion and an improved work–life balance [27]. In addition, the 5G network drives industrial automation and advanced robotics, which improve efficiency and productivity in industry [28]. This enables the creation of more specialized and higher value-added jobs, as repetitive and monotonous tasks can be taken over by machines, freeing up workers for more creative and strategic tasks.
Likewise, the 5G network is driving digital transformation in sectors such as healthcare, agriculture, and smart cities. Telemedicine and remote healthcare benefit from the connectivity and low latency of the 5G network [18], which facilitates access to quality health services, especially in remote and rural areas. In agriculture, the 5G network enables smart agriculture by enabling the efficient monitoring and management of crops, irrigation, and livestock through sensors and data analysis [29]. In smart cities, the 5G network optimizes the management of urban services [30], such as transportation, lighting, and waste, leading to urban efficiency and sustainability [31]. These are just a few examples of how the 5G network is contributing to decent work and economic growth. As this technology becomes more widely deployed and adopted, its impact is expected to continue to expand, generating new opportunities and improving the quality of work in various sectors of the economy.

3. Methodology

This section is structured as follows: (1) purpose and questions, (2) type of study, (3) search strategy, and (4) inclusion and exclusion criteria.

3.1. Research Purpose and Questions

Based on the literature review, this study will analyze the impact of the use of 5G technologies on poverty reduction and how these technologies are integrated in different sectors to contribute directly and indirectly to poverty alleviation. The research questions are as follows:
  • RQ1. How can the 5G network drive job creation in specific sectors, such as manufacturing, healthcare, and transportation?
  • RQ2. How can the 5G network improve operational efficiency and productivity in different economic sectors?
  • RQ3. What opportunities does the 5G network offer for automation and advanced robotics in industry, and what is its impact on existing jobs?
  • RQ4. What are the specific applications of the 5G network in digital health and how can they improve access to healthcare services and generate employment in the healthcare sector?

3.2. Type of Study

The systematic literature review (SLR) method was chosen to develop this study because of its contribution to support practice and policy, as well as to guide future research [32]. The PRISMA method [33], which is recognized as a highly effective tool for producing quality systematic reviews, was applied because of its ability to standardize processes, minimize bias, ensure scientific rigor, and present transparent results. This is essential for an accurate assessment of the impact of 5G technology on the achievement of SDG8.

3.3. Search Strategy

The data collection method was based on a search of reliable sources, for which a review of articles was carried out, among which the following databases stood out: Scopus, ScienceDirect, and IEEE Xplore, among others. It shows the search terms and literary resources [34] used in this study that will be taken into account in the search process. A total of 265 articles were found, of which 74 relevant articles were obtained by applying the different inclusion and exclusion criteria, as shown in Figure 1 and Appendix A.
When applying the search to all of the information related to the research topic, the following keywords were considered: 5g AND (“economic growth” OR “decent work”), “Economic growth” AND ((“decent work” OR “Digital economy” OR “Job creation”) OR 5g), 5g, AND “economic growth, and “5G’s contribution to job creation”.
Three stages were used for the selection and evaluation of the collected studies. After the first search phase, in the second phase, the titles and abstracts of 191 articles were analyzed using the inclusion and exclusion criteria; finally, in the third phase, 74 articles were selected for analysis and synthesis. Figure 2 shows the process of the selection and evaluation of the studies.

3.4. Inclusion and Exclusion Criteria

For the systematic review study, the inclusion and exclusion criteria shown in the table below were applied (Table 1).

4. Results

A total of 265 articles found in the databases related to the research topic were analyzed, and duplicate articles that did not meet the inclusion criteria were discarded. After reviewing the articles, 191 articles were excluded according to the exclusion criteria and because they did not answer the research questions, and 74 articles were obtained for systematic review.
Figure 3 shows the automation that was performed based on the PRISMA method, according to [35], mentioning the importance of this process to explain, in detail and in a transparent manner, the evaluation of the article. The inclusions and exclusions are specified in accordance with the aspects considered.
This graph (Figure 4) shows the number of articles found in the database, analyzed according to the year of publication.
Created using the VoSviewer tool [36], Figure 5 shows a bibliographic network map generated among the countries with the most research on the SDG8 topic related to 5G networks.
Figure 6 shows a word cloud extracted from the keywords of the articles that were systematized using the R Studio software version 2023.06.1 for this bibliographic analysis. The following words stand out: 5G, economic growth, and digital economy. Figure 7 also shows the tree structure with the percentages of the most repeated words according to the bibliographic analysis.
Figure 8 reveals that, in the study, China tops the list with 24 articles dedicated to research on the topic of 5G network application for job creation, closely followed by India with 13 articles. In addition, Greece has six articles, while Italy and Pakistan have three articles each in this research area.
Figure 9 also shows the authors with the highest numbers of citations per year from the articles related to the present publication, with an average of 5 TCs (total citations).

