111
1 INTRODUCTION
In our fast paced, technology driven society, we
engage in a wide range of multimodal technologies.
Research and innovation represent the first steps to
take so to come out of the current economic crisis.
Tougher competition and the arrival of new world
players leave us the only choice but to invest in the
future through the development of research and
innovation.
How does the ship industry work? Over the last
few years, there have been some initiatives concerning
autonomous or unmanned or the “robot ships”. On
these levels, new definitions of the Ship and Master of
the ship are on the horizon….as there will be no
humans on board. Where do we go from here? How
can we make communication be effective? Is there a
reinvented definition of the Maritime English/IMO
Standard Marine Communication Phrases (ME/ IMO
SMCPs) available for what is to be the Shore Control
Centre (SCC)? As Maritime Education and Training
(MET) educators, how are we going to solve this
problem? The application of new information
technologies, digitalisation and automation may
rapidly change the way maritime transport works and
operates. We are currently preparing students for jobs
that do not yet exist, using technologies that have not
been invented capable to solve problems we do not
even know are problems yet….
In March 2014, the Robotics Business Review
(RBR) staff presented autonomous ships and their”
unmanned bridge of the future”, where „ship captains
in 2025 will use heads-up displays to turn the bridge
into an augmented reality control system”. They took
this step after Rolls-Royce’s announcement in
February 2014 about their intention to build crewless
cargo ships to serve a global shipping industry. The
report indicated that was worth an estimated $375
billion annually: „By 2025, crews manning the bridges
of tugs, cargo ships, and platform supply vessels
Preparing for an Unknown Future. Autonomous Ships
Versus Position of the Maritime English/IMO Standard
Marine Communication Phrases(ME / IMO SMCPs) in
Maritime Practice. How Are We Going to Solve this
Problem?
C. Chirea-Ungureanu
Constanta Maritime University, Constanta, Romania
ABSTRACT: The reason for modern Maritime Education and Training (MET) is to provide students with the
necessary skills, and knowledge to be successful in the future outside of school. Futuristic teachers need to help
students become life-long learners who are ready, organized, and equipped for new challenges. This paper tries
to find position of Maritime English/IMO Standard Marine Communication Phrases (ME/ IMO SMCPs) versus
autonomous ships, to facilitate developments in a safe predictable environment and for ensuring safe navigation
in the future, also in a mixed traffic situation where both manned and unmanned ships will be sailing on the
same routes and ports. In its attempts, this paper tries to analyse the Obstacles and Disadvantages when no crew
is required on board; this could jeopardize the statute of seafarers, and not every aspect of unmanned shipping
is all roses. The work is much future oriented and requires challenging conventional concepts and operations.
http://www.transnav.eu
the International Journal
on Marine Navigation
and Safety of Sea Transportation
Volume 15
Number 1
March 2021
DOI: 10.12716/1001.15.01.10
112
could be using new bridge technology being
developed by the VTT Technical Research Centre of
Finland (VTT) in collaboration with Rolls-Royce
Marine and Aalto University of Finland. The future
ship’s bridge, [..] could also help crews sail the seven
seas without getting their feet wet, by supporting
remote operation of a range of seafaring vessels. On-
board versions of the bridge automatically detect
which crewmember is at the console and
automatically adjusts to the user’s predefined settings.
The bridge window acts as a heads-up display with
information about the location of the ship (and other
vessels)” [8].
More than that, the same report gave information
about another $4.8 million European project called
Maritime Unmanned Navigation through Intelligence
in Networks (MUNIN) to be concluded by end of
2014.The project main objective was to „develop
prototypes of a range of technologies, including
autonomous route finding and collision avoidance
systems, and shore-side control” [8].
In this paper, the author is inviting you to venture
into your imagination to navigate on autonomous-
unmanned ships and on manned vessels as well, so to
manage after that to focus on reality and to bring to
light their advantages and/or obstructions in the
maritime industry, along with the major changes that
the use of autonomous-unmanned ships presume.
