Current and further trajectories in designing functional materials for solid oxide electrochemical cells: A review of other reviews
Journal of Energy Chemistry,
Journal Year:
2024,
Volume and Issue:
94, P. 302 - 331
Published: March 8, 2024
Language: Английский
Advancements, strategies, and prospects of solid oxide electrolysis cells (SOECs): Towards enhanced performance and large-scale sustainable hydrogen production
Journal of Energy Chemistry,
Journal Year:
2024,
Volume and Issue:
94, P. 688 - 715
Published: March 24, 2024
Language: Английский
On Green Hydrogen Generation Technologies: A Bibliometric Review
Applied Sciences,
Journal Year:
2024,
Volume and Issue:
14(6), P. 2524 - 2524
Published: March 17, 2024
Green
hydrogen,
produced
by
water
electrolysis
with
renewable
energy,
plays
a
crucial
role
in
the
revolution
towards
energy
sustainability,
and
it
is
considered
key
source
of
clean
efficient
storage.
Its
ability
to
address
intermittency
sources
its
potential
decarbonize
sectors
that
are
difficult
electrify
make
strategic
component
climate
change
mitigation.
By
using
method
based
on
bibliometric
review
scientific
publications,
this
paper
represents
significant
contribