Hydrogen as a Sustainable Fuel: Transforming Maritime Logistics
Energies,
Journal Year:
2025,
Volume and Issue:
18(5), P. 1231 - 1231
Published: March 3, 2025
The
marine
industry,
being
the
backbone
of
world
trade,
is
under
tremendous
pressure
to
reduce
its
environmental
impact,
mainly
driven
by
reliance
on
fossil
fuels
and
significant
greenhouse
gas
emissions.
This
paper
looks
at
hydrogen
as
a
transformative
energy
vector
for
maritime
logistics.
It
delves
into
methods
production,
innovative
propulsion
technologies,
advantages
adopting
hydrogen.
analysis
extends
economic
feasibility
this
transition
undertakes
comparative
evaluation
with
other
alternative
emphasize
distinct
strengths
weaknesses
Furthermore,
based
case
studies
pilot
projects,
study
elaborates
how
can
be
used
in
real-world
contexts,
concluding
that
combination
ammonia
green
hybrid
systems
presents
increased
flexibility,
serving
primary
fuel
while
enhances
efficiency
powers
auxiliary
systems.
approach
represents
promising
solution
reducing
shipping
sector’s
carbon
footprint,
enabling
industry
achieve
greater
sustainability
maintaining
scalability
essential
global
trade.
Overall,
work
bridges
gap
between
theoretical
concepts
actionable
solutions,
therefore
offering
valuable
insights
decarbonization
sector
achieving
goals.
Language: Английский
Hydrogen energy storage in maritime operations: A pathway to decarbonization and sustainability
International Journal of Hydrogen Energy,
Journal Year:
2025,
Volume and Issue:
109, P. 1133 - 1144
Published: Feb. 16, 2025
Language: Английский
Bridging Technical Challenges and Economic Goals: Project Management for Energy Transition in Maritime Retrofitting
Energies,
Journal Year:
2025,
Volume and Issue:
18(4), P. 804 - 804
Published: Feb. 9, 2025
The
maritime
industry,
a
cornerstone
of
global
trade,
faces
mounting
pressure
to
decarbonize
and
align
with
international
greenhouse
gas
(GHG)
reduction
targets
set
by
the
International
Maritime
Organization
(IMO).
This
study
investigates
how
project
management
frameworks
techno-economic
analysis
(TEA)
can
jointly
address
technical,
economic,
strategic
challenges
retrofitting
vessels
for
alternative
fuels.
A
mixed-methods
approach
was
employed,
combining
systematic
literature
synthesis,
case
analysis,
theoretical
modeling.
Key
findings
highlight
pivotal
role
in
mitigating
risks,
optimizing
lifecycle
costs,
aligning
projects
organizational
objectives,
including
sustainability
regulatory
compliance.
also
identifies
best
practices,
such
as
leveraging
interdisciplinary
collaboration
smart
energy
systems,
enhance
outcomes.
By
integrating
TEA
management,
research
contributes
actionable
insights
advance
industry’s
transition
decarbonization
efforts.
Language: Английский
Exploring Waste-to-Hydrogen for decarbonizing maritime transport in small islands
Francesca Rita Famà,
No information about this author
Daniele Groppi,
No information about this author
Roberto Bove
No information about this author
et al.
International Journal of Hydrogen Energy,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 1, 2025
Language: Английский
Comprehensive Study on Hydrogen Production for Sustainable Transportation Planning: Strategic, Techno-Economic, and Environmental Impacts
Hydrogen,
Journal Year:
2025,
Volume and Issue:
6(2), P. 24 - 24
Published: April 10, 2025
Hydrogen
energy
is
essential
in
the
transition
to
sustainable
transportation
planning,
providing
a
clean
and
efficient
alternative
traditional
fossil
fuels.
As
versatile
carrier,
hydrogen
facilitates
decarbonization
of
diverse
modes,
including
passenger
vehicles,
heavy-duty
trucks,
trains,
maritime
vessels.
To
justify
clarify
role
this
study
conducts
comprehensive
techno-economic
environmental
assessment
production
USA,
Europe,
China.
Utilizing
Shlaer–Mellor
method
for
policy
modeling,
analysis
highlights
regional
differences
offers
actionable
insights
inform
strategic
decisions
frameworks
advancing
adoption.
potential
was
assessed
from
solar
biomass
resources,
with
results
showing
that
solar-based
significantly
more
efficient,
producing
704
tons/yr/km2,
compared
5.7
tons/yr/km2
biomass.
A
Monte
Carlo
simulation
conducted
project
emissions
market
share
gasoline
vehicles
2024
2050.
The
indicate
could
achieve
near-zero
capture
approximately
30%
by
2050,
while
will
decline
60%
higher
emissions.
Furthermore,
using
USA
yields
per
capita
output
330,513
kg/yr,
6079
kg/yr
concludes
hydrogen,
particularly
renewable
sources,
holds
significant
reducing
greenhouse
gas
emissions,
China
focused
on
addressing
dependence,
air
pollution,
technological
development
sector.
Language: Английский