INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,  
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)  
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XIV, Issue XII, December 2025  
Emerging Technologies, Education and Skill Development for A  
Sustainable Blue Economy in Nigeria.  
Akaninyene Edet, Ekong a, Babatunde Michael, Ogunbanwo b, Esang Lazarus, Esitikot a, and Gerald  
Ndubuisi Okeke a  
a Highstone Global University, Texas, USA.  
b Centre for Occupational Health, Safety and Environment, Institute of Petroleum Studies, University of  
Port Harcourt, Nigeria.  
Received: 10 December 2025; Accepted: 15 December 2025; Published: 24 December 2025  
ABSTRACT  
The paper examined the role of emerging technologies for sustainable blue economy and assessed the level of  
knowledge and skill development among stakeholders in Nigeria. Emerging technologies in the blue economy  
were highlighted as remote sensing & satellite monitoring, offshore renewable energy, marine biotechnology,  
artificial intelligence & big data and marine robotics. Educational needs include interdisciplinary marine studies,  
vocational training, online and modular courses, and collaborative programs and partnerships among  
universities, research institutes, and other organizations. Skills needed include marine robotics, data analytics,  
AI for ocean modelling, marine ecology, climate resilience, biodiversity conservation, and international  
maritime law. This paper utilised a field survey and literature on policy analysis. It revealed that the incorporation  
of advanced technologies is limited, and vocational training and education are inadequate. The implementation  
of inclusive programs emphasises the importance of collaboration amongst stakeholders, including communities,  
government, industry, and academic institutions. It concluded with recommendations for enhancing technology  
and models to promote a robust, inclusive, and sustainable blue economy in Nigeria.  
Keywords: Blue Economy, Technologies, Education, Skills, Sustainability.  
INTRODUCTION  
European Commission (2022) has long acknowledged the Blue economy (BE) as the collection of all ocean-  
related economic activity as a primary force behind European expansion, owing to the creation of new  
capabilities and initiatives that permit the sustainable exploitation of ocean resources. As this notion continues  
to evolve, it raises issues on how we manage and utilize materials, both new and existing (Martinez-Vázquez et  
al, 2021). Coastal tourism, oil, gas, and mining, ports and warehousing, fisheries and aquaculture, and new large-  
scale industries with a higher level of technological intensity, like marine biotechnology, marine defence, and  
some renewable energy sources, are some of the industries associated with the BE (European Commission, 2019;  
Rayner et al., 2019).  
The BE's irresponsible growth can harm society and the environment, cause inequity and irreversibly altering  
natural resources (Bennett et al. 2021). According to Lee et al. (2020), the conflict between sustainability and  
economic returns that emerges in the BE is caused by the divergent choices and interests of the many  
stakeholders regarding environmental preservation against profitability.  
Its sustainable growth and the  
livelihood of coastal populations are threatened by a combination of overfishing, pollution, coastal development,  
and climate change (Nabi and Hayat, 2025). Fish populations decline due to overfishing, affecting both the  
environment and the economy. Marine life and ecosystems suffer from petroleum spills, plastic Waste, and  
agricultural pesticides. Urban expansion and coastal development damage vital habitats like mangroves,  
seagrasses, and salt marshes. Issues such as ocean acidification, global warming, and lack of ocean awareness  
further threaten these systems (Narwal et al., 2024). Nigeria stands at a crucial point in harnessing its extensive  
coastline, rich marine biodiversity, and maritime resources, as the global focus on ocean-based industries grows.  
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INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,  
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)  
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XIV, Issue XII, December 2025  
According to Johnson et al. (2023), robotics is the combination of mechanical and artificial intelligence systems  
to carry out intricate tasks, including risk assessment and financial decision-making. These devices are  
frequently designed to carry out repetitive, hazardous, or impossible-for-human jobs. In order to develop  
systems that can function independently or partially autonomously, robotics integrates aspects of computer  
science, mechanical engineering, electrical engineering, and artificial intelligence (AI) (Ajibade et al., 2025).  