5. Discussion

5.1. Answer to the Questions

In this systematic review of the scientific literature, we analyze the impact of 5G technology on decent work and economic growth and identify the best technologies, the most frequent implementation tools, as well as the largest amount of research based on the type of sector in order to answer the proposed questions.
RQ1: 
How can the 5G network drive job creation in specific sectors, such as manufacturing, healthcare, and transportation?
As seen in Figure 8, China leads in the number of articles that were published in recent years related to the application of the 5G network in job creation. In addition, Figure 9 highlights that Chinese authors lead in terms of the research and mastery of 5G technology application in the context of job and economic growth. Considering this, Figure 10 shows the articles related to this topic, where the applications that have impacts on the economy through the health, transportation, and manufacturing industry sectors are identified. Of these, we can highlight the following: smart transportation (9), telemedicine (19), and smart manufacturing (14).
From Table 2, it can be seen that the 5G network drives job creation in the manufacturing industry through 5G-enabled smart manufacturing, enabling the implementation of automated systems, collaborative robotics, and predictive maintenance, which improves production efficiency and creates new job opportunities in terms of monitoring and managing these systems. The 5G network drives job creation in the healthcare sector through high-speed telemedicine and remote surgery, and it creates jobs related to these technologies. For the transportation sector, the 5G network drives job creation through intelligent traffic management and connected transportation systems, which enable real-time data collection and exchange between vehicles, infrastructures, and devices, facilitating efficient traffic management, road safety, and autonomous navigation. This drives job creation in areas such as the development of smart mobility applications, data analytics, and infrastructure maintenance.
These specific applications of 5G technology open new job opportunities and contribute to economic growth in each sector.
Figure 11 shows an analysis classified by the type of 5G technology used by each sector, with those with the greatest impacts being healthcare, transportation and manufacturing, agriculture, tourism, and education.
The Table 3 shows the digital technologies of the articles according to the results found. Among the most outstanding are the Internet of Things, artificial intelligence, sensor networks, machine learning, big data, blockchain, and virtual reality, among others.
RQ2. 
How can the 5G network improve operational efficiency and productivity in different economic sectors?
Figure 12 shows the items analyzed for their uses and impacts on operational and productive efficiency through 5G network-based technologies.
The Table 4 provides, in detail, the items analyzed based on sector according to the parameters and functionality topics, providing evidence that the 5G network mainly improves operational efficiency and productivity in the health sector with the use of telemedicine, which enables remote medical care, patient monitoring, and the connectivity of medical devices, improving the quality of care. In the manufacturing industry, the 5G network improves operational efficiency and productivity through automation and industrial robotics that allow for the adoption of technologies such as the Internet of Things (IoT) and advanced robotics, leading to greater productivity, efficiency, and competitiveness. Likewise, in the transportation sector, the 5G network improves operational efficiency and productivity by driving the implementation of smart cities; promoting the development of innovative urban solutions, such as the efficient management of public services; and driving the implementation of 5G in autonomous vehicles and in transportation infrastructure to improve efficiency, safety, and user experience.
RQ3. 
What opportunities does the 5G network offer for automation and advanced robotics in industry, and what is its impact on existing jobs?
The 5G network offers opportunities to enhance automation and advanced robotics in industry, which can increase efficiency and productivity. While there may be changes in existing jobs, new job opportunities also open up in areas related to the supervision and management of automated systems, contributing to the development of specialized skills and sustainable economic growth. This graph (Figure 13) shows the number of selected articles, grouped by their contributions to and impacts on automation and advanced robotics in industry.
Table 5 shows the classification of articles based on the contributions they offer through the use of 5G technologies in automation and advanced robotics in industry, according to the results found: real-time communication and control, remote monitoring and maintenance, and automation and collaborative robotics. It is important to note that while the implementation of automation and advanced robotics may affect some existing jobs, it also creates new job opportunities in terms of supervision, programming, maintenance, and the management of automated systems. In addition, it can foster the creation of jobs in related sectors, such as software development, robotics engineering, and specialized technical training.
RQ4. 
What are the specific applications of the 5G network in digital health and how can they improve access to healthcare services and generate employment in the healthcare sector?
The specific applications of the 5G network in digital health are diverse and have the potential to improve access to healthcare services and generate employment in the healthcare sector. Some of these applications are presented in Figure 14 below. The most impactful of these are remote monitoring and diagnosis, which enable the remote monitoring of patients through connected medical devices, such as sensors and wearable devices, via the 5G network. These devices can collect health data in real time and transmit them to healthcare professionals, enabling more accurate monitoring and the early diagnosis of medical conditions. This improves the quality of care and may require additional staff for data analysis and the interpretation of results. Secondly, we have remote and collaborative surgery, which, due to the low latency and high data transmission capacity of 5G, enables remote and collaborative surgeries. Surgeons can control surgical robots precisely and in real time, even over long distances. This expands the access to specialized services, as experts can provide real-time assistance from any location, which, in turn, can generate employment in the development and maintenance of these technologies.
Table 6 shows, in detail, the items analyzed based on 5G technologies and the medical applications that enable the improved access to healthcare services that overcome geographical barriers and increase the efficiency of communication between patients and healthcare professionals. In addition, the implementation of these technologies can generate employment in the development, implementation, and maintenance of digital health-related infrastructures and services.

5.2. Related Work

Other articles, such as [107], were searched for their relation to the current adoption of technology in different rural areas such as agriculture, education, and healthcare. The systematic review was carried out in the following scientific databases: Taylor and Francis, IEEExplore, Scopus, Springer Link, Wiley Library, and ACM. Finally, 83 contributions were selected from the 234 retrieved articles. It was concluded that SMEs need to obtain a competitive advantage based on use and good technological management to improve business sustainability and economic growth through the effective management of business resources, considering that the smart city model can be adopted and applied effectively in rural contexts, as well as how smart technologies can accelerate the automation of critical processes that often require a large number of employees. This results in the creation of additional employment opportunities for skilled workers in rural areas.
In [108], a bibliometric analysis supported by the Web of Science (WoS) database was carried out through the science mapping methodology in order to evaluate the impact of teleworking at the cost level; it was found that for companies, it generally implies savings, taking into account the consumption of energy, internet connections, and tools; likewise, it reflects “apparent” savings for the worker in the reduction in travel costs to the companies.
On the other hand, in [109], a study on the role of greener innovations in promoting financial inclusion to achieve carbon neutrality was carried out; it mainly sought to explore the intertwined role of greener innovations in supporting financial inclusion for a sustainable future. As a methodology, the research approach of carrying out a bibliometric analysis and systematic literature reviews (SLRs) was applied; after applying the search strategies, 290 articles were finally considered for the final review. The analyzed results show that technological innovation can play a key role in financial inclusion towards carbon neutrality and can have some important policy implications, already generating positive effects in the short term, with important environmental, economic, and social repercussions.
Finally, the authors of [110] conducted a search from a corpus of 95 articles based on how technologies and data sources can be used to achieve a given SDG. It was identified that the adoption of artificial intelligence (AI) poses benefits and changes for industries and companies to address the great challenges of our society, driving job creation through initiatives such as building sustainable cities (environment), advancing medical diagnostics (society), and fostering innovation (economy).

