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1 INTRODUCTION
Maritime piracy remains one of the most serious
threats to global trade, maritime security, and the
stability of national economies [1]. This phenomenon,
deeply rooted in history, has not lost its significance in
the 21st century despite technological advances and
international efforts to ensure maritime safety [2].
Pirates attack commercial vessels, tankers, and even
passenger ships, demanding ransom or stealing
valuable cargo. Their actions not only cause direct
financial losses but also undermine the stability of
regions dependent on international trade and
endanger the lives and safety of crew members [3].
Currently, maritime piracy is especially active in
regions such as the Strait of Malacca, the Gulf of
Guinea, the waters off the coast of Somalia, and the
South China Sea [4]. In these areas, pirates employ both
traditional attack methods and modern technologies,
making their operations increasingly complex and
difficult to detect [5]. They often operate in groups,
using fast motorboats and firearms to attack vessels
and force crews to surrender [6].
To counter these threats, various security measures
are implemented [7]. These include military patrols,
enhanced ship protection by private companies, and
the implementation of modern monitoring and alert
systems, such as the Ship Security Alert System (SSAS)
[8]. International organizations such as the UN, the
IMO, and regional bodies like the African Union also
collaborate on developing joint strategies and legal
frameworks to combat maritime piracy [9].
Nevertheless, maritime piracy remains a serious
challenge that requires further improvements in
prevention effectiveness, the development of new
protection technologies, and better cooperation among
states and international organizations [10]. Combating
this phenomenon is a key element in ensuring the
The Application of Blockchain Technology
in Combating Maritime Piracy: Potential Benefits
and Challenges
S. Rozbiewska
Maritime University of Szczecin, Szczecin, Poland
ABSTRACT: Maritime piracy remains a persistent threat to global trade and maritime security, demanding
innovative countermeasures. This paper explores the potential of blockchain technology as a transformative tool
in enhancing maritime safety and combating piracy. With its decentralized, transparent, and tamper-resistant
architecture, blockchain offers significant advantages in tracking vessels and cargo in real time, securing transport
documentation, and automating processes through smart contracts. The study highlights real-world applications
such as TradeLens, CargoX, Guardtime, and VeChain, which illustrate the technology’s utility in strengthening
maritime logistics and anti-piracy efforts. Despite these benefits, the paper also addresses key implementation
challenges, including the lack of standardized protocols, high initial costs, integration difficulties with legacy
systems, and the need for international collaboration. Ultimately, the article argues that while blockchain is not a
panacea, it holds substantial promise as a strategic asset in the fight against maritime piracy.
http://www.transnav.eu
the International Journal
on Marine Navigation
and Safety of Sea Transportation
Volume 20
Number 1
March 2026
DOI: 10.12716/1001.20.01.21
204
security of maritime routes that are vital to the global
economy.
Blockchain technology emerges as an innovative
tool in maritime transport to address the challenges of
maritime piracy. Blockchain is a technology that has
gained immense popularity in recent years, mainly due
to the rise of cryptocurrencies such as Bitcoin [11].
However, its potential goes far beyond the financial
sector. Blockchain is a distributed data ledger that
provides security, transparency, and immutability of
records [12]. Unlike traditional systems that rely on a
central authority (e.g., a bank or financial institution),
blockchain enables the storage and exchange of data
without intermediaries, forming the foundation of its
innovativeness [12].
2 BLOCKCHAIN AS AN INNOVATIVE TOOL IN
MARITIME TRANSPORT
The key features of blockchain technology
decentralization, transparency, and securitymake it
applicable across various industries [13]. Blockchain
operates on a network of computers that collectively
store and verify data. As a result, there is no single
central point that could be attacked or removed. Each
transaction is recorded across multiple nodes, ensuring
resilience to failures and tampering. Moreover,
transactions stored on the blockchain are publicly
accessible and cannot be altered once approved. This
feature allows for full verification of transaction
histories and ensures the reliability and accuracy of the
data. Every record in the blockchain is protected by
advanced cryptographic algorithms, making it highly
resistant to cyberattacks. Data tampering becomes
virtually impossible, ensuring a high level of security.