Today, most ocean exploration is done by robots, and marine robotics technology is developing at an astounding  
rate (National Academies of Sciences, Engineering and Medicine, 2020). Such technology can have long-term  
beneficial effects on businesses' competitiveness and, consequently, the industry as a whole once it is put into  
practice (Walsh, 2021). Data from fisheries fleet monitoring, new remote sensing technologies, unmanned  
aircraft systems, citizen science data, and shipping vessel tracking systems, including automation identification  
systems and vessel monitoring systems, are among the other technologies utilised for this purpose (Barkai &  
Flanagan, 2014). According to Zaeri (2025), artificial intelligence can support the BE's sustainability. According  
to Burgess et al. (2018), technology also allow actors to adapt their conduct to the new institutional context.  
New technologies have the potential to lower emissions and the environmental impact of the BE in addition to  
improving data collecting. According to Ajibade et al. (2025), the BE's conventional industries actually produce  
the most pollution within the sector. Similar to this, the European Commission (2022) pointed out that funding  
surveillance and monitoring initiatives for the benefit of marine ecosystems is a crucial technological  
development that would be advantageous across the BE spectrum. According to Nwakoby et al. (2025), satellite  
tracking systems can keep an eye on fishing operations, guaranteeing correct reporting and adherence. Records  
of marine transactions can be made transparent and impenetrable through the application of blockchain  
technology (Nwakoby et al., 2025).  
In their academic study, Aantjes et al. (2022) pointed out that capacity building entails giving individuals the  
information, abilities, resources, and tools they need to recognise and seize opportunities and challenges. This  
method acknowledges that advancement and sustainable development are only possible when people and  
organisations are prepared to propel their own development and change. Given that the digital transformation  
of the BE is a continuous process in all sectors and that it is essential for workers in this sector to be able to work  
with digital tools, training is essential for providing continuity to the knowledge in the BE (Walsh, 2021).  
Knowledge-intensive industries are essential to achieving a sustainable BE, and research and development  
(R&D) is a major factor in the intellectual and technical advancement of some industries (Rayner et al., 2019).  
Unlocking the potential of research and innovation to create novel ocean sustainability solutions is necessary to  
achieve a sustainable BE (Pace et al., 2023; Melo et al., 2022). However, the sustainable management,  
exploration, and mainstream integration of marine resources are hampered by a lack of knowledge about the use  
of marine technologies, a shortage of skilled workers, inadequate data infrastructure, regulatory uncertainty, and  
antiquated port facilities (Adeoye et al., 2023; Ajibade et al., 2025; Aladejana et al., 2024). In addition to  
maximising the economic potential of Nigeria's coastal and maritime regions, addressing these problems will  
help achieve the Millennium Development Goals of eradicating extreme poverty and hunger through job  
creation, environmental preservation, and the formation of international development partnerships (Aladejare,  
2023). In light of this assumption, the current study evaluates the degree of knowledge and skill development  
among Nigerian stakeholders and investigates the significance of new technologies for a sustainable BE.  
LITERATURE REVIEW  
Blue Economy (BE) Regulations  
The Sustainable Development Goals (SDGs), a group of 17 objectives intended to alleviate poverty and build a  
sustainable world, were a focal point of the 2030 Agenda. All nations are subject to the Sustainable Development  
Goals (SDGs) (United Nations, 2025). A healthy and sustainable use of marine resources that preserves the  
ecology and fosters economic growth is required under Goal 14Life Below Water (Michael & Morgan, 2022).  
Global policies pertaining to resource management and ocean governance have been influenced by this concept.  
According to their economic and environmental interests, several countries have now created unique definitions  
and implementation methods for the BE (Nabi and Hayat, 2025). To monitor and guarantee progress towards  
BE objectives, Canada and Australia have implemented legal frameworks and set up multi-tiered institutional  
structures at the federal and state levels (Srivastava, 2025). The BE idea is included into Kenya's national  
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MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)  
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XIV, Issue XII, December 2025  
development plans. The growth of the BE is a strategic goal of Kenya's Vision 2030, with an emphasis on  
sustainable tourism, maritime transportation, and fishing. In order to support sustainable development and  
progress in the country, the government has also put laws in place to improve marine conservation and encourage  
investment in marine-based sectors (Kenya Vision 2030).  