6. Conclusions

After performing a systematic literature review of 74 articles related to the topic in question, it was concluded that the 5G network has an important contribution to decent work and economic growth. Through its ability to offer fast, reliable, and massive connectivity, the 5G network boosts job creation in various sectors and promotes sustainable economic development. The implementation of the 5G network implies the need to expand and improve telecommunications infrastructure, which generates employment in the installation, maintenance, and management of this infrastructure. Based on Figure 10 and Table 2, we conclude that the adoption of 5G technologies has a greater impact on sectors such as manufacturing, health, and transportation and creates new job opportunities in terms of monitoring, programming, data analysis, and application development.
The functionality parameters considered in the applications enabled through the 5G network in the main sectors are associated with “Real-time communication and control”, “Automation of repetitive and dangerous tasks”, “Remote monitoring and maintenance”, and “Collaborative robotics”.
Also, it was concluded that the medical applications that generate the greatest amount of employment mainly use artificial intelligence, Internet of Things, and sensor networks. These technologies are based on the 5G network that allows for a fast and reliable connection, which facilitates the implementation of high-speed telemedicine services. Healthcare professionals can perform online consultations, remote diagnostics, and patient monitoring through high-quality videoconferencing. This improves the access to medical care, especially in rural or remote areas, where distance can be an obstacle.
In summary, the 5G network has a significant contribution to decent work and economic growth by generating employment, driving innovation, improving productivity, promoting the digital economy, and facilitating access to employment and educational opportunities. Its proper deployment and adoption can lead to sustainable economic growth and the creation of quality jobs in various sectors, thereby strengthening social development and improving people’s quality of life. Based on the results obtained, it is recommended for future research in the scope of this review to consider other factors such as government policies and cultural and social factors.
Finally, it is important to understand that the results of this systematic review are useful for future research to promote the research and development of 5G network-enabled technologies that contribute to economic growth and decent work in various sectors and rural areas, thus enabling sustainable and equitable economic development.

7. Limitations and Recommendations

In this review, eligibility criteria were applied to focus on studies that focus directly on the contribution of 5G technology to decent work and economic growth. While this strategy ensures a precise focus, tangential work may have been excluded. In addition, by not considering studies published in books or theses, and by excluding articles that address other aspects of 5G technology, such as its social or environmental impacts, it is likely that complementary information that is relevant to a more complete understanding of the topic was left out. Finally, the limitation to articles in English could have excluded research in other languages, which could affect the overall representativeness of our review. If these limitations had not been applied, it is likely that we would have had a larger number of included articles. These limitations emphasize the need for future broader and more inclusive studies to address this topic comprehensively.

Author Contributions

Conceptualization, M.C.-C.; methodology, S.B.-C.; validation, F.S.-L.; formal analysis, O.I.-V. and F.P.-R.; investigation, J.Z.-P.; data curation, M.C.-C., J.Z.-P. and O.I.-V.; writing—original draft preparation, M.C.-C., J.Z.-P. and O.I.-V.; writing—review and editing, S.B.-C., F.P.-R. and F.S.-L.; visualization, S.B.-C. and F.P.-R. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

The data used in this systematic review were collected from publicly accessible sources cited in the references. No primary data were generated.