2 THE STRONG CONFLICT OF OUR SOCIETY:
SHIPPING AND WORLD TRADE
Shipping is the heart of the global economy. People
say if ships stop operating half the world will die of
hunger and the other half will freeze to death. There is
no question that nowadays ships cannot run on fuel
and sophisticated equipment only. A great number of
adequately trained, qualified and experienced
seafarers must operate the ships to sail safely, and the
cargo be delivered to the consignee in as good
conditions as it was received.
The pace of change in our world is accelerating.
Technology is helping us manage this change and stay
connected across the globe. New technologies such as
the Internet of Things (IoT), artificial intelligence,
robotics, and virtual reality, are set to innovate the
maritime industry, including ship design, operations,
and managerial patterns, so to reduce costs and
increase profits. That is not easy to do as there are
many steps to take; moreover, the open-ended digital
technology pushes the companies to arrange how they
Identify, Operate, Evaluate Risks or Fail these new
technologies. Digital solutions offer opportunities to
scale rapidly and disseminate fast when the solution
answers a crucial need. If companies hope to preserve
their competitive edge and avoid division, then they
must use the new technologies and facilitate the rapid
dissemination of digital assets.
Each digital innovation is a building rock to create
new combinations for innovation and division. The
expertise and equipment knowledge makes some
companies the ideal partners to transform current-
days vessels for tomorrow’s needs. Therefore, remote,
and autonomous ships will be safer, more efficient,
and cheaper to build and operate. More than that,
they are solutions to reduce human-machine
interaction by remotely controlled tasks and
processes, while keeping the human at the centre of
critical decision-making.
Alan Tovey (2016) in his article published on April
11, 2016, in The Telegraph (Business page) announced
the crewless 'drone ships' will be sailing the seas by
2020, citing Oskar Levander, head of innovation for
Rolls-Royce marine unit: “This is happening. It is not
a question of if, it is a question of when. We will see a
remote controlled ship in commercial use by the end
of the decade”[9]. Oskar Levander also predicted the
system could turn ships into a seaborne version of car
service Uber, with the potential to change completely
the current shipping sector: “Drone ships will allow
the creation of new services, which will support
existing players to make their businesses more
efficient and enable new entrants with new business
models to the sector, with a potentially similarly
disruptive effect to that caused by Uber, Spotify and
Airbnb in other industries” [9].
As a result, the ships will be steered from 'virtual
bridges' based on shore. Crews could control the ships
from shore simultaneously. Sensors such as radar,
lasers and computer programs will allow the ships to
pilot themselves, with shore-based captains taking
over if there is a problem or for complex docking
procedures, although the seafarers will be on board
ship at first to oversee the pilot projects. In the long
term, one of the most important advantages of this
innovation is the fact that crewless ‘drone ships” are
expected “to help overcome the staffing shortages in
the marine sector, with people increasingly reluctant
to take on careers that mean months away from
home” [9]. Therefore, “virtual” captains and crews
will be able to monitor the vessels from shore,
meaning normal home lives. They have predicted that
crews stationed around the world will be ready to be
transferred by helicopter to crewless ‘’drone ships’’,
when the latter might encounter problems, they could
not handle themselves.
Having arrived at this point there are some
questions to puzzle over: Can you think of a specific
situation where having seafarers present would be an
advantage over just having users and display of
information? Can you assume a situation where users
to have is an advantage? Can you consider a situation
that model a danger to the ship and voyage?
Accordingly, would you rather have seafarers, who
might cope and find solutions against e.g., sea pirates’
attacks, or evaluate, who are less likely to cope but a
lot easier to “write off”? Can you think of cyber
pirates that can hack a ship?
Taking into consideration the challenges for MET
institutions and shipping organizations as well in
facing the Digital Era, the shipping companies often
fail to recognize what an attractive target they are to
cybercriminals. The NotPetya cyber-attack in June
2017 affected badly several shipping companies,
including the shipping giant A.P. Moller Maersk
group. On 18 August 2017, Chris Baraniuk, a
technology reporter, analysed „How hackers are
targeting the shipping industry”, and „breaking into a
shipping firm’s computer system could allow
113
attackers to access all kinds of sensitive information”
[1].
The modernized ships, increasingly computerised,
are vulnerable. For many involved in the maritime
domain, this is the greatest headache. Malware,
including NotPetya and many other pains, can spread
from computer to computer on a network. That means
connected devices on board ships are also potentially
vulnerable. On April 03, 2018, the online editor at
ComputerworldUK and Techworld, Tamlin Magee
wrote on his blog:” Security researchers have for years
been warning the maritime industry that it is low
hanging fruit as incredibly high-value cargo is
transported on ships with legacy systems, combined
with poor processes and awareness, while the
seaports they dock in often suffer from the same
problems. In 2015, Kaspersky Labs went as far as to
claim shipping was ‚easy meat’ for hackers. […] The
Russian cybersecurity vendor reported on a wave of
significant hacks: these ranged from a drilling rig that
was hacked and tilted from its site in South Korea
towards South America in 2010. […] In 2012, a
criminal gang hacked into the systems of the
Australian Customers and Border Protection Service
agency, so they could be one-step ahead of authorities
that placed containers under suspicion. […] Maritime
security company CyberKeel warned that ships were
switching off their navigation systems when travelling
through waters where armed pirates are to operate
sometimes faking the data to make the ships appear
they were elsewhere. […] A daring scheme in the
Belgian port town of Antwerp meanwhile saw
criminals gain access to systems that controlled the
movement of containers to smuggle cocaine, heroin,
and guns. ‚If your goal is to steal cargo there are easier
ways of approaching piracy than some of the more
sophisticated headlines demonstrated by security
researchers’. […] In 2017, a cargo ship travelling from
Cyprus to Djibouti lost control of its navigation
system for 10 hours preventing a captain from
manoeuvring and with the intention of steering it into
territory where it could be easily boarded by pirates
and robbed” [6].
Accordingly, hack the Electronic Chart Systems
(ECDIS) and you can send a ship to wrong way, or
you may be able to crash the ship, particularly in fog.
Very often there is a lack of network segregation on
vessels. Hack the satcom terminal and you connect
yourself to the vessel network. If the ship is remotely
controlled and communicating with satellites, that
means hacking could play a role in future piracy at
sea. Spoofing” is a technique that sends different
GPS coordinates to a vehicle with the aim of throwing
it off course. Rather than a hostile attempt to crack
into a computer system, spoofing simply tries to feed
GPS readers incorrect information. Could you
imagine what it would take to spoof a ship?
Experienced seafarers describe their younger
mates as working ‘screen fixated’ all too often,
believing the electronic screens instead of looking out
of the window. All the above-mentioned examples
have a common feature: crewmembers working in
departments and positions on board vessel. Therefore,
MET institutions should be increasingly connected to
explore the challenges of maritime cyber security so to
understand the issues with securing vessels at sea,
along with the shore-based centres. Our students
should be trained to face the severity of the problem.
A human crew is advantageous in many ways in
terms of ship security. On the first place, they may be
able to verify that the ships’ systems function as
intended. On the second place, if these systems are
modified to query the crew during potential cyber-
attacks, it is more difficult for a cybercriminal to go
undetected. It is prudent to take advantage of humans
on board ship. That is why the seafarers’ training on
how to keep these systems secure is much important.
Considering keeping the vessel safe, it is useful to
impart the use and protection of passwords and
access keys, the proper use of the ship’s system, what
a cybercriminal looks like, together with how to
disable, restart, or suspend certain systems in case of
distress or a hazard situation.
Statistics published by Sam Chambers on March
28, 2018 shows shipping as the softest target for
hackers: „A survey of nearly 6,000 active seafarers
carried out by Futurenautics has shown 47% of
respondents said that they sailed on a vessel that had
been the target of a cyber-attack. Moreover, only 15%
of seafarers had received any form of cyber security
training. Just as alarming only 33% of seafarers said
the company, they last worked for had a policy to
regularly change the passwords onboard and just 18%
of those polled said the company they last worked for
had a policy to change default equipment passwords
on board [..] More seafarers than ever before had had
access to connectivity and communications. Seafarers
who can use the internet at sea has increased by
527,000 since the last survey in 2015, and those who
can access it for free has increased by more than
200,000. Also, of note, 53% of seafarers are now
reporting that crew communications have led to a
decline in social interactions on board” [2].