According to Nammah and Ezenyimulu (2025), the federal government of Nigeria has the power to enact laws  
and control operations inside its continental shelf, contiguous zone, territorial seas, and Exclusive Economic  
Zone (EEZ). Furthermore, the legal basis for levying taxes and levies on activities pertaining to marine resources  
is provided by sector-specific laws as the Nigerian Maritime Administration and Safety Agency (NIMASA) Act  
2007, the Petroleum Industry Act (PIA) 2021, and the Sea Fisheries Act 1992. Section 20 of the Federal Republic  
of Nigeria 1999 Constitution is the cornerstone of all laws pertaining to the preservation of Nigeria's maritime  
environment. As per Gbadegesin and Akintola (2021), the clause stipulates that "the State shall protect and  
improve the environment and safeguard the water, air, land, forest, and wildlife of Nigeria." The federal  
government's first duty is to safeguard and enhance the environment, since this clause serves as the foundation  
for all other environmental protection legislation in Nigeria. The Water Resources Act's provisions give the  
government the ability to create comprehensive strategies for the sustainable development and management of  
the nation's BE resources. Oil discharge into Nigeria's navigable waters is forbidden by the Oil in Navigable  
Waters Act. According to the Act's Sections 1, 3, and 5, it is illegal to release any oil or oil-containing  
combination into Nigeria's navigable waterways without first paying a fine (Gbadegesin and Akintola, 2021).  
By controlling the issuance of licenses for the construction and upkeep of oil pipelines, the Oil Pipelines Act 62  
also protects damage of the maritime environment. The Act aims to prevent oil pipelines from polluting lands  
and rivers by standardising the procedures (Elisha, 2019). President Bola Ahmed Tinubu's creation of the Federal  
Ministry of Marine and BE is a calculated move to maximise and utilise this potential (Agunsoye et al., 2025).  
Nigeria, however, lacks comprehensive frameworks and regulations that are expressly designed for the BE. The  
successful use of the nation's maritime resources is hampered by the lack of a comprehensive and coordinated  
strategy, despite some attempts to design policies, such as the National Policy on coordinated Maritime Strategy  
(Sule, 2021). To direct sustainable development in Nigeria's coastal and marine regions, a strategic plan that  
covers every facet of the BE including fisheries, maritime transportation, aquaculture, tourism, and renewable  
energy is required (Patrick et al., 2022). The public and commercial sectors must work together to address these  
issues, establishing quantifiable objectives and benchmarks, efficient BE policy frameworks and structures, and  
sustainable practices that guarantee economic expansion (Benzaken, 2022).  
METHODOLOGY  
The study employed a survey using descriptive research design. The methodical procedure combined primary  
data collected through a structured questionnaire with secondary data from relevant literature and policy  
documents. Utilising a structured questionnaire, 189 respondents were sampled which consist of professionals  
of the maritime industry, policy makers, universities, Non-profit organisations, research institutes and  
representative from coastal communities. Through purposive sampling approach participants were selected. The  
close ended questionnaire was developed using 5 point Likert scales. Descriptive statistics such as percentages,  
frequencies, percentage, median, standard deviation, maximum and minimum values were adopted. Responses  
on the Likert scale were coded with figures Strongly Agree as 5 and Strongly disagree as 1. Participation was  
voluntary and respondents gave their informed consent. To ensure confidentiality, participants identities were  
not disclosed and participants were allowed to withdraw at any point if they feel uncomfortable to continue.  
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INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,  
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)  
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XIV, Issue XII, December 2025  
Results and Data Analysis  
Socio-demographic Information  
Table 1 Showing the sociodemographic characteristics of respondents.  
Variables  
Frequency (F)  
Percentage (%)  
Sample valid responses (N) = 189(100%).  