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A

Table A1. Articles excluded after application of the criteria.
Table A1. Articles excluded after application of the criteria.
No.Data BaseDoiTitlePublication YearStatusRemarks
1Scopus[111]The Internet of Things as an accelerator of advancement of broadband networks: A case of Thailand2018NOout of context
2[112]A novel radio multiservice adaptive network architecture for 5G networks2015NOout of context
3[113]Challenges of 5G usability in disaster management2018NOirrelevant
4[114]Beijing’s pain points2020NOout of context
5[115]Critical Internet of Things: An Interworking Solution to Improve Service Reliability2020NOout of context
6[116]UAV Network and IoT in the Sky for Future Smart Cities2019NOirrelevant
7[117]Downlink-uplink decoupled access in heterogeneous cellular networks with UAVs2020NOirrelevant
8[118]What drives Indian mobile service market: Policies or users?2020NOout of context
9[119]Special features of the architecture of 5G networks. Probabilistic forecasting of the impact of electromagnetic fields of radio frequencies on the population (literature review)2021NOreview
10[120]Norges debatt om kinesiske investeringer: Fra velvillig til varsom2020NOout of context
11[121]5G Core Security in Edge Networks: A Vulnerability Assessment Approach2021NOout of context
12[122]Innovative Ecological Economic System Based on 5G Network and Internet of Things2021NOirrelevant
13[123]Technological megashift and the EU: Threats, vulnerabilities and fragmented responsibilities2021NOout of context
14[124]Research on the Development of New Industries, New Formats and Models Based on information technology2021NOirrelevant
15[125]Lessons learned from FITech Turku, a 18 million euros university collaboration project to complement the regional demand for Master degree engineers2021NOout of context
16[126]Opportunity for Developing Ultra High Voltage Transmission Technology Under the Emission Peak, Carbon Neutrality and New Infrastructure2021NOout of context
17[127]The real economic costs of COVID-19: Insights from electricity consumption data in Hunan Province, China2022NOirrelevant
18[128]Research on 5G related technologies under the new generation of information technology2021NOirrelevant
19[129]Innovation in Information Technologies for the Achievement of SDG 9 in Mexico: Technology Policy Analysis2023NOout of context
20[130]Design and Implementation of Intelligent Feeding System Based-on the oneM2M2021NOirrelevant
21[131]Private 5G Practice in Oil and Gas Industry2022NOirrelevant
22[132]How ICT can contribute to realize a sustainable society in the future: a CGE approach2022NOirrelevant
23[133]A Proposal for Formulating a Spectrum Usage Fee for 5G Private Networks in Indonesian Industrial Areas2022NOout of context
24[134]Leveraging 5G to Enable Automated Barge Control: 5G-Blueprint Perspectives and Insights2023NOirrelevant
25[135]Evaluating the Forest Ecosystem through a Semi-Autonomous Quadruped Robot and a Hexacopter UAV2022NOout of context
26[136]Review on the COVID-19 pandemic prevention and control system based on AI2022NOreview
27[137]Research on the Impact of New Infrastructure on Economic Growth Based on R Language Data Modeling2022NOduplicate
28[138]The impact of criminal law regulation-based business environment optimization on entrepreneurial spirit and enterprise development2022NOout of context
29Science
Direct
[139]Systemic technology innovation management and analysis of other forms of IP protection2022NOreview
30[140]Assessing the relative importance of sustainability indicators for smart campuses: A case of higher education institutions in Nigeria2021NOirrelevant
31[141]Banking the unbanked. Constitutive rules and the institutionalization of mobile payment systems in Nigeria2023NOirrelevant
32[142]Discovering smart: Early encounters and negotiations with smart street furniture in London and Glasgow2023NOirrelevant
33[143]The impact of the FinTech revolution on the future of banking: Opportunities and risks2022NOirrelevant
34[144]Threading the needle of the digital divide in Africa: The barriers and mitigations of infrastructure sharing2020NOirrelevant
35[145]Detecting and developing new business opportunities in society 5.0 contexts: A sociotechnical approach2023NOout of context
36[146]Identifying industry 5.0 contributions to sustainable development: A strategy roadmap for delivering sustainability values2022NOirrelevant
37[147]The future of aging in smart environments: Four scenarios of the United States in 20502021NOirrelevant
38[148]Shared leadership, value and risks in large scale transport projects: Re-calibrating procurement policy for post COVID-192021NOout of context
39[149]Understanding the adoption of Industry 4.0 technologies in improving environmental sustainability2022NOirrelevant
40[150]Sustainability-oriented innovations in smart cities: A systematic review and emerging themes2022NOreview
41[151]Rolling out of fibre optic networks in intermediate versus urban areas: An exploratory spatial analysis in the Netherlands2021NOout of context
42[152]Network and information security challenges within Industry 4.0 paradigm2017NOout of context
43[153]How would the COVID-19 pandemic reshape retail real estate and high streets through acceleration of E-commerce and digitalization?2021NOirrelevant
44[154]Coopetition in the soc industry: The case of qualcomm incorporated2020NOout of context
45[155]Literature review: Anomaly detection approaches on digital business financial systems2022NOreview
46[156]Simulation of temperature control and irrigation time in the production of tulips using Fuzzy logic2022NOout of context
47[157]A survey of Network Neutrality regulations worldwide2022NOout of context
