An Exploratory of Factors Influencing of Digital Technology
Adoption in Thai Maritime Industry: Perspective of Thai Shipowners
Atcharaporn Janmethakulwat and
Bundit Thanasopon
School of Information Technology, King Mongkut’s Institute of Technology Ladkrabang, Thailand
Keywords: Digital Technology, Maritime Industry, Thai Shipowner, Technology Adoption, TOE Framework.
Abstract: This study addresses a literature gap in the maritime sector concerning the slow adoption of digital technology
by Thai shipowners to drive sustainable organizational development. Understanding the determinants of
digital technology adoption is crucial. Thus, this study examines the adoption process of digital technology
in Thai shipowners at the firm-level, specifically focusing on the perceived influence of technology,
organization, and environment. The study employs an exploratory approach and utilizes in-depth case studies
to build theory. The findings suggest that factors such as improved organizational efficacy, reduced
operational expenses, enhanced internal and external communication, top management support and
commitment, plan maintenance monitoring, documentation, compliance with legal, regulatory, and policy
requirements, and social pressure positively influence the adoption of digital technology in Thai shipowners.
1 INTRODUCTION
The term digital transformation refers to
organizational changes brought about by digital
technologies that result in the redefinition of existing
business capabilities, processes, and relationships.
Changes can be seen in business models and how
organizations create, deliver, and capture value
(Kleppe and Nortvedt 2020). Reshaping business
models through the adoption and use of digital
technologies creates a setting within the organization
and its environment in which new possibilities are
enabled, and value is made (Tijan et al. 2021).
Integrating and utilizing new digital technologies is
one of the most difficult challenges businesses face
today. Maritime transport is an essential mode of
international trade that is digitizing and undergoing
digital technology at varying rates in different
domains. Shipping, as a component of the logistics
chain, is a volatile industry characterized by
technological immaturity and impending regulatory
changes (Zaman et al. 2017).
Digitalization and digital disruption have already
begun to impact the maritime industry, affecting
operations and strategy, resulting in more unique and
successful business models. Innovative technological
applications, particularly in the marine industry, can
provide economic and societal value (Gavalas 2020).
As a result, the current phase of digital technology is
focused on adopting new digital technologies to
improve vessel measurement, monitoring, and
control. This can include advanced data
preprocessing and analysis to extract information and
knowledge in planning and decision support systems.
However, the success of digital technology depends
not only on the use of cutting-edge technologies and
methods but also, most importantly, on the adaptation
of organizational aspects. The specific management
issue is that the barriers to technology adoption
among maritime industry players in Thailand are
poorly understood, limiting the naval sector's ability
to achieve national sustainable development. The use
of current technologies is one of the most critical
issues in the digital technology of the marine industry
in developing countries (Yang 2019).
Although several studies focus on digital
technology adoption, there is no comprehensive study
on the digital technology adoption, especially in the
scope of Thai shipowners. To address the literature
gap, this study aims to better understand technology
adoption in Thai shipowners using The Technology,
Organization and Environment Framework (TOE
framework), as well as Institutional Theory.
Janmethakulwat, A. and Thanasopon, B.
An Exploratory of Factors Influencing of Digital Technology Adoption in Thai Maritime Industry: Perspective of Thai Shipowners.
DOI: 10.5220/0012035100003467
In Proceedings of the 25th International Conference on Enterprise Information Systems (ICEIS 2023) - Volume 2, pages 669-677
ISBN: 978-989-758-648-4; ISSN: 2184-4992
Copyright
c
2023 by SCITEPRESS – Science and Technology Publications, Lda. Under CC license (CC BY-NC-ND 4.0)
669
2 CONCEPTUAL INSIGHTS
FROM PRIOR STUDIES
2.1 The Fourth Industrial Revolution
Becomes Maritime 4.0
According to the Global Maritime Forum's Annual
Summit 2019, the world is experiencing the so-called
Fourth Industrial Revolution. The first three industrial
revolutions were propelled forward by mechanics and
mass production, electricity and mass production, and
electronics and automation. The Fourth Industrial
Revolution is defined by cyber-physical systems and
interconnectedness. The Fourth Industrial Revolution
is fueled by a number of critical technologies,
including advanced robotics, 3D printing, autonomous
cars, artificial intelligence, segmented/virtual reality,
and digital breakthroughs such as finance and
blockchain. Along with several benefits such as
increased connectedness and efficiency, the Fourth
Industrial Revolution also introduced considerable
uncertainty and worry.