Sex  
Male  
Female  
100  
89  
52.8  
47.2  
Age group  
Below 25years  
25 34years  
30  
45  
70  
14  
30  
15.8  
23.9  
37.0  
7.5  
35 44years  
45 54years  
55years and above  
Current role  
15.8  
Academic or Researcher  
Industry professional  
Development worker  
Student  
35  
30  
34  
40  
25  
25  
18.6  
15.8  
18.2  
21.1  
13.1  
13.2  
Member of community  
Government affiliate  
Number of years in Marine or BE  
sector  
Under 1year  
25  
100  
25  
0
13.3  
52.8  
13.2  
0.0  
Between 1 to 5years  
Between 6 to 10years  
More than 10years  
Table 1 shows the sociodemographic characteristics of respondents. It demonstrates that the majority of the  
respondents, 100(52.8%), were male. The group with the highest distribution, 70(37.0%), are those between the  
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INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,  
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)  
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XIV, Issue XII, December 2025  
ages of 35 44years old. The majority of the respondents, 40(21.1%), were students. The highest distribution of  
the respondents, 100(52.8%), has between 1 and 5 5years of experience in the Marine or BE sector.  
Knowledge of and Utilisation of Emerging Technologies for sustainable BE  
Table 2 Showing responses on knowledge of and Utilisation of Emerging Technologies for sustainable BE [(N)  
= 189].  
Statement  
Strongly  
disagree  
Disagree  
10(5.3)  
12(6.3)  
Neutral  
34(18.0)  
40(21.2)  
Agree  
Strongly  
agree  
Mode  
Agree  
Agree  
I have knowledge of what  
the BE is.  
5(2.6)  
8(4.2)  
82(43.4)  
75(39.7)  
58(30.7)  
54(28.6)  
I am familiar with remote  
sensing  
monitoring  
and  
in  
satellite  
maritime  
environments.  
I
understand  
how  
the  
uses  
6(3.2)  
20(10.6)  
10(5.3)  
4(2.1)  
15(7.9)  
25(13.2)  
22(11.6)  
10(5.3)  
51(26.9)  
60(31.7)  
57(30.2)  
35(18.5)  
69(36.5)  
50(26.5)  
60(31.7)  
80(42.3)  
48(25.4)  
34(18.0)  
40(21.2)  
60(31.7)  
Agree  
Neutral  
Agree  
Agree  
maritime industry  
offshore renewable energy.  
I have made use of or  
participated  
biotechnology projects.  
in  
marine  
I am aware of how artificial  
intelligence and big data are  
used in maritime modelling.  
Marine robots are a relevant  
and useful technology for the  
sustainable use of ocean  
resources.  
Table 2 shows responses on knowledge of and utilisation of emerging technologies for the sustainable BE. It  
demonstrates that the majority of the respondents, 82(43.4%), agree that they know what the BE is. Highest  
distribution of the respondents, 75(39.7$) agree that they are familiar with remote sensing and satellite  
monitoring in maritime environments. The majority of the respondents, 69(36.5%), agree to understand how the  
maritime industry uses offshore renewable energy. The highest distribution of the respondents, 60(31.7%),  
neither agree nor disagree with making use of or participating in marine biotechnology projects. The majority of  
the respondents, 60(31.7%), agree that they are aware of how artificial intelligence and big data are used in  
maritime modelling. The majority of the respondents, 80(42.3%), agree that marine robots are a relevant and  
useful technology for ocean resources.  
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Education and Skill Development  
Table 3 Showing responses on education and skill development of Emerging Technologies for sustainable BE  
[(N) = 189].  
Variables  
Frequency (F)  
Percentage (%)  
Which of the following abilities do you currently  
have?  
Marine Robotics  
28  
36  
24  
52  
47  
33  
49  
14.8  
19.0  
12.7  
27.5  
24.9  
17.5  
25.9  
Big Data & Data Analytics  
Artificial Intelligence for Ocean Modelling  
Marine Ecology Planning for Climate  
Resilience Conservation of Biodiversity  
Understanding of International Maritime Law  
None of the above  
In the last five years, what training or educational  
opportunities have you taken advantage of?  