In the context of maritime transport, blockchain is
gaining significance as a tool that can revolutionize
supply chain management by providing greater
efficiency, security, and transparency in processes [14].
In traditional logistics systems, transactions and
documents must pass through numerous
intermediariessuch as agents, banks, or customs
officerswhich increases the risk of errors, delays, and
fraud [15]. Blockchain eliminates the need for
intermediaries, allowing for secure and automated
direct data exchanges between parties [13].
In maritime transport, blockchain can be used for
documentation management, cargo tracking, and
process automation [16]. Maritime shipping involves a
large number of documents (contracts, invoices,
certificates of origin, health certificates, etc.) that must
be shared among various stakeholders. Due to
blockchain, these documents can be stored
electronically, with a guarantee that they cannot be
altered or forged. Blockchain also enables precise
tracking of each shipment at every stage of transport.
This makes it possible to achieve full transparency,
which enhances logistics management efficiency and
allows for quicker responses to any problems. By
utilizing smart contracts, blockchain enables automatic
execution of transactions and fulfillment of contractual
conditions reliably. For example, once a ship arrives at
port and delivery is confirmed, payment for the
transport can be automatically processed.
Introducing blockchain technology into maritime
transport can significantly reduce operational costs,
accelerate logistics processes, improve efficiency, and
lower the risks associated with fraud or administrative
errors. This innovative approach can also enhance
maritime security by enabling better control over
vessel movements and their cargoan important step
in minimizing threats and improving protection in the
context of maritime piracy.
3 BLOCKCHAIN AND DATA SECURITY IN
MARITIME TRANSPORT
Although blockchain technology was originally
developed with cryptocurrencies in mind, it is finding
increasingly widespread application across various
industries, including maritime transport. Its unique
featuresdecentralization, transparency, and
securitycan serve as key tools in ensuring safe and
efficient data management related to maritime
logistics. Particularly in the area of data security and
protection against maritime piracy, blockchain can
play a crucial role by transforming the way ships,
cargo, and logistics processes are monitored.
3.1 Secure Tracking of Ships and Cargo
One of the most significant applications of blockchain
in maritime transport is the ability to create reliable,
immutable records concerning the location of vessels,
their cargo, and their status in real time [17]. With
blockchain systems, every movement of a shipfrom
the moment cargo is loaded to its delivery at the
destinationis recorded on a distributed ledger
accessible to all stakeholders involved in the transport
process [17]. Crucially, records on the blockchain are
resistant to tampering and forgery, since every change
requires consensus across the entire computer network
[17].
Real-time cargo tracking can significantly enhance
security, especially in the context of maritime piracy. In
cases where pirates seize control of a vessel, blockchain
provides full verification of the ship’s route, which
may aid in the swift recovery of both the ship and its
cargo [18]. Every movement is documented in a way
that prevents later manipulation, meaning that
information about loading, routes, stopovers, and any
irregularities during transport is available in real time
and forms a solid basis for initiating rescue operations
[18].
3.2 Securing Logistics Processes in the Context of
Maritime Piracy
In maritime transport, logistics processes are especially
vulnerable to errors, fraud, and inconsistencies in
documentation[19]. Traditionally, documents such as
shipping contracts, invoices, certificates of origin, or
health certificates are exchanged between various
parties through conventional systems, which may be
prone to manipulation or delays. Blockchain can
ensure full verifiability and reliability of these
documents.
By using blockchain, transport documents such as
bills of lading, quality certificates, and authenticity
205
certificates can be stored in a tamper-proof and
transparent manner [19]. Each document is recorded in
the blockchain system and assigned to a specific
transaction or shipping unit [19]. This ensures that all
parties involved in the logistics processcarriers,
freight forwarders, customs agents, portshave access
to the same, verified, and secure information in real
time [19].