According to World Economic Forum research
by 2022, 42% of essential skills required for most
occupations will change, with an increasing demand
for critical, analytical, and creative thinking,
technological design, programming, leadership,
system analysis, emotional intelligence, and complex
problem-solving. Leaders in the Fourth Industrial
Revolution are concerned about the future of business,
and leveraging data. Sharing data can help resolve
operational inefficiencies in the marine sector and
accelerate industry development. In an increasingly
digital and networked world, there is a rising demand
for reliable communication and information-sharing
routes. The maritime industry is particularly prone to
weak data and document management, complicated
regulatory requirements, money laundering and fraud,
and insufficient traceability. Sullivan et al. 2020 state
that the marine sector is building collaborative
platforms to extend the life of
vessels via the use of
linked digital capabilities. The Fourth Industrial
Revolution and Maritime 4.0 share many parallels,
notably in terms of technology. The distinction,
however, is in the manner in which each of the
technologies interacts and overlaps with one another
across numerous sectors of the marine industry.
Maritime 4.0 refers to the integrated use of digital
processes and technologies in the design,
development, building, operation, and maintenance of
ships as displayed in Figure 1 (Papageorgiou 2020).
Overall, both industry 4.0 and maritime 4.0
represent the next phase of industrial and maritime
evolution, respectively, and share several similarities
in terms of the technologies and approaches they use
to achieve their goals.
Figure 1: The journey to intelligent shipping
(Papageorgiou, 2020).
2.2 Digitalization and Advancements in
the Maritime Industry
The maritime transport sector faces several
challenges in adopting digital technology. Firstly,
there is often a lack of leadership, as management
tends to take a conservative approach and resources
are limited. Although technologies like Blockchain
and autonomous shipping can foster digital
technology adoption, many employees and managers
are resistant to change and lack awareness of how
digital technology can positively affect the business
(Bajpai 2021).
Secondly, the utilization and ownership of data
presents a challenge. Data confidentiality has become
increasingly important for services such as predictive
maintenance, use tracking, route planning, and
resource planning (Gavalas 2020). However, various
parties may have an incentive to withhold specific
facts from other business participants, and data
ownership is frequently contested. A comprehensive
legal assessment of data flows is often critical for
data-intensive services and business models,
especially when the organization has a strong interest
in protecting secrecy.
Thirdly, cyber-security is a major concern. IT-
intensive activities create new security zones when
plates, containers, and other items are linked.
Protection receives a new layer of cyber-security to
prevent unauthorized third parties from accessing
critical sensors and controllers via existing interfaces
and network connectivity. Applying cyber-security
measures can be problematic due to existing safety
and security requirements and updates to associated
legislation (Gavalas 2020).
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Fourthly, regulatory issues pose a challenge.
Unlike industries such as manufacturing or retailing,
maritime transportation operations are inextricably
linked to global economics and politics. Moreover,
the sector's operations are governed by national and
international laws (Zeng et al. 2020).
Fifthly, International laws and conventions such
as UNCLOS, SOLAS, COLREG, and MARPOL may
affect the permissibility of certain technologies,
particularly those used on uncrewed vehicles (Ikpogu
2021).
Finally, the lack of digital skills and a qualified
labor force in the maritime transport sector. This
problem is expected to worsen as new technologies
require the development of new skill sets and
technological expertise. To address this challenge,
cooperation between universities and the corporate
sector is needed, including investment in knowledge,
new study and training programs, and other measures
to ensure an adequate human resource pool for the
continued development and application of
innovations in the maritime transport sector (Van Dyk
and Van Belle 2019).
Overall, the barriers to digital technology
adoption can vary depending on the industry,
organization, and specific technology being adopted.
It is important for organizations to carefully consider
these barriers and develop strategies to overcome
them to ensure successful digital technology
adoption.