48[158]Clean energy-based rural low carbon transformation considering the supply and demand of new energy under government participation: A three-participators game model2022NOout of context
49[159]Expert model of risk assessment for the selected components of smart city concept: From safe time to pandemics as COVID-192022NOirrelevant
50[160]Path for China’s high-tech industry to participate in the reconstruction of global value chains2021NOout of context
51[161]China’s rise and its implications for International Relations and Northeast Asia2021NOirrelevant
52[162]Beyond automobility? Lock-in of past failures in low-carbon urban mobility innovations2022NOout of context
53[163]A framework for safer driving in Mauritius2017NOout of context
54[164]Knowledge on IT tools based on Ai maturity—Industry 4.0 perspective2019NOout of context
55[165]Model of functioning of the centralized wireless information ecosystem focused on multimedia streaming2022NOirrelevant
56[166]Preliminary investigation of late Mughal period wall paintings from historic monuments of Begumpura, Lahore2018NOout of context
57[167]Cyber- Physical Systems and Education 4.0—The Teaching Factory 4.0 Concept2018NOirrelevant
58[168]Diplomatic relations and cross-border investments in the European Union2023NOirrelevant
59[169]An assessment of the liberalization and the evolution of competition in the Moroccan mobile market2022NOout of context
60[170]The political economy of productivity growth2022NOout of context
61[171]COVID-19, China and the future of global development2020NOirrelevant
62[172]Making sense of smart tourism destinations: A qualitative text analysis from Sweden2022NOirrelevant
63[173]Does information communication promote financial development? Empirical evidence from China2023NOirrelevant
64[174]Financial technology as a driver of poverty alleviation in China: Evidence from an innovative regression approach2022NOout of context
65[175]Digitalization of railway service with the use of post-COVID-19 events2022NOout of context
66[176]Linguistic Pythagorean fuzzy CRITIC-EDAS method for multiple-attribute group decision analysis2023NOout of context
67[177]The run-up to the global financial crisis: A longer historical view of financial liberalization, capital inflows, and asset bubbles2020NOout of context
68[178]The Belt and Road Initiative (BRI): What Will it Look Like in the Future?2022NOout of context
69[179]Can digitalization improve enterprise sustainability? –Evidence from the resilience perspective of Chinese firms2023NOirrelevant
70[180]Twin transitions of decarbonisation and digitalisation: A historical perspective on energy and information in European economies2022NOirrelevant
71[181]Can digital economic attention spillover to financial markets? Evidence from the time-varying Granger test2022NOout of context
72[182]Model design and structure research for integration system of energy, information and transportation networks based on ANP-fuzzy comprehensive evaluation2018NOout of context
73[183]A Digitally Capable Mobile Health Clinic to Improve Rural Health Care in America: A Pilot Quality Improvement Study2022NOirrelevant
74[184]Does the digital economy contribute to carbon emissions reduction? A city-level spatial analysis in China2022NOirrelevant
75[185]An integrated socio-cyber-physical system framework to assess responsible digitalisation in agriculture: A first application with Living Labs in Europe2022NOout of context
76[186]IOT sensor-based pollution management control technique2022NOirrelevant
77[187]Mixed Reality or Simply Mobile? A Case Study on Enabling Less Skilled Workers to Perform Routine Maintenance Tasks2023NOout of context
78[188]The economic impact of mobile broadband speed2022NOirrelevant
79[189]Intelligent Manufacturing for the Process Industry Driven by Industrial Artificial Intelligence2021NOirrelevant
80[190]Remote poultry management system for small to medium scale producers using IoT2022NOirrelevant
81[191]Transformation of Supply Chain Management to Green Supply Chain Management: Certain investigations for research and applications2023NOirrelevant
82[192]Disruptive technologies that are likely to shape future jobs2020NOirrelevant
83[193]Acceptance of Chinese latecomers’ technological contributions in international ICT standardization—The role of origin, experience and collaboration2023NOout of context
84[194]Research on value co-creation elements in full-scene intelligent service2022NOout of context
85[195]Hue and cry over Huawei: Cold war tensions, security threats or anti-competitive behaviour?2019NOout of context
86[196]Social implications of smart cities2019NOirrelevant
87[197]Assessment of coordinated development between tourism development and resource environment carrying capacity: A case study of Yangtze River economic Belt in China2022NOirrelevant
88[198]Effect of the logistics industry on the promotion of China’s position in the global value chain: An international trade perspective2023NOirrelevant
89[199]Digital technologies can enhance climate resilience of critical infrastructure2022NOirrelevant
90[200]Surviving major disruptions: Building supply chain resilience and visibility through rapid information flow and real-time insights at the “edge”2022NOout of context
91[201]Broadband Connectivity, Government Policies, and Open Innovation: The Crucial IT Infrastructure Contribution in Scotland2022NOirrelevant
92[202]Technology sovereignty as an emerging frame for innovation policy. Defining rationales, ends and means2023NOirrelevant
93[203]Sustainable management of a leading Chinese telecommunication multinational: A case study of company X in host country Malaysia2023NOirrelevant
