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 14—Life 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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