Multidisciplinary marine studies (such as marine  
science, policy, and technology)  
54  
28.6  
Vocational training in marine-related fields  
BE-related online or modular courses  
42  
61  
36  
22.2  
32.3  
19.0  
Cooperative training initiatives with businesses and  
academic institutions  
Conferences or seminars on cutting-edge ocean  
technologies  
39  
59  
20.6  
31.2  
None of the above  
Which of the following formats would best help  
you develop your abilities?  
Short-term vocational training  
83  
78  
89  
46  
64  
43.9  
41.3  
47.1  
24.3  
33.9  
Online certificate programs  
Fieldwork or industry internships  
Graduate/postgraduate degree programs  
Multidisciplinary workshops with global specialists  
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Professional guidance from seasoned experts  
57  
30.2  
Table 3 Shows responses on education and skill development of Emerging Technologies for sustainable BE. It  
demonstrates that most of the respondents, 49(25.9%) do not have any ability in Marine Robotics, Big Data &  
Data Analytics, Artificial Intelligence for Ocean Modelling, Marine Ecology Planning for Climate etc. Most of  
the respondents, 61(32.3%) have taken advantage in training or educational opportunities in the last years on  
BE-related online or modular courses. Most of the respondents, 89(47.1%) believe that Fieldwork or industry  
internships will best help in developing their abilities in emerging technologies in BE.  
Cooperation and Institutional Support  
Table 4 Showing responses on Cooperation and Institutional Support [(N) = 189].  
Statement  
Strongly  
disagree  
Disagree  
Neutral  
Agree  
Strongly  
agree  
Mode  
Universities  
and  
36(19.0)  
29(15.3)  
58(30.7)  
48(25.4)  
35(18.5)  
12(6.3)  
Disagree  
industries in Nigeria's  
maritime sector work  
closely together.  
The incorporation of new  
technologies into the BE  
62(32.8)  
52(27.5)  
33(17.5)  
13(6.9)  
Disagree  
Neutral  
is  
encouraged  
by  
government policies.  
Planning and training for  
the BE actively involve  
community stakeholders.  
21(15.3)  
6(3.2)  
49(25.9)  
8(4.2)  
60(31.7)  
22(11.6)  
38(20.1)  
71(37.6)  
21(11.1)  
82(43.4)  
To  
technology innovation in  
Nigeria, public-private  
partnerships are required.  
promote  
marine  
Strongly  
agree  
Table 4 shows responses on Cooperation and Institutional Support. It demonstrates that most of the respondents,  
58(30.7%) disagree that universities and industries in Nigeria’s maritime sector work closely together in aspect  
of sustainable BE. Also, many of the respondents, 62(32.8%) disagree that the incorporation of new technologies  
into the BE is encouraged by government policies. Meanwhile, most of the respondents, 60(31.7%) neither agree  
nor disagree that planning and training for the BE actively involve community stakeholders. Lastly, the majority  
of the respondents, 82(43.4%) strongly agree that to promote marine technology innovation in Nigeria, public-  
private partnerships are required.  
Table 5 Showing responses on education and skill development of Emerging Technologies for sustainable BE  
[(N) = 189].  
Variables  
Frequency (F)  
Percentage (%)  
Which parties ought to be most involved in advancing  
cutting-edge technologies in the BE?  
Universities  
96  
50.8  
58.2  
Research Institutions  
110  
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Private Technology Companies,  
88  
46.5  
27.6  
40.6  
33.4  
72.5  
Non-Governmental Organisations (NGOs)  
International Development Partners  
Coastal Communities  
52  
77  
63  
The Federal Government, State or Local Governments  
137  
Table 5 shows responses on education and skill development of Emerging Technologies for sustainable BE. It  
demonstrates that the majority of the respondents, 137(72.5%) believe that the federal, state and local  
governments ought to be the most involved in advancing cutting-edge technologies in the BE.  