Taking notice of all these, how worried should we
be? Like so many challenges we encounter daily, the
answer to whether we should be concerned about
ships being hacked depends on understanding the fact
that even one item easily accessible in the above-
described manner is enough to cause a disastrous
accident. In addition to thinking of the type of cargo
carried by the ship, we must find ourselves taking all
these kinds of vulnerabilities a lot more seriously
while thinking of cooperation between crews to find
solutions to any problems.
3 MANNED OR UNMANNED SHIPS OF THE
FUTURE?
„So, the Reindeer, crewless, lay across the estuary at the
sandspit”.
Jack London, John Barleycorn, Chapter XI, 1913
Maritime transport is the backbone of world trade and
globalization. Ships are the cost-effective way to carry
cargoes to all places of the globe. Following the first
steps towards driverless cars on land, companies are
starting to imagine ships without crews or with crews,
but remote ones. The latter will oversee the ship by
satellite and control it from consoles on shore. In most
cases the drawing plans for autonomous ships are not
mainly about security. Instead, these are cost-savings
114
schemes. Crews cost money, and because of their’
’troublesome’’ needs like, e.g., accommodation on
board ship, seafarers take up some space that could
instead fit more cargo loading. Removing the crew
from the ship should translate into cheaper operating
costs and could even reduce the numbers of accidents
caused by human factor. Still, they say the ships
would not be entirely alone at sea. There will be
supervising humans tracking their progress by Shore
Control Centres (SCC) and sensors on the vessels
alerting the humans to fix the problems via monitors.
We might consider these humans will be the
‘seafarers’ of the future. If so, and based on COLREG,
regulation 2, on good seamanship (section 4.4.1), it
must be presumed that remote operators will, as a
minimum, be required to complete the usual training
programme for navigating officers and meet the
requirements for this under the STCW Convention [4].
To this, they should add other competences necessary
to steer an autonomous ship, especially education and
qualifications within operational technology and
other relevant technology of importance to the
operation of autonomous ships. Furthermore, they
should also make an amendment to the ISM Code that
establishes the principles for remote operators. Such
regulation could cover organisational and decision
structures, means of communication and emergency
procedures, and should be based on the principles
and requirements made in relation to the” Master’s
Responsibility and Authority” in part A, regulation 5
of the ISM Code [4]. Remote operators will
presumably be specialised as either operators with
navigating tasks or operators with engineering tasks.
In the long term, the operator’s role will presumably
include both elements of the deck officer’s and the
engineer officer’s functions.
This is a concept for the future, but putting in place
the satellites, autonomous ships, remote monitoring,
and drone stations to inspect underway vessels is the
work of years, if not decades.
Crewless ships, experts say, will be a game-
changer for marine underwriters. An example: They
will change the way insurers view risk and handle
claims. Exactly how that plays out, time will tell. At
this point, insurers have more questions than answers
about these crewless vessels. On March 01, 2018,
Caroline McDonalds published her article “The Rising
Tide of Maritime Shipping Risks”, in The Risk
Management Magazine. She cited Capt. Andrew
Kinsey, senior marine risk consultant at Allianz
Global Corporate & Specialty, who considered
“Crewless ships will no doubt be deployed, but the
jury is still out on whether safety concerns and
regulations will clear the way for ocean-going
autonomous vessels in the near future. Ultimately, [he
believes] technology will support, rather than fully
replace, ship crews” [7].
Above all, they have concerns by the number.
Cyberattacks, piracy, casualty management, vessel
maintenance, assignment of liability and safety, all
have a spot on that list. There is no question: Before
crewless vessels hit international waters, they must
navigate a sea of regulatory changes.
After examination of all the above data, the author
of this paper considers that the comprehensive
introduction of autonomous shipping seems to be less
a technological problem though also here quite a few
essentials remain unsolved so far. It is more safety,
security, legal and similar aspects, which bar the
application of unmanned vessels within a predictable
time.