Such security measures can be critical in the context
of maritime piracy. Pirates often exploit
documentation gaps to hijack vessels. When
documents are stored on the blockchain, any attempt
to alter data (e.g., about cargo or destination) is
immediately detected and recorded, helping to prevent
illegal seizures. Transparency in logistics processes
supported by blockchain reduces the risk of fraud,
errors, and simplifies dispute resolution ("Maritime
Logistics in the Baltic Challenges in a Changing
World", 2025).
4 EXAMPLES OF BLOCKCHAIN APPLICATIONS
IN MARITIME TRANSPORT
Transformations in maritime logisticsparticularly in
the areas of supply chain management, cargo
monitoring, protection against piracy, and data
securityare becoming possible due to the
introduction of this innovative technology. Blockchain
enables the creation of systems that eliminate
intermediaries, enhance transparency, and automate
processes, resulting in more efficient management of
maritime transport
4.1 Real-Time Cargo Tracking and Ship Monitoring
TradeLens (Maersk and IBM)
TradeLens is a project developed by Maersk and IBM
aimed at ensuring full transparency of the supply chain
[20]. With blockchain technology, it is possible to track
cargo in real time [21]. The system allows
participantsincluding cargo owners, port operators,
and carriersto access the same, up-to-date database,
which eliminates documentation errors and increases
the efficiency of logistics processes [22]. Blockchain
ensures that every ship and cargo movement is
recorded on an immutable ledger, enabling strict real-
time monitoring of their location and condition. In
traditional logistics systems, shipment information is
often scattered across different entities, leading to
delays, errors, and data manipulation [21].
4.2 Transport Documentation Management and Cargo
Authenticity CargoX [23]
In maritime transport, processes related to
documenting goodssuch as shipping evidence,
certificates of origin, and quality certificatesare key
to ensuring the legality and safety of transportation.
Blockchain can be used to store these documents
securely, independently of central databases,
eliminating the risk of manipulation or loss. CargoX is
a blockchain-based platform that facilitates secure
exchange of transport documents, such as the Bill of
Lading (B/L) [23]. Through blockchain, these
documents are protected from forgery and enable fast,
secure transmission of information between parties
(carriers, importers, exporters) without the need for
intermediaries. This platform enhances the efficiency
and security of maritime transport, eliminating
unnecessary delays and costs related to traditional
document circulation.
4.3 Protection Against Maritime Piracy Guardtime
Guardtime has developed a blockchain-based solution
that supports cargo security management and real-
time monitoring of shipment status [25]. With
blockchain, it is not only possible to track cargo but also
ensure that no data related to a ship’s route has been
altered. Blockchain also facilitates quicker responses to
pirate attacks by allowing immediate verification of a
vessel’s location and cargo status [24]. As a result,
shipping companies can take swift and appropriate
actions to minimize losses associated with piracy.
4.4 Process Automation Through Smart Contracts
VeChain
Smart contracts are self-executing contracts that
operate on the blockchain [26]. In maritime transport,
they can automate various processes such as payment
execution for cargo transport, activation of security
systems, and automatic status updates for cargo.
VeChain is a blockchain platform that enables the
automation of many logistics processes using smart
contracts [27]. For example, it can automatically trigger
payment for cargo transport upon delivery to the port
[28]. The system can also monitor cargo quality (e.g., in
the case of food or pharmaceuticals) and automatically
verify the compliance of transport documents [29]. Due
to VeChain, maritime transport becomes more
transparent and efficient, minimizing the risk of fraud
and delays [30].