Table 6 Showing responses on probable obstacles and recommendation on Emerging Technologies for  
sustainable BE [(N) = 189].  
Variables  
Frequency (F)  
Percentage (%)  
Which three obstacles stand in the way of integrating  
emerging technologies into Nigeria's BE?  
Poor infrastructure  
122  
116  
103  
111  
89  
64.5  
61.5  
54.4  
58.8  
47.2  
40.1  
Insufficiently skilled staff  
Inadequate policy structure  
Limited resources and investment  
Low public participation or awareness  
Stakeholders' poor cooperation  
76  
What ought to be given top priority in order to enhance skill  
development in this area?  
Centres for national marine training  
102  
117  
87  
Government-funded educational initiatives  
International exchange and fellowship initiatives  
Secondary and postsecondary schools' marine curricula  
Local content creation and e-learning platforms  
61.9  
46.1  
41.3  
49.7  
78  
94  
Table 6 showing responses on probable obstacles and recommendation on Emerging Technologies for  
sustainable BE. It demonstrates that the majority of the 122(64.5%), 116(61.5%) and 111(58.8%) identified poor  
infrastructure, Insufficient skilled staff and limited investment and resources respectively as the obstacles  
standing in the way of integrating emerging technologies into Nigeria’s BE.  
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Data Analysis  
Table 7 Showing descriptive statistics of knowledge of and utilisation of Emerging Technologies for sustainable  
BE  
Category  
Mean  
S. D  
Minimum  
Maximum  
Interpretation  
Knowledge of what the BE is.  
3.95  
0.90  
1
5
Indicates high level of  
knowledge.  
Familiarity  
sensing  
monitoring  
environments.  
with  
and  
in  
remote  
satellite  
maritime  
3.81  
0.99  
1
5
Indicates moderately high  
familiarity.  
Understanding  
how  
the  
uses  
3.72  
3.28  
0.98  
1.20  
1.07  
0.90  
1
1
1
1
5
5
5
5
Indicates there’s common  
knowledge.  
maritime  
industry  
offshore renewable energy.  
Use of or participated in  
marine  
projects.  
There is limited practical  
experience  
biotechnology  
Awareness of how artificial 3.51  
intelligence and big data are  
used in maritime modelling.  
There  
is  
moderate  
knowledge of AI and Big  
data usage.  
Relevance  
and  
usefulness 3.95  
There  
acknowledgment  
marine robotics.  
is  
strong  
of  
Marine robots technology for  
the sustainable use of ocean  
resources.  
S.D Standard Deviation  
Table 7 Descriptive statistics of knowledge of and utilisation of Emerging Technologies for sustainable BE. It  
demonstrates that there is high level of knowledge concerning what the BE is among the stakeholders. Also,  
there is moderately high familiarity with remote sensing and satellite monitoring in the maritime environments.  
There is common knowledge of how the maritime industry employs offshore renewable energy. There is limited  
practical experience in the aspect of marine biotechnology projects. There is moderate knowledge of AI and Big  
data usage in Maritime modelling. There is strong acknowledgment of relevance and usefulness of marine  
robotics for sustainability of ocean resources.  
Table 8 Showing descriptive statistics for Cooperation and Institutional Support.  
Category  
Mean  
S. D  
Minimum  
Maximum  
Interpretation  
Universities and industries in  
Nigeria's maritime sector work  
closely together.  
2.61  
1.16  
1
5
There is no consistent  
collaboration.  
The  
existing one is weak.  
The  
incorporation of new  
2.66  
1.14  
1
5
There is an inadequate  
policy support.  
technologies into the BE is  
encouraged  
policies.  
by  
government  
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Planning and training for the  
BE actively involve community  
stakeholders.  
2.93  
1.16  
1
5
There  
limited inclusion of  
the  
is  
a
rather  
involved  
community  
stakeholders.  
To promote marine technology  
innovation in Nigeria, public-  
4.15  
0.98  
1
5
There  
agreement on this.  
is a  
strong  
private  
partnerships  
are  
required.  
