Journal of Marine Science and Engineering,
Journal Year:
2024,
Volume and Issue:
12(12), P. 2113 - 2113
Published: Nov. 21, 2024
Ship
collision
accidents
have
a
greatly
adverse
impact
on
the
development
of
shipping
industry.
Due
to
uncertainty
relating
these
accidents,
maritime
risk
is
often
difficult
accurately
quantify.
This
study
innovatively
proposes
comprehensive
method
combining
qualitative
and
quantitative
methods
predict
ship
accidents.
First,
in
view
uncertain
factors,
Bayesian
network
analysis
was
used
characterize
correlations
between
accident
assessment
model
established.
Secondly,
information
about
subjective
data
quantification
based
cloud
adopted,
reasoning
determined
multi-source
fusion.
The
proposed
applied
spatiotemporal
China’s
coastal
port
waters.
results
show
that
there
higher
Guangzhou
Port
Ningbo
China,
potential
for
southern
China
greater,
occurrence
most
affected
by
environment
operations
operators.
Combining
integrating
conduct
an
assessment,
this
innovative
has
significance
improving
prevention
response
risks
navigation
ports.
Journal of Marine Science and Engineering,
Journal Year:
2025,
Volume and Issue:
13(1), P. 158 - 158
Published: Jan. 17, 2025
Autonomy
is
being
increasingly
used
in
domains
like
maritime,
aviation,
medical,
and
civil
domains.
Nevertheless,
at
the
current
autonomy
level,
human
takeover
human–autonomy
interaction
process
(HAIP)
still
critical
for
safety.
Whether
humans
take
over
relies
on
situation
awareness
(SA)
about
correctness
of
decisions,
which
distorted
by
anchoring
omission
bias.
Specifically,
(i)
bias
(tendency
to
confirm
prior
opinion)
causes
imperception
key
information
miscomprehending
decisions;
(ii)
(inaction
tendency)
overestimation
predicted
loss
caused
takeover.
This
paper
proposes
a
novel
HAIP
safety
assessment
method
considering
effects
above
biases.
First,
an
SA-based
decision
model
(SAB-TDM)
proposed.
In
SAB-TDM,
SA
perception
comprehension
affected
are
quantified
with
Adaptive
Control
Thought-Rational
(ACT-R)
theory
Anchoring
Adjustment
Model
(AAM);
behavioral
utility
prediction
Prospect
Theory.
Second,
guided
dynamic
Bayesian
network
assess
A
case
study
autonomous
ship
collision
avoidance
verifies
effectiveness
method.
Results
show
that
biases
mutually
contribute
seriously
threaten
Journal of Marine Science and Engineering,
Journal Year:
2025,
Volume and Issue:
13(1), P. 165 - 165
Published: Jan. 18, 2025
Steel
cargo
vessel
sinking
accidents
(SCVSA)
threaten
maritime
safety
and
disrupt
global
steel
supply
chains.
This
study
integrates
interpretive
structural
modeling
(ISM)
fuzzy
Bayesian
networks
(FBN)
to
evaluate
SCVSA
risks
across
the
incident
lifecycle.
ISM
identifies
hierarchical
relationships
among
multifaceted
risk
factors.
FBN
assesses
lifecycle
using
scoring,
modular
nodes,
a
structure,
with
muti-source
data
drawn
from
accident
reports,
expert
opinions,
research
studies.
Experts
estimate
probabilities
based
on
observations
causal
scenarios
involving
vessels
at
Shanghai
Port.
The
ISM–FBN
framework
visualizes
factors
incorporates
uncertainty
in
through
updates,
probability
learning.
approach
provides
robust
adaptable
tool
for
assessing
risks,
advancing
assessment
methodologies.
Key
findings
identify
advanced
age,
severe
weather
sea
conditions,
inadequate
regulatory
oversight
as
primary
root
causes.
Poor
loading
stowage
practices
are
direct
contributors.