3 THEORETICAL
FOUNDATIONS APPLIED TO
RESEARCH
3.1 Technology, Organization and
Environment Framework (TOE
Framework)
The Technology, Organization and Environment
Framework (TOE framework) was developed in 1990
by Tornatzky and Fleischer. It identifies three aspects
of an enterprise’s context that influence the process
by which it adopts and implements a technological
innovation: technological context, organizational
context and environmental context see in Figure 2.
The term technological context refers to both internal
and external technologies that are significant to the
company. This includes current practices and
equipment internal the firm, as well as the set of
available technologies external to the firm.
Organizational context refers to descriptive measure
about the organization such as scope, size, and
managerial structure. Environmental context is the
area in which as firm conducts its business, its
industry, competitors, and dealings with government
(Tornatzky et al. 1990).
Figure 2: Technological, organizational, and environmental
framework (TOE framework) (Tornatzky and Fleischer,
1990).
TOE was employed as the theoretical basis in
their study to investigate the adoption factors of inter-
organizational information booking system. The
research provides a comprehensive understanding of
the adoption behavior relating to technological
innovation in the maritime supply chain. They found
that not only the factors such as relative advantage,
ease of use, firm size, and top management support but
technology adoption in maritime supply chain is also
influenced by other salient factors such as industrial
characteristics, information confidentiality, supply
chain partners’ power, governmental power, and
ownership structure. Moreover, digitalization and
many technological advances provide opportunities for
stakeholders in the supply chain to improve efficiency,
enhance productivity, and reduce the impact caused by
environmental uncertainty (Zeng and Pawar 2020).
Ikgapu 2021 also supported that the new
technology requires four factors to ensure its success
in digital era of shipping; the factors include
technology availability, organizations expected,
environment and favorable policies and security of
technology infrastructure.
3.2 Institutional Theory
According to the institutional theory, organizational
decisions are not driven purely by rational goals of
efficiency, but also by perceived social pressure and
the influence of cultural factors and concerns for
legitimacy. Institutions are transported by cultures,
structures, and routines and operate at multiple levels.
According to perceived social pressure and influence,
firms become more similar as a result of isomorphic
pressures and legitimacy pressures (DiMaggio and
Powell 1983). This suggests that firms within the
same field tend to become homologous over time, as
An Exploratory of Factors Influencing of Digital Technology Adoption in Thai Maritime Industry: Perspective of Thai Shipowners
671
competitive and customer pressures motivate them to
repeat industry leaders. Several recent research on e-
commerce or EDI dissemination and assimilation
have used an institutional perspective. It's
documented that mimetic, coercive and normative
institutional pressures existing in an institutionalized
environment may influence organizations’
predisposition toward an IT-based interorganizational
system (Teo et al. 2003). Mimetic pressures occur
when businesses adopt a competitor's approach or
innovation. Coercive pressures are a group of formal
or informal forces exerted on organizations by other
organizations upon which the previous organizations
depend. Normative pressures are generated by dyadic
partnerships in which organizations communicate
information, regulations, and standards. Sharing these
norms through relational channels amongst members
of a network facilitates consensus, which, in turn,
increase the strength of those norms and their
potential influence on organization behavior
(DiMaggio and Powell 1983).
Unlike other industries such as manufacturing or
retailing, the activities of the maritime transportation
industry are closely related to global economics and
politics. Moreover, the activities within the industry
are also affected by the governmental regulations
from different countries. Therefore, the perceived
social pressure and influence becomes the driving
force to examine as another one factor which
influencing on intention to digital transformation
adoption besides perceived near-term consequence
and perceived ease of use.
4 RESEARCH DESIGN AND
METHOD
4.1 Research Method
This exploratory study was positioned within an
interpretive research paradigm. To answer the
research questions, we collect data from three
shipowners in Thailand. Evidence from the in-depth
cases is used to build theory. A multiple-case study
method is used to explore the relationships between
factors influencing adoption. A qualitative case study
method is appropriate because the aim of this study is
to generate fresh and deeper insights into the factors
influencing digital technology adoption relating to
Thai shipowners. Please note that, this paper is a
preliminary study. The results obtain will be used to
frame our future interviews as we plan to collect more
cases. The qualitative insights obtained from the case
studies will be used to build a research model which
will be confirmed by a large-scale survey.