S.D Standard Deviation  
Table 8 shows the descriptive statistics for Cooperation and Institutional Support. It demonstrates that there is  
no consistent collaboration between Universities and Industries in Nigeria’s maritime sector. Also, there is an  
inadequate policy support for the incorporation of BE technologies by government. There is a limited inclusion  
of the involved community stakeholders in planning and training on BE. There is strong agreement about the  
need for public-private partnership in the promotion of marine technology innovation in Nigeria.  
Table 9 Showing descriptive statistics for the stated categories  
Category  
Mean  
S. D  
Minimum  
Maximum  
Interpretation  
34  
36.1  
22  
61  
There are low levels of  
developed skills. Technical  
skill is more common in the  
aspect of ecology-based  
knowledge and far less in  
AI & Robotics.  
Skill development and  
Education  
48.2  
65.4  
88.2  
48  
67  
88  
36  
45  
52  
72  
There is an inadequate  
training. Although, there is  
Access to training  
limited access to  
modular  
both  
and  
multidisciplinary studies.  
88  
The preferred training are  
practical, applied learning  
Preferred  
method  
training  
such  
internship  
as  
vocational,  
and online  
format of learning.  
137  
There is general agreement  
that the government must  
serve as the pivotal force.  
Role of stakeholders  
The  
universities  
and  
research institutes are to  
also have important roles to  
play.  
92.7  
97  
76  
122  
Infrastructure and limited  
workforce are considered  
key challenges.  
Challenges  
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MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)  
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95.5  
92  
78  
117  
Investment  
government  
from  
and  
Recommendations  
construction of national  
training centers are  
identified as priorities.  
S.D Standard Deviation  
Table 9 shows the descriptive statistics for the stated categories. It demonstrates that there are low levels of  
developed skills. The technical skill is more common in the aspect of ecology-based knowledge and far less in  
AI & Robotics. There is an inadequate training. Although, there is limited access to both modular and  
multidisciplinary studies. The preferred training is practical, applied learning such as vocational, internship and  
online format of learning. There is general agreement that the government must serve as the pivotal force. The  
universities and research institutes are to also have important roles to play. Infrastructure and limited workforce  
are considered key challenges. Investment from government and construction of national training centres are  
identified as priorities.  
RESULT DISCUSSION  
The study revealed that there is high knowledge among stakeholders on emerging BE technologies; Stakeholders  
are moderately familiar with remote sensing and satellite monitoring and there’s common knowledge about the  
utilisation of offshore renewable energy. However, there is dearth of studies to backup these findings. Offshore  
wind and wave energy projects have a lot of promise in coastal locations, which fits nicely with the worldwide  
trend towards renewable energy and can help meet sustainable energy goals (Elegbede et al., 2023).  
The present study also revealed that there is limited practical experience on marine biotechnology utilisation.  
According to Elegbede et al. (2023), the use of marine biotechnology in Nigeria is still relatively new. However,  
it has the potential to contribute significantly to the economy (Federal Ministry of Science and Technology,  
2020). Research and development finance, inadequate infrastructure, and a lack of investment are some of the  
challenges facing the sector (Federal Ministry of Science and Technology, 2020). However, there is room for  
sustainable growth via the use of new technology, sustainable practices, and the development of new marine-  
based products and services (Federal Ministry of Science and Technology, 2020).  
The present study also revealed that there is moderate knowledge of AI and Big data usage. The potential of  
artificial intelligence to improve risk management engineering was highly supported by Ajibade et al. (2025).  
Subsequent investigation revealed that artificial intelligence significantly improved risk management results.  
Additionally, risk-related workflows like internal audits, insurance claims, and regulatory reporting may be  
streamlined by AI-powered robotic process automation (RPA), which lowers the possibility of human mistake  
and delays (Ibrahim et al., 2023). The present study also revealed that there is strong acknowledgment of marine  
robotics. However, another crucial distinction of the BE is its emphasis on the necessity of stakeholder  
participation and collaboration in the sustainable management of ocean resources. The present study found no  
consistent collaboration between tertiary institutions and Nigeria maritime sector. Furthermore, because the BE  
is a global issue that affects all countries and regions, its sustainable growth necessitates international  
cooperation and collaboration (Elegbede et al, 2023). All parties involvedgovernments, businesses, civil  
society, and local communitiesshould be required to participate.  