Just to name a few:
1. Development of an internationally agreed
regulatory framework most likely to be done by
the IMO. Knowing somewhat the lyrics of the
legislative process of that Organization, the author
of this paper strongly doubts that practicable
solutions can be achieved keeping up with the
speed of the technological progress involved.
2. Safety issues arising, for instance, from collisions
between, e.g., crewless vessels themselves (or with
what floating object” ever) or, even worse, with
passenger liners. It is surely beyond the
imaginative power of even the most enthusiastic
supporter of an autonomous shipping that one of
these far away days cruise liners will sail the seas
without a qualified navigation/engineering staff on
board.
3. Emergency considerations including environmental
aspects. The decision-making activities to fight a
fire or to limit an oil spill, e.g., are normally much
complex and may hardly be mastered without
action by whatever crew.
4. What will happen when technology fails there is
not any infallible technology or when ships will
be attacked by cybercriminal actions, the hazard
potentials of them are presently not even visible
yet.
5. The autonomously sailing fleets must be operated
and controlled by (national/international?) closely
coordinating Shore-based Control Centres (SCC). It
is hardly imaginable that under the conditions of a
violent competition in maritime trade any kind of
successful coordination will be manageable.
It is interesting to see that the most optimistic
opinions regarding the introduction of autonomous
shipping are preferably expressed by scientists,
theoreticians, academics and those alike. More
realistic views, scepticism and even demurring
comments are first of all given by Master Mariners
who know the industry in depth.
Another example: Germany has started kind of
experiment with unstaffed vessels: Crewless barges of
about 30 to 50 TDW will be operated on the tight-
meshed network of inland waterways probably in
Berlin. This procedure is similar to the operation of
autonomous streetcars, the development of which has
already reached a comparatively high level. The
outcome of this experiment remains to be seen, but
conclusions cannot be drawn 1:1 as these barges will
be under close supervision on each metre they will
cover, and in case of an unforeseen technical incident
intervention can be started immediately.
Communication between those barges will play no
part.
115
4 AND…HERE WE ARE! WHERE IS THE ME/IMO
SMCPS GOING?
“It is, I suppose, only to be expected than an activity such
as seafaring, which is international by nature, should feel
the need for an international language. It seems reasonable
that this language should be English.”
Commodore T. W. Stevens, Royal Mail Lines Limited, 1961
The IMO Working Group on the Standard Marine
Communication Phrases (SMCPs) worked about eight
years to develop “this standardized safety language
enacted in 2001-IMO 2002 [10]. After that, it took
another couple of years to familiarize the ships
officers with the proper use of the IMO SMCPs as
required by the STCW Convention 1978/95 as revised.
To accomplish this section, the Maritime English (ME)
teachers and instructors of the Maritime Education
and Training (MET) institutions played a prominent
part.
Regarding onboard, ship-to-ship and ship-to-shore
communication in the current-days: ME in general
and the IMO SMCPs are the internationally agreed
medium for verbal communication among people
performing their jobs on board vessels, in ports and in
maritime administrations such as VTS Centres. This
will remain as it is for the foreseeable future, will say
if human beings are involved.
If one of these days still beyond the horizon
autonomous fleets will sail the oceans, then verbal
interchange of intelligence will no longer play a role
shipping will dispense with seafarers in our
traditional understanding and consequently with ME
and the IMO SMCPs as well. In this case electronic
data streams between vessels and from shore to
vessels (and vice versa) will perform the routine jobs
of ship operation such as fixing position,
determining/altering course and speed and other
navigational tasks.
It is conceivable that maintenance and repair in
shipyards will remain for a longer period as one of the
rare fields where highly qualified personnel will
depend to a certain extent on a clear verbal medium
for the exchange of intelligence, and this could be
English. The IMO SMCPs, however, are not suited
and not intended to master the demanding
communication challenges in this area.
5 CONCLUSIONS
Worldwide, the number and scope of projects
dedicated to autonomous crewless vessels is
increasing. Additionally, increased autonomy raises
complex questions regarding the maritime labour
force and staffing levels of the future. How might
autonomous ships breakthrough in the future affect
seafarers?