4.2 Data Collection
The following stages were followed with regard to the
identification of interviewees with knowledge
relating to digital technology in the maritime
industry. Thai shipowners firms were contacted and
the focus of the study was discussed. If the maritime
firm had been engaged in the adoption of digital
technology, the key participants were identified.
Additionally, the snowball method was used to
generate additional respondents from the cases. Semi-
structured interviews were conducted with the
management level in three shipowners located in
Thailand. In total, six executive managers from the
three firms were interviewed. To ensure accurate
information was provided, the participants were
assured that their names and the companies’ names
would not be disclosed. The demographic profiles of
the cases are summarized in Table I. Each interview
lasted from fifty to sixty minutes. Interviews were
recorded and then instantly transcribed. The validity
and reliability of the presented responses were
considered. In addition, internet and archival
materials were combed through for information on
each company. The latter information was then
triangulated with the interview-gathered information.
The responses of multiple responders from the same
company were triangulated.
Table 1: The demographic profiles of the Thai shipowners.
Case
Profiles of the Thai Shipowners company
Founded Listed
company
Business Type
No. of
vessels
No. of
employee
A
1989
Yes
Bulk Carrier,
Cement
Carrie
r
38 906 pax
No. of
respondents
/Position/Working
experience
A1 Training Instructor
Manage
r
27 y
A2
Technical Manager 24 y
B
2015
Yes
Marine
Petroleum
Transportation
20 423 pax
No. of
respondents
/Position/Working
experience
B1 Chief Financial
Office
r
30 y
B2 Chief Technical
Office
r
41 y
C
1992
No
Marine
Petroleum
Transportation
13 265 pax
No. of
respondents
/Position/Working
experience
C1
Technical Manager 24 y
C2
HSSEQ Manager &
DPA
12 y
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4.3 Data Analysis
Analyses were conducted on adoption narratives. All
management responses were transcribed the day
following each interview. The most frequently
reported characteristics impacting adoption were
discovered after comments were consistently
categorized. Within-case analysis and cross-case
analysis were undertaken iteratively. Data were
compared with existing theory and the data was
allowed to talk. Several propositions were derived
from the interviewers' comments.
5 ANALYSIS AND DISCUSSION
The combined analysis from literature review and
semi-structured interviews revealed eleven factors as
driving the digital technology adoption in Thai
shipowners which shown in Table II.
Table 2: Summary of the digital technology adoption.
Theme Main Finding Case
Technological-related criteria
Availability of
access to
digitalization
Easier access from around the world A1, A2
Or
g
anizational-related criteria
Improved
organizational
efficiency
1. Increased Operational Efficacy
and Reactivity
2. Cost optimization
A1,
B1, B2,
C2
Reduced
operational
expenses
1. Cost savings on operations due to
the optimization of processes and
staff
2. Decrease in fuel prices
3. Decrease in expenditures related
to procedural delays
A1, A2,
B1, B2,
C1, C2
Cargo
Management
Productivity
1. Cost reduction for freight storage
2. Cargo damage and theft
estimation using data-driven
analytics
B2
Data Analytics
for management
1. Ability to concentrate on one's
own main business strategies
2. Better asset management insights
B1, B2
Better Internal
and external
communications
1. Connectivity of the head office
2. 24X7 connectivity
3. Online virtual meetings, training,
and conferences
4. Multiple, inexpensive
communication methods
5. Interactive between onshore and
offshore
6. Real-time information for
shipowners to enable risk
management
A1, A2,
B1, B2,
C1, C2
Top
management
support and
commitment
1. Top management support can
help to get the necessary resources
(facility, capital, IT, and human
resource) and then achieve the
b
enefits of digitalization adoption
B1, B2,
C1, C2
2. 2. Self-efficacy and set up KPI to
measure the successful
implementation
Plan
maintenance
monitoring &
Unplanned
situation
1. A notification when it's time for
maintenance
2. Improved contingency plan for an
unplanned situation
3. Guideline or generate for a
routine job
A2,
B1,
C2
Documentation 1. Reduced paperwork improves
productivity and response times.