The present study also revealed that there is inadequate policy support. This result is consistent with that of  
Nweke and Dhakir (2025), who found that the BE in Nigeria is still relatively young and does not have sufficient  
regulatory and policy frameworks. The potential of the BE is limited in the absence of strong rules and strategic  
policy frameworks, which are necessary to protect marine ecosystems and promote sustainable development  
(Otuya-Asohro, 2024). The present study revealed that there is rather limited inclusion of the involved  
community stakeholders. This is in line with this finding, Esin et al. (2024), BE ideas are not yet influenced by  
local development goals or explicitly in line with Agenda 2030. Fudge et al (2023) revealed that community’s  
interest and relationship experience with marine environment is more essential than material aspect. Coastal  
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MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)  
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XIV, Issue XII, December 2025  
towns also confront the obstacles associated with a BE, thus their perspectives can enhance the general strategies  
used to ensure a sustainable BE, even though jobs can be produced for areas around a BE.  
The present study revealed there is need for private partnership on marine technology innovation. similarly,  
(Ibrahim, 2018) revealed that partnerships with international organisations and surrounding nations may open  
up important finance, technical know-how, wider market access, support innovation, foster economic growth,  
and advance sustainable development in marine businesses, guaranteeing the BE's long-term viability. The  
present study also revealed there are low levels of developed skills. Technical skill is more common in the aspect  
of ecology-based knowledge and far less in AI & Robotics. This is not consistent with Nweke and Dhakir (2025),  
who claim that the successful growth of important marine businesses like shipbuilding, offshore energy, and  
sustainable fishing is significantly hampered by a shortage of competent workers. These sectors' capacity to  
create jobs, encourage innovation, and support the expansion of Nigeria's BE is diminished in the lack of a skilled  
labour force, which also limits their development and productivity (Bayode, 2024).  
It also revealed that there is an inadequate training. Although, there is limited access to both modular and  
multidisciplinary studies. This conclusion is supported by research by Mkpandiok and Ukpai (2017), which  
showed that academic staff and cadets/students are unaware of the SDGs and that the curriculum for maritime  
education and training is still not fully in accordance with them. Generally, the present study revealed the  
preferred training is practical, applied learning such as vocational, internship and online format of learning.  
Additionally, BE curricula should be institutionalized across tertiary institutions, and support provided for  
community-based data collection and documentation of traditional ecological knowledge. There is general  
agreement that the government must serve as the pivotal force. The universities and research institutes are to  
also have important roles to play. Infrastructure and limited workforce are considered key challenges. Likewise,  
Tonye (2025) pointed out that one of the main obstacles is the absence of a strong operational infrastructure. A  
safe maritime environment is necessary to combat factors like armed piracy, oil theft, infrastructure vandalism,  
illicit fishing, and aqua cultural activities that deter investment and undermine the BE. More so, investment from  
government and construction of national training centers are identified as priorities.  
Further studies  
Further studies should be conducted to identify the level of knowledge among stakeholders of BE in Nigeria;  
Stakeholders familiarity with remote sensing and satellite monitoring and utilisation of offshore renewable  
energy.  
CONCLUSION AND RECOMMENDATIONS  
A safe maritime environment is necessary to combat factors such as armed piracy, oil theft, infrastructure  
vandalism, illicit fishing, and aquaculture activities that deter investment and undermine the BE. Moreover,  
government investment and the construction of national training centres are identified as priorities.  
Practical training should be provided to relevant stakeholders in marine robotics, data analytics, AI for ocean  
modelling, and marine ecology. A government-funded educational initiative is relevant to providing stakeholders  
with opportunities to improve their skills and contribute to achieving a sustainable Blue Economy in Nigeria.  
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