Intermediate
deeper
surface
layers
flow
shipping
companies
crew
further
environmental
conditions.
Multi-stage
include
emergency
responses
improper
securing.
To
mitigate
these
actionable
insights
provided,
including
fleet
modernization,
enhanced
compliance,
training,
improved
preparedness.
Journal of Marine Engineering & Technology,
Journal Year:
2025,
Volume and Issue:
unknown, P. 1 - 19
Published: Feb. 13, 2025
This
study
provides
a
systematic
risk
assessment
approach
for
chemical
tanker
loading
operations,
focusing
on
high-risk
scenario
identified
through
operational
data
from
model
vessel.
To
address
the
complexities
of
transportation,
hybrid
methodology
combining
Methodology
Identification
Major
Accident
Hazards
(MIMAH)
and
Fuzzy
Bayesian
Network
(FBN)
analysis
was
developed.
MIMAH's
structured
framework
systematically
identifies
critical
events
using
Bow-Tie
(BT)
diagram,
integrating
Fault
Tree
(FT)
Event
(ET)
providing
thorough
breakdown
potential
accident
pathways.
BT
structure
converted
into
(BN)
to
improve
probability
estimations
by
incorporating
conditional
dependencies
expert-driven
fuzzy
logic,
particularly
where
historical
limited.
The
further
employed
dual-method
sensitivity
analysis,
Fussell-Vesely
(FV)
importance
measures
Improvement
Index
(II),
identify
improvement-prone
basic
(BEs).
Key
findings
highlight
dominance
human
error
in
events,
manifold
connection
failures
incorrect
valve
alongside
mechanical
vulnerabilities
with
significant
improvement
potential.
extends
ARAMIS
principles
maritime
contexts,
reliability-based
fuzzy-based
estimation
methods
detailed
adaptable
that
enhances
safety
resilience
hazardous
transport.
Research Square (Research Square),
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 14, 2025
Abstract
As
maritime
transport
technology
has
shifted
towards
the
greater
use
of
autonomous
ships,
safety
requirements
for
their
movement
are
growing.
A
gap
in
scope
direct
representation
collision
risk
object
control
algorithm
exists.
In
this
study,
intelligent
methods
engineering
objects
were
developed
to
assess
multi-object
situations.
These
included
crisis
management
before
collisions
determine
optimal
and
safe
ship
trajectories.
The
value
was
determined
from
domains
generated
by
neural
network
or
its
three
appropriate
mathematical
models.
basis
these
considerations
dynamic
game
control.
Simulations
algorithms
performed
on
examples
real
navigation
situations
under
different
environmental
conditions
enabled
assessment
effectiveness
most
effective
good
traffic
algorithm,
whereas
noncooperative
cooperative
restricted
objects.
results
study
provide
awareness
that
can
improve
navigation.
Frontiers in Marine Science,
Journal Year:
2025,
Volume and Issue:
12
Published: Feb. 3, 2025
Ships
often
face
various
risks
when
sailing
at
sea,
ranging
from
harsh
natural
environments
to
complex
traffic
conditions.
To
reduce
the
impact
of
these
on
ships
and
crews,
this
paper
proposes
a
navigation
risk
assessment
method
that
integrates
computational
intelligence
(CI)
techniques,
such
as
fuzzy
logic,
with
Bayesian
networks
(BNs)
utility
theory.
Firstly,
system
is
established
using
maritime
data
expert
knowledge,
which
evaluates
spatial
perspective
by
considering
factors
safeguard
accident
conditions
across
different
regions.
Secondly,
logic-based
numerical
transformation
proposed
derive
prior
probabilities
in
BNs.
The
weighted
rule
base
used
capture
dependencies
among
factors.
Finally,
probability
distribution
determined
combining
dependencies,
are
converted
into
index
values
through
Taking
grid-based
South
China
Sea
an
example,
effectiveness
verified.
results
study
provide
theoretical
support
for
based
multi-source
reference
formulate
regulatory
policies.