2. Decreased transaction and
enforcement expenses
3. Sending electronic certificates
and documents
A1, A2,
B2,
C1
Environmental-related criteria
Legal,
Regulatory, &
Policy
requirements
1. Managing dynamic government,
IMO, inter-financial policies
2. Regulations using ship data to
navigate and labor policy
A1, A2,
B1, B2,
C1, C2
Social pressure
influence
1. Improved competitiveness
2. Developed into the same industry
standard
A1,
B1, B2,
C1
5.1 Technological-Related Criteria
One factor identified under the technology theme is
the availability of access to digitalization and only
Case A mentioned this factor. Easier access from
around the world and automatic system updates are
the main findings of this theme.
Availability of Access to Digitalization
The availability of the technical infrastructure, such
as broadband internet access and reliable power,
necessary to support the use of digital technology.
Case A reported that the digital technology will be
easier to access vessels from around the world. They
are the international fleet, the real-time information
for shipowners to enable risk management is most
required. In addition, the ship in the middle of the
sea had poor communication. The signal is
transmitted via satellite phone calls, which are
expensive and unstable. Data may be delayed and
error, and errors must be improved. Currently, this
operating system is designed to provide mobile phone
users on board which is more stable and cost-
effective. which before that would only get the content
of the news But nowadays, it can be sent as a picture
that makes the information clear, accurate, and real-
time”.
From the evidence, we found only this one
technology factor, while, in organizational and
environmental context, we found eight and two
factors respectively. Moreover, the technological
factor is found in Case A only. This is a surprise when
compared with the literature conducted in other
industry settings.
An Exploratory of Factors Influencing of Digital Technology Adoption in Thai Maritime Industry: Perspective of Thai Shipowners
673
This discussion suggests the following
proposition:
P1: The technological-related critical is not the
main driving force for Thai shipowners to
adopt digital technology.
5.2 Organizational-Related Criteria
The large number of criteria highlighted by
participants indicated that organizational
considerations were dominating in their opinion when
assessing the implementation of digital technology
within the Thai shipowners company.
Improved Organizational Efficacy
Improved organization efficacy is one of the criteria
that three cases mentioned. Organizational efficacy
can be improved through digital technology adoption
in several ways. Case A and B reported that they can
also provide new and improved tools for
communication and collaboration, which can help to
increase productivity and reduce the time required to
complete projects.
“When I was a crewman the crew member on the
vessel around 24-25 people, but now it's 21-22
people, some vessels have 20 people, like the vessel
has a new system. that is easy to operate, easy to
maintain plus which will not be used by many people.
The company, therefore, they don't want to use a lot
of people, they reduce the number of people and do
cost optimization”.
In addition, Case C supported that digital
technologies can provide organizations with access to
new data sources and analytics tools such as
dashboards in ERP systems, which can be used to
make data-driven decisions and improve the overall
decision-making process. Suppose in the future we
want to see almost everything of ship equipment in a
running ship. We will be able to access to new data
sources to check everything how the device will be,
how the dashboard cycle is, what temperature, and
how's the oil level. I ensure that technology must the
key to supporting the requirement”.
Reduced Operational Expenses
Three case shipowners have improved the process
through digital adoption. Reduced operational
expenses are one of the forces for digital adoption. To
reduce operational expenses, the shipowners utilized
digital technologies to cost savings on operations due
to the optimization of processes and staff, decrease in
fuel prices, decrease in expenditures related to
procedural delays, and decrease in unexpected
accident. The Chief Technical Officer of Case B has
strongly remarked that digital technology can allow
cost savings on operations due to the optimization of
processes and staff and improve profitability. We
thought that if we put the data in the computer, we
will be able to reduce the calculation time from 20
minutes, it will be only 5 minutes, we save 10 minutes,
1 year we use to run 300 trips, 300 trips multiplied by
10 minutes, is 3000 minutes. It made the run from 300
become 302 trips, assuming the number of trips
increased that we earn more money. From saving
only 10 minutes per day, only 10 minutes per trip,
resulting in 2 additional trips, we thought that the 2
trips were worth the cost of a computer of 60,000
baht.
Case A also supported that the digital technology
can be used to practice navigation skill. We bought
that simulation software, and we have the size data of
the different types of marines that we have that we can
use to practice what you need to do when marines
enter different areas.”