5 POTENTIAL BENEFITS OF USING
BLOCKCHAIN TO COMBAT MARITIME
PIRACY
Maritime piracy poses a serious threat to global
transport and maritime security, leading to cargo
losses and endangering the lives of crew members. In
response to this threat, blockchain technologywith
its unique features such as decentralization,
transparency, and securityhas the potential to
become a key tool in providing effective protection
against maritime piracy. One of the critical elements in
combating maritime piracy is the ability to effectively
track the location of ships and cargo in real time.
Blockchain, due to its capability to record data in an
immutable way, allows for monitoring every
movement of a vesselfrom loading to final delivery.
A blockchain-based system ensures that location data
of vessels is transparently available and verifiable by
all involved parties, including shipowners, port
operators, maritime authorities, and relevant
government agencies. Pirates often exploit a lack of
information or manipulated transport documentation
to seize control of a vessel. The transparency of
blockchain-stored data ensures that every ship
movement is accurately documented, which makes
hijacking more difficult and guarantees immediate
206
access to location data in the event of an attack. When
pirates attack a ship, access to reliable, immutable data
allows for rapid localization of the vessel and
immediate alerting of the relevant authorities,
shortening reaction time and improving the
effectiveness of rescue operations.
In maritime transport, documentation such as the
Bill of Lading, certificates of origin for goods, health
certificates for crew, and customs documents is
extremely important. These documents are often
targeted for forgery and manipulation, which can lead
to questions about the legality of the cargo and, in cases
of piracy, allow pirates to exploit the system.
Blockchain allows for the secure storage and
transmission of these documents in a tamper-proof and
transparent manner. Documents stored on the
blockchain are immutable and clearly accessible. In the
event of a hijacking, the inability to modify documents
becomes a barrier that hinders data manipulation and
enables quick detection of irregularities. Using
blockchain to store documents guarantees the
authenticity of cargo and its transportation history.
Each document is tied to a specific transaction or
shipment unit, eliminating the risk of fraud involving
the handling of illegal or stolen goods.
Blockchain also enables the use of smart contracts
that automatically execute contractual conditions once
predefined criteria are met. In the context of maritime
piracy, smart contracts can monitor safety conditions
for ships, crews, and cargo. For example, upon a
vessel's arrival at port, not only can transport payment
be automatically triggered, but so can processes for
verifying cargo and crew security. Blockchain can
verify whether the cargo complies with all required
certifications and documentation. As a result,
transport-related processes become more secure, and
the risk of transporting illegal or dangerous goods is
minimized.
Smart contracts can include provisions regarding
crew protection against piracy, such as activating
alarm systems, video surveillance, or initiating rapid
response protocols in dangerous situations. As a
decentralized technology, blockchain ensures that all
data related to transactions and ship movements are
stored across multiple nodes in the network. This
structure offers high resistance to tampering, since any
attempt to alter data must be approved by the entire
network. In the context of piracy, this allows for a
system in which information about ship location,
cargo, and technical condition is secure and resistant to
forgery. Pirates may attempt to disrupt traditional
monitoring systems through cyberattacks, but
blockchain is resistant to such threats because changing
data at a single network point requires the consensus
of the majority of participantsrendering
manipulation virtually impossible.
Due to its decentralized nature, blockchain enables
all supply chain participants to access the same, up-to-
date, and verified information on transport status. This
ensures full control over the process and enables real-
time responses to any irregularities, including piracy-
related threats. Blockchain’s global reach allows for
cooperation between countries, international
organizations, and shipping companies to ensure
maritime safety. Due to the transparency and security
of this technology, it is possible to establish shared
platforms where all involved entities can exchange
information about piracy threats and coordinate
responses.
Blockchain supports the creation of shared
databases containing information on pirate incidents,
high-risk shipping routes, and suspicious activities.
Such a system enables faster data exchange between
countries and international bodies. With access to
location data and cargo status, rescue operations can be
more quickly and accurately coordinated in the event
of a pirate attack.