It seems that experts understand our concerns
when they explain: I wouldn't be too worried,
however, because there will also be manned vessels in
the future, autonomy is not for all ships…it will not
drastically reduce the number of seafarer jobs in the
future. [..] In my mind, the breakthrough happens
when the IMO allows operation of unmanned vessels
in international waters’’ [5]. That not happened yet.
As Maritime English teachers, we are thinking of
our students. “We cannot ignore that the concept of
MELF (Maritime English as a Lingua Franca) at SEA
with all its associated demands, has now been subtly
and almost imperceptibly incorporated in the syllabi,
methodologies, and teaching goals of marine higher
education institutions [..] Cross-curricular approaches,
intercultural considerations, the learning of languages
following content-based teaching, materials
development for the new curricula and methods
constitute areas of current research worldwide. The
challenging new ideas aspire to add useful insights
into the relevant issues and promote ideas and
practices” [3].
Advanced navigation and engineering technology
is no stranger to students as Generation Y. Is the
‘breakthrough’ year here? Is technology transferable
to operate and control navigation and engineering
systems in large crewless ships? Regarding this,
another problem may sooner or later have a direct
impact on us, the MET institutions: How can we
convince young men/women to time-consuming
qualify for the challenging profession of a deck officer
or engineer officer when they learn that their job is a
dying breed? That is why the main goal of this paper
is to illustrate that the reasons for creating and
applying the IMO SMCPs are still on the agenda, as
“an efficient and specific device for verbal
communication in order to promote safety at sea, on
board vessels and in ports if taught applying
appropriate methods” [10].
To sum it up: Should a comprehensive
autonomous shipping come true with all its aspects,
then the IMO SMCPs will have no job to do as there
will be no persons who must use this standardised
safety language for a clear intercommunication. For
the time being, however, and for a foreseeable future
counting by decades, MET institutions are well
advised to teach their students and cadets the highest
possible competence in mastering Maritime English
(ME) including the IMO SMCPs as required by the
STCW Convention, 2010. Full speed ahead, ME
teachers!
REFERENCES
1. Baraniuk, C.: How hackers are targeting the shipping
industry, https://www.bbc.com/news/technology-
40685821, (2017).
2. Chambers, S.: Shipping seen as the softest of hacker
targets, https://splash247.com/shipping-seen-softest-
hacker-targets/, last accessed 2021/03/25.
3. Chirea-Ungureanu, C.: Developing cross-curricular
teaching by Marinisation” of ME teachers. Presented at
the Proceedings of International Maritime English
Conference (IMEC 28) , Gothenburg, Sweden (2016).
4. Danish Maritime Authority:
https://www.dma.dk/Documents/Publikationer/Analysi
s%20of%20Regulatory%20Barriers%20to%20the%20Use
%20of%20Autonomous%20Ships.pdf, last accessed
2021/02/01.
5. Jokioinen, E.: Is 2017 the breakthrough year for
unmanned vessels?, https://www.ship-technology.com,
last accessed 2021/03/25.
116
6. Magee, T.: Can you hack a ship? Global maritime
industry ripe for hacking,
https://www.techworld.com/security/can-you-hack-
ship-global-maritime-industry-ripe-for-hacking-
3674517/, last accessed 2020/08/01.
7. McDonald, C.: The Rising Tide of Maritime Shipping
Risks Risk Management,
http://www.rmmagazine.com/2018/03/01/the-rising-tide-
of-%c2%admaritime-shipping-risks/, last accessed
2021/03/25.
8. Robotics Business Review: Autonomous Ships: Inside
the Unmanned Bridge of the Future,
https://www.roboticsbusinessreview.com/rbr/autonomo
us_ships_inside_the_unmanned_bridge_of_the_future/,
last accessed 2021/03/25.
9. Tovey, A.: Crewless “drone ships” will be sailing the
seas by 2020,
https://www.telegraph.co.uk/business/2016/04/09/crewle
ss-drone-ships-will-be-sailing-the-seas-by-2020/, (2016).
10. Trenkner, P.: The IMO -Standard Marine
Communication Phrases - Refreshing memories to
refresh motivation. Presented at the IMLA 17th
International Maritime English Conference , Marseille,
France (2005).