Better Internal and External Communications
As the maritime business is known to operate 24
hours a day, communication between land and sea is
important. In the past, communication had to wait for
ships to dock in order to send messages. But
nowadays, digital technology is helping to make
operations between land and sea more efficient.
Especially, the Training Instructor Manager of Case
A remarked that the pandemic Covid-19 reshape the
meeting and training pattern. Crew can train when
they operate on vessels and the quality of training is
higher than traditional training. Our attitude
changed after we started training online for a while,
we felt that it was not bad. Now, at the same time, we
feel that it's easier to keep eye contact or look at the
body language of the participants. I feel that it's not
bad, it's good.”
Case B and C focused on noon report and crews
can create purchase requisitions and then receive
goods once the vessels arrived at the destination port
without any delay.
Top Management Support and Commitment
Case A and B mentioned that top management plays
a crucial role in innovation by establishing the
necessary atmosphere and making decisions that
facilitate the successful generation and use of
knowledge (Al Shaar et al. 2015). “Just like the top
management himself, he had already gone to new
Main Engine technology training section. The dealer
gave him a free seat and he try to go to training. After
going to training, the top management told me to
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change to new Main Engine technology. I mean, it's
up to the top management.”
Case B and C also mentioned about the important
of top management support “Top management
policies must be clear. Then there is clear
communication with the employees. We will measure
the digital technology usage by KPI and monitor what
changes and what the result will be. They can assist
in obtaining the necessary resources and reaping the
benefits of digitalization adoption.”
Plan Maintenance Monitoring & Unplanned
Situation
Plan maintenance system (PMS) for maritime refers
to the process of regularly scheduled and systematic
inspections, repairs, and upgrades to the equipment
and systems used in the maritime industry. Case A
and C reported that the automatic PMS can help to
reduce the risk of equipment failure and prevent
safety incidents. “As for the PMS, I was able to draw
out which ones were overdue, which ones were due,
which had to be done. It can be retrieved using very
little time. Then come to consider choosing which
system or equipment to do PMS and then order to the
ship that this one is close to having to do PMS or this
is immediate to be done. It was able to plan and it
wasn't as hard as before.”
Case B and C supported the theme that technology
can play an important role in supporting unplanned
situations in various industries, including the
maritime industry. By providing real-time data and
analytics, digital technologies can help organizations
quickly assess the situation and make informed
decisions to respond to unplanned events, such as
unexpected weather conditions, equipment failures,
or security incidents.
“…because navigation has to look at the
geography as well for example it might encounter a
typhoon now that is strong, so we need a technology
tool to detect conditions such as wind conditions, sea
waves conditions.”
Respondents from Case A and C were more
expected to decrease an unexpected accident.
Unforeseen accidents can continue to occur and affect
shipowners in terms of both crew and hull costs.
Today we have sensors on the bridge. Most of the
accidents will happen when the boatman may fall
asleep. This system will have a camera mounted on
the bridge and track the movement of the people in
the bridge and let the AI teach it that if the person
stays still for more than the specified seconds. This is
one thing that uses technology to help reduce
accidents.
Documentation
The adoption of technology is closely related to the
concept of a paperless environment. Paperless refers
to the use of digital technologies to replace traditional
paper-based processed, which can increase
efficiency.
Three case shipowners reported that in the
maritime industry, many of the tasks that were
previously performed on paper such as payroll,
purchase requisition, and classification certificates
and now digital technology makes paperless. “I think
it's a policy from the company in order to find a
system that will support all of the paperwork. In the
past, we would have paper in the payroll section, in
the provision section, in the weekly report section,
and in the PMS section, it's all spread out, it's all
paper.”
Case C refers that “The main factor that we can
touch on is the cost of operating in various sections.
When we use technology, many costs are reduced.
For example, when we try to go paperless, of course,
the cost of using paper in our work is reduced.”
The evidence from the cases suggests the
following proposition:
P2: Organizational-related factors are the main
drivers of digital technology adoption in Thai
shipowners.
P3: The organizational-related criteria are
improved organizational efficacy, reduced
operational expenses, better internal and
external communication and top management
support and commitment, and documentation.
5.3 Environmental-Related Criteria
There are two factors were identified under the
environment theme. Legal, regulatory, & policy
requirements, and social pressure influence.