6 CHALLENGES IN IMPLEMENTING
BLOCKCHAIN TO COMBAT MARITIME
PIRACY
Despite the numerous benefits that blockchain
technology may offer in terms of maritime transport
security and piracy prevention, its implementation in
this field presents several challenges. These range from
technological issues to legal barriers and international
cooperation difficulties. Implementing blockchain to
combat maritime piracy requires overcoming multiple
obstacles. One of the main challenges is the lack of
unified standards that could ensure interoperability
between different blockchain systems. Various
companies, organizations, and institutions may use
different blockchain solutions, resulting in difficulties
in data exchange and collaboration across supply chain
participants. Maritime transport involves many
stakeholdersshipowners, ports, logistics companies,
customs agencies, and maritime authoritieswho
might operate on incompatible blockchain platforms.
The absence of standardized protocols may hinder the
exchange of information on ship locations, cargo, or
transport documentation, thereby reducing the
system’s overall efficiency. Integrating blockchain with
traditional systems already in use in the transport
industry (e.g., fleet management systems, logistics
platforms) can be both costly and complex. Introducing
new technologies into existing infrastructures requires
significant financial investment and time. Although
blockchain promises long-term benefits such as
reduced operational costs and enhanced security, the
initial implementation costs can be considerable. These
include not only the development of blockchain
infrastructure but also staff training and system
integration efforts. Deploying blockchain in maritime
transport entails the purchase of suitable equipment,
software, and the hiring of IT specialists, all of which
can involve substantial expenditure. For smaller
companies or developing countries, such investments
may be financially burdensome. The implementation
process of blockchain in maritime transport can be
time-consuming and may require adjustments in
various areas, including legal regulations, operational
procedures, and IT systems. This may delay the
realization of benefits promised by the technology.
Successful blockchain implementation in maritime
transport demands cooperation among many different
stakeholdersshipowners, ports, customs agencies,
international organizations, logistics companies, and
government bodies. Transitioning to a blockchain-
based system requires coordinated efforts and mutual
understanding among all involved parties. Countries
and companies with varying levels of technological
207
advancement may face difficulties in adopting new
solutions. Developing nations may struggle to invest in
blockchain, while some companies may resist change.
The scale of implementing blockchain in maritime
transport demands extensive global collaboration.
Reaching consensus on common standards, data
exchange protocols, and implementation
methodologies can be challenging and time-
consuming.
7 CONCLUSIONS
The contemporary application of blockchain
technology in combating maritime piracy appears to be
a significant issue, focusing on both its potential
benefits and the challenges related to its
implementation. Maritime piracy remains one of the
primary threats to the security of global maritime
transport, endangering not only crew members’ lives
but also the stability of economies. Despite
technological progress, this phenomenon continues to
pose serious challenges, particularly in regions such as
the Strait of Malacca, the Gulf of Guinea, and the South
China Sea.
Due to its transparency, decentralization, and
resistance to tampering, blockchain technology is an
innovative tool that can revolutionize supply chain
management in maritime transport. This technology
enables secure real-time tracking of vessel and cargo
locations, allowing for quicker responses in the event
of pirate attacks. Additionally, blockchain enables the
storage of transport documentation in a manner that
prevents unauthorized alterations or forgery,
significantly reducing the risk of fraud.
Moreover, blockchain supports process automation
through the use of smart contracts, which allow for the
safe execution of transactions, such as payment
processing or the activation of security systems. These
solutions can also contribute to the protection of ship
crews by enabling quicker and more effective
responses in the event of a piracy threat.
Although blockchain technology offers many
advantages in terms of maritime security, its
implementation is associated with numerous
challenges. These include the lack of unified standards,
high initial costs, difficulties in integrating with
existing systems, and the complexity of achieving
international cooperation. Implementing blockchain in
maritime transport requires coordinated efforts among
multiple stakeholders, which can be complex and time-
consuming.
In summary, blockchain technology has the
potential to become a key tool in the fight against
maritime piracy, offering new possibilities in terms of
monitoring, automation, and protection against fraud.
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