94[204]How can rural businesses thrive in the digital economy? A UK perspective2022NOout of context
95[205]Problems and Prospects for the Development of Urban Airmobility on the Basis of Unmanned Transport Systems2023NOirrelevant
96[206]The evolution of renewable energy environments utilizing artificial intelligence to enhance energy efficiency and finance2023NOirrelevant
97[207]Enhancing smart farming through the applications of Agriculture 4.0 technologies2022NOirrelevant
98[208]Malaysia’s Efforts toward Achieving a Sustainable Development: Issues, Challenges and Prospects2014NOout of context
99[209]Artificial intelligence technologies and related urban planning and development concepts: How are they perceived and utilized in Australia?2020NOirrelevant
100[210]Exploring the unique characteristics of environmental sustainability in China: Navigating future challenges2023NOirrelevant
101[211]Industry 4.0 technologies assessment: A sustainability perspective2020NOirrelevant
102[212]Evaluation on new first-tier smart cities in China based on entropy method and TOPSIS2022NOirrelevant
103[213]Trends in energy consumption under the multi-stage development of ICT: Evidence in China from 2001 to 20302022NOirrelevant
104[214]What’s driving the diffusion of next-generation digital technologies?2023NOirrelevant
105[215]Research agenda for the digital economy2022NOirrelevant
106[216]What can we learn from the 2008 financial crisis for global power decarbonization after COVID-19?2023NOirrelevant
107[217]Mobile phones, mobile Internet, and employment in Uganda2022NOout of context
108[218]Technological trajectories and scenarios in seaport digitalization2021NOout of context
109[219]ICT Access and Entrepreneurship in the Open Innovation Dynamic Context: Evidence from OECD Countries2022NOout of context
110[220]The Nonlinear Relationship of Environmental Degradation and Income for the 1870–2011 Period in Selected Developed Countries: The Dynamic Panel-STAR Approach2016NOirrelevant
111[221]Practical mobile network planning and optimization for Thai smart cities: Towards a more inclusive globalization2021NOirrelevant
112[222]Sustainable transition towards greener and cleaner seaborne shipping industry: Challenges and opportunities2023NOirrelevant
113[223]SDGs-oriented evaluation of the sustainability of rural human settlement environment in Zhejiang, China2023NOirrelevant
114[224]Digital finance and household carbon emissions in China2022NOirrelevant
115[225]A deep dive into the birth process of linking 6G and the UN SDGs2022NOout of context
116[226]Structural development and evaluation of profitable industrial use cases based on innovative technologies like 5G2019NOout of context
117[227]GRADE: Deep learning and garlic routing-based secure data sharing framework for IIoT beyond 5G2022NOout of context
118[228]The Digital Challenge for Multinational Mobile Network Operators. More marginalization or rejuvenation?2022NOirrelevant
119[229]Towards 5G: Scenario-based assessment of the future supply and demand for mobile telecommunications infrastructure2018NOirrelevant
120[230]On the ultra-reliable and low-latency communications for tactile internet in 5G era2020NOirrelevant
121[231]Policy choices can help keep 4G and 5G universal broadband affordable2022NOirrelevant
122[232]A Multi-Layer Collaboration Framework for Industrial Parks with 5G Vehicle-to-Everything Networks2021NOirrelevant
123[233]Market resiliency conundrum: is it a predicator of economic growth?2018NOirrelevant
124[234]Analyzing the Level of Digitalization among the Enterprises of the European Union Member States and Their Impact on Economic Growth2022NOirrelevant
125IEEE Xplore[235]Context-aware Mobile Edge Resource Allocation in OFDMA Downlink System2022NOout of context
126[236]Research on digital transformation of enterprise human resource management based on DEA-Malmquist model2022NOirrelevant
127[237]Baseline Mechanisms for Enterprise Governance of IT in SMEs2018NOout of context
128[238]Agriculture 4.0: An Implementation Framework for Food Security Attainment in Nigeria’s Post-COVID-19 Era2021NOreview
129[239]A Survey on UAV-Aided Maritime Communications: Deployment Considerations, Applications, and Future Challenges2023NOout of context
130[240]Applying the concept of circular economy—Using the cultural difference of European consumers as an example2018NOout of context
131[241]Analysis of the web portal environment for the exchange of relevant information on commercial establishments2022NOirrelevant
132[242]Trans-disciplinary Research on Outcome based Learning Analytics for Gainful Employment2019NOout of context
133[115]Critical Internet of Things: An Interworking Solution to Improve Service Reliability2020NOirrelevant
134[243]Students’ Capability in Bridging the Entrepreneurial and Innovation Chasm2021NOout of context
135[244]A Comparative Review on Renewable Energy Application, Difficulties and Future Prospect2021NOreview
136[245]Application of Monte Carlo Simulation for Analysis of Costs and Economic Risks in a Banking Agency2019NOout of context
137[246]Applying Design Science Research Methodology for Development of a Mobile-Based Digital Quail Farming Guide2022NOout of context
138[247]Maritime Drone Services Ecosystem-Potentials and Challenges2022NOout of context
139[117]Downlink-Uplink Decoupled Access in Heterogeneous Cellular Networks with UAVs2020NOirrelevant
140[248]Uplink NOMA for UAV-Aided Maritime Internet-of-Things2023NOirrelevant
141[249]Evaluating the Role of Microcredit Program for Youth Employment Generation in Algeria2020NOirrelevant
142[250]Integrated Photonics for RF Sensing Applications2019NOout of context
143[251]Sustainable Development in Engineering Education2021NOout of context