Legal, Regulatory, and Policy Requirements
Normally, International Maritime Organization
(IMO) specifies which types of ships must be
equipped with what kind of digital technology. The
legal, regulatory and policy requirement is very
important for the maritime industry which is
completely agreed upon in the three cases. Case C is
the local trade shipowner and installed only the digital
equipment which required by the marine department,
but the technical manager of Case C plan to trade
international voyage so the vessel has to be inspected
and install more digital equipment such as ECDIS to
comply with the international maritime regulation.
“We must strictly follow the IMO's regulations. Is
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there any additional equipment to be installed? What
equipment do we have to invest in? We must make it
comply with international maritime regulations.”
Case A and B are listed companies, and both are
international trade. They have been the requirement
of the regulation since building a new vessel at the
shipyard. “When building a new vessel, you will have
to look at all the regulations put in. Not that the
current regulations put in all. You have to look in the
next 2-5 years to see what regulations will come in.
We have to install them in from now on. Otherwise, it
will be a waste of time to call the vessel in the dock to
install new regulations.”
Social Pressure Influence
According to the research evaluation, firms become
more similar due to isomorphic pressures and
legitimacy pressures caused by perceived social
pressure and influence (DiMaggio & Powell, 1983).
As a result of competition and customer pressures,
organizations within the same industry tend to grow
increasingly similar over time. In the past 10 years,
there are many companies that do not focus on
developing technology, either shut down or have few
jobs. Perhaps the shipowner had ordered the vessel
to go to an anchor point that had a lot of petroleum
ships. It's parked there. There is no work for a week
or only runs one way. Or run only 2 times a month, it
has been greatly affected in the present.”
Case B also mentioned that the company cannot
grow and get a competitive advantage without
technology. “We also have to be ready in terms of
finance and continue to progress by using technology
to help us because if we want to grow without
technology to help me, in this era all over the world
has used digital technology systems.”
The evidence from the cases suggests the
following proposition:
P4: Concerning external environment, legal,
regulatory, & policy requirements is a key
factor to digital technology adoption in Thai
shipowners.
P5: In Thai marine time industry, digital
technologies are adopted with the aim to
reduce the company’s social pressure impact
and demonstrate its commitment to
sustainability, which result in improved
reputation and competitiveness.
6 CONCLUSIONS
This study aims to gain a deeper understanding of the
digital technology adoption process from the
organizational level's perspective and to explain these
findings using existing innovation adoption theories.
The investigation and integration of the technology,
organization, and environment framework and
institution theory indicated that perspectives on the
innovation adoption process are susceptible to
change. This is a preliminary study in which the
researcher especially plans to collect more data from
more cases and a follow-up large-scale survey to
confirm the identified adoption factors. Case
evidence highlights that the main drivers of digital
technology adoption in the maritime industry are
improved organizational efficacy, reduced operation-
al expenses, better internal and external communica-
tions, top management support and commitment, plan
maintenance monitoring & unplanned situation,
documentation, legal, regulatory, & policy
requirements, and social pressure influence. We also
found that technological drivers/barriers are less
important comparing to the other two context, namely
organizational and environmental.
The result suggests that policymakers and
industry associations should promote digital
technology adoption in the Thai maritime industry by
educating shipowners on the benefits. Shipowners
should invest in training their employees on digital
technologies and involve their top management in the
adoption process to drive digital transformation.
Integrating digital technology into existing
organizational structure can improve organizational
efficacy and reduce expenses. Additionally, ship-
owners should collaborate with other stakeholders to
create a supportive ecosystem and address social
pressure to facilitate digital technology adoption.
A limitation arises from conducting exploratory
research in this emerging field. It is essential to clarify
that we are aware that only evidence form three cases
may not be able to provide a robust conclusion.
However, this is just a preliminary study. We plan to
collect more data which could result in a different
result. Moreover, the researcher is aware that it is not
possible to holistically develop a model that applies
to every Thai shipowners and their respective needs.
Since the research scope is focused on a unit of
analysis in Thai shipowners, future research is
necessary to investigate the use cases for more
vertical areas in the maritime industry. These may
include, amongst many categorizations, shipyard,
port, ship management, and other transportation
industries.
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