144[252]Keynote Talk 3: Technology for Meeting the SDGs by 20302019NOirrelevant
145[253]Benchmarking MSMEs Ecosystem in Indonesia: A Qualitative Study2019NOirrelevant
146[254]Investigating attitudes of entrepreneurs towards the use of information and communication technologies in Croatian SMEs in two Northern Adriatic counties2018NOirrelevant
147[255]Towards an efficient and interpretable Machine Learning approach for Energy Prediction in Industrial Buildings: A case study in the Steel Industry2022NOirrelevant
148[256]Approach for Developing the Monitoring Large-Scale Digital Systems of the Regional Economy2021NOirrelevant
149[257]Deep Learning-based Time Series Models for GDP and ICT Growth Prediction in India2022NOout of context
150[124]Research on the Development of New Industries, New Formats and Models Based on information technology2021NOout of context
151[258]Chief Remote Officer Role in COVID-19 for Work Sustainability and Use of Artificial Intelligence (AI)2023NOirrelevant
152[130]Design and Implementation of Intelligent Feeding System Based-on the oneM2M2021NOirrelevant
153[259]Sustainable Heritage Management Towards Mass Tourism Impact: the HERIT-DATA project2018NOout of context
154[260]Analysis on the Social and Economic Impacts of Internet Platforms: (Based on Survey Data from WeChat (China) during 2019–2020)2020NOout of context
155[261]Data Interface Matching and Information Security Measurement of Scientific and Technological Innovation Measurement Analysis and Multi-Agent Economic MIS2022NOout of context
156[262]Novel Framework for Performance Prediction of Small and Medium Scale Enterprises: A Machine Learning Approach2018NOirrelevant
157[263]Digital Innovation in Industry 4.0 Era—Rebooting UAE’s Retail2020NOout of context
158[264]Artificial Intelligence as a Key Driver of Business Operations Transformation in the Conditions of the Digital Economy2021NOirrelevant
159[265]Domestic Study on Digital Economy, Industrial Upgrading and Economic Development2022NOout of context
160[266]Research on the Construction of Traditional Enterprise Digital Evaluation Index System2021NOout of context
161[267]A Data Governance Model based on Data Value Analysis under the Framework of Digital Economic2022NOout of context
162[268]A Comparative Study for Indoor Factory Environments at 4.9 and 28 GHz2020NOout of context
163[116]UAV Network and IoT in the Sky for Future Smart Cities2019NOout of context
164[269]An Innovative Hybrid Model for Developing Cross Domain ICT Talent in Digital Economy2018NOout of context
165[270]The Research on the Promotion Path of Digital Elements to Digital Economy2021NOout of context
166[271]An Analysis of the Digital Transformation Trends in ASEAN-5 after COVID-19 Pandemic12021NOout of context
167[272]URLLC and eMBB in 5G Industrial IoT: A Survey2022NOirrelevant
168[273]A Study on the Performance Metrics of the Universal Filtered Multi Carrier Waveforms for 5G2021NOout of context
169[274]Transformation of Business Technologies into Digital Platforms and Evaluation of the Effectiveness of their Application2021NOout of context
170[275]Research on the Spatial Distribution Pattern and Influencing Factors of Digital Economy Development in China2021NOout of context
171[276]Modeling the factors that influence digital economy services acceptance2021NOirrelevant
172[121]5G Core Security in Edge Networks: A Vulnerability Assessment Approach2021NOout of context
173[277]Digital economy has become a new engine for regional development2021NOout of context
174[278]Evaluation method of enterprise economic growth quality based on data analysis2021NOout of context
175[279]A Taxonomy of 5G Stakeholders2021NOout of context
176[280]On Assessing the Potential of 5G and beyond for Enhancing Automated Barge Control2023NOout of context
177[281]Improved Secure Communication Based Adhoc Routing in Mobile Network Technology2023NOout of context
178[282]Common Weight DEA-Based Methodology for Ranking APEC Countries by Considering Sustainable Development Goals Including Decent Work, Income Inequalities, and Gender Equality2019NOothers
179IOP
Science
[283]A fiscal revolution inspired by the Capabilities Approach to reduce socio-economic impact of climate change and strengthen the resilience of tax systems2020NOout of context
180[284]In situ construction of ZIF-67 derived Mo2C@cobalt/carbon composites toward excellent electromagnetic wave absorption properties2023NOout of context
181[285]An Insight into Deployments of Green Base Stations (GBSs) for an Environmentally Sustainable World2021NOout of context
182[286]Technology Related to Agricultural Transformation and Development based on 5G Technology2020NOothers
183[287]Methods for comparing digital applications in buildings and districts2022NOout of context
184[288]Strategies and Policies to Dealing the Challenges and Use of Industry Based on IT in Indonesia2018NOirrelevant
185[289]Research on the mechanism and countermeasures of digital economy development promoting carbon emission reduction in jiangxi province2023NOout of context
186[290]Flood damage costs under the sea level rise with warming of 1.5 °C and 2 °C2018NOout of context
187[291]Performance Analysis of Quantum Repeaters Based Hybrid Communications Networks2021NOout of context
188[292]Research of Media Technology Development with Programmed Thinking in 5G Era2021NOout of context
189[293]Advanced biosensing technologies for monitoring of agriculture pests and diseases: A review2023NOreview
190[128]Research on 5G related technologies under the new generation of information technology2021NOirrelevant
191[294]Trends and innovations in photovoltaic operations and maintenance2022NOout of context

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Figure 1. Selection methodology diagram.
Figure 1. Selection methodology diagram.
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Figure 2. Process of the selection and evaluation of manuscripts.
Figure 2. Process of the selection and evaluation of manuscripts.
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Figure 3. PRISMA diagram methodology.
Figure 3. PRISMA diagram methodology.
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Figure 4. Articles based on year and database.
Figure 4. Articles based on year and database.
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Figure 5. Overlay visualization of bibliometric analysis.
Figure 5. Overlay visualization of bibliometric analysis.
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Figure 6. Overlay visualization of documents available in the Scopus database: word cloud.
Figure 6. Overlay visualization of documents available in the Scopus database: word cloud.
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Figure 7. Visualization of the documents based on bibliometric analysis.
Figure 7. Visualization of the documents based on bibliometric analysis.
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Figure 8. Articles analyzed by country.
Figure 8. Articles analyzed by country.
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Figure 9. Top authors’ production over time.
Figure 9. Top authors’ production over time.
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Figure 10. Articles organized based on sector and application.
Figure 10. Articles organized based on sector and application.
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Figure 11. Articles classified based on 5g technology and industry.
Figure 11. Articles classified based on 5g technology and industry.
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Figure 12. Distribution of items analyzed based on application.
Figure 12. Distribution of items analyzed based on application.
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Figure 13. Articles contributing to automation and advanced robotics in the industry.
Figure 13. Articles contributing to automation and advanced robotics in the industry.
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Figure 14. Articles classified by medical application and 5g technology.
Figure 14. Articles classified by medical application and 5g technology.
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Table 1. Inclusion and exclusion criteria.
Table 1. Inclusion and exclusion criteria.
Criteria
InclusionI01Articles on 5G technology used for contribution to economic growth and decent work.
I02Articles related to 5G technology and its contribution to job creation in different economic sectors.
I03Articles on the impact of the 5G network on labor inclusion.
I045G items that contribute to operational efficiency and productivity in different economic sectors.
I05Articles partially answering the research questions.
I06Articles in English language.
ExclusionE01Unrelated articles on 5G technology and its contribution to job creation in different economic sectors.
E02Articles that do not contribute to operational efficiency and productivity in different economic sectors using the 5G network.
E03Articles that have no relevance to the contribution of 5G technology to economic growth and decent jobs.
E04Articles that do not partially answer the research questions.
Table 2. The 5G-based applications used in specific manufacturing, transportation, and medical industries.
Table 2. The 5G-based applications used in specific manufacturing, transportation, and medical industries.
Specific SectorsApplicationArticles
The application of 5G technology focuses on smart manufacturing that enables the implementation of advanced automation systems, collaborative robotics, and predictive maintenance, which improves production efficiency and creates new job opportunities in terms of monitoring and managing these systems.Smart
manufacturing
[37,38,39,40,41,42,43,44,45,46,47,48]
The application of 5G focuses on high-speed telemedicine, remote surgery, and advanced monitoring systems. It enables real-time transmission of medical data, remote surgery, and remote patient monitoring, improving accessibility to medical care and creating jobs related to these technologies.Healthcare[49,50,51,52,53,54,55,56]
The specific application of 5G technology is in intelligent traffic management and connected transportation systems, facilitating efficient traffic management, road safety, and autonomous navigation. This drives job creation in areas such as smart mobility application development, data analytics, and infrastructure maintenance.Smart
transportation
[19,57,58,59,60,61,62]
Table 3. Detail of applications based on 5G technology.
Table 3. Detail of applications based on 5G technology.
5G TechnologyQuantityArticles
Artificial intelligence12[38,42,60,63,64,65,66,67,68,69,70,71]
Big data5[72,73,74,75]
Blockchain4[49,61,76,77]
Virtual reality3[78,79,80]
Deep learning2[81,82]
Internet of Things30[19,39,40,41,43,44,46,48,58,59,62,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100]
Machine learning5[52,57,101,102,103]
Sensor networks7[45,51,53,54,55,56,104]
Tactile Internet3[37,47,50]
Others2[38,105]
Table 4. Detail of items analyzed based on application and sector.
Table 4. Detail of items analyzed based on application and sector.
SectorUse/
Application
DescriptionArticles
TradeE-commerceDrives the growth of digital commerce, generating employment in the areas of logistics, digital marketing, and the development of e-commerce platforms.[38,63,70,73,77]
EducationE-learningFacilitates access to quality education anywhere, generating employment in the creation of educational platforms and digital content.[68,79,82,96]
AgriculturePrecision
agriculture
Facilitates crop and livestock monitoring and management, creating employment demand in areas of agronomy, data analytics, and agricultural technology.[81,87,88,102,105]
Smart
agriculture
Improves agricultural productivity and sustainable resource management, creating jobs in precision agriculture and agricultural data analysis.[66,86,99,100]
TransportationSmart cityPromotes the sustainable development of cities, creating jobs in areas of smart infrastructure, efficient energy, and digital public services.[43,76,93,95,104]
IndustrySmart
manufacturing
Improves production efficiency and productivity, generates employment in industry, and promotes technological innovation.[37,38,39,40,41,42,44,45,46,47,48,83,85,90]
TourismSmart tourismImproves the tourist experience through connected services and applications, generating employment in the tourism industry and promoting sustainable tourism.[69,71,74,78,91,92,103]
TransportationSmart
transportation
Optimizes supply chain and fleet management, creating jobs in logistics, transportation, and delivery services.[19,57,58,59,60,61,62,84]
HealthTelemedicineEnables remote medical care and patient monitoring, improving access to healthcare and generating digital health jobs.[49,50,51,52,53,54,55,56,64,65,67,75,80,94,97,98,101,106]
Table 5. Article classification according to parameters and contributions to existing jobs.
Table 5. Article classification according to parameters and contributions to existing jobs.
ParameterContributionArticles
Automation of repetitive and dangerous tasksThis can free employees from monotonous and risky tasks, allowing them to focus on higher-value activities, such as the design, monitoring, and control of automated systems.[41,44,48,83]
Collaborative roboticsThey can work safely alongside humans. Instant and accurate communication between robots and other systems, thanks to 5G technology, allows for more effective and flexible collaboration in the work environment, optimizing production and improving quality.[39,45,46]
Real-time communication and controlThis facilitates the coordination of complex tasks, improves the efficiency of industrial processes, and enables greater human–robot interaction.[40,42,43,72,85,90]
Remote monitoring and maintenanceThis means that experts can access data and diagnostics remotely, making it easier to identify and solve problems, reducing downtime, and optimizing operational efficiency.[37,38,47,89]
Table 6. Article classification based on functionality and 5G technology in healthcare.
Table 6. Article classification based on functionality and 5G technology in healthcare.
Functionality5G TechnologiesArticles
Remote monitoring and diagnosticsArtificial intelligence[64,65,67]
Big data[75]
Internet of Things[94,98]
Virtual reality[80]
Mobile health and wellness applicationsBlockchain[49]
Internet of Things[97]
Machine learning[101]
Sensor networks[51]
Remote and collaborative surgeryTactile Internet[50]
Sensor networks[53,54,55,56]
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Beltozar-Clemente, S.; Iparraguirre-Villanueva, O.; Pucuhuayla-Revatta, F.; Sierra-Liñan, F.; Zapata-Paulini, J.; Cabanillas-Carbonell, M. Contributions of the 5G Network with Respect to Decent Work and Economic Growth (Sustainable Development Goal 8): A Systematic Review of the Literature. Sustainability 2023, 15, 15776. https://doi.org/10.3390/su152215776

AMA Style

Beltozar-Clemente S, Iparraguirre-Villanueva O, Pucuhuayla-Revatta F, Sierra-Liñan F, Zapata-Paulini J, Cabanillas-Carbonell M. Contributions of the 5G Network with Respect to Decent Work and Economic Growth (Sustainable Development Goal 8): A Systematic Review of the Literature. Sustainability. 2023; 15(22):15776. https://doi.org/10.3390/su152215776

Chicago/Turabian Style

Beltozar-Clemente, Saul, Orlando Iparraguirre-Villanueva, Félix Pucuhuayla-Revatta, Fernando Sierra-Liñan, Joselyn Zapata-Paulini, and Michael Cabanillas-Carbonell. 2023. "Contributions of the 5G Network with Respect to Decent Work and Economic Growth (Sustainable Development Goal 8): A Systematic Review of the Literature" Sustainability 15, no. 22: 15776. https://doi.org/10.3390/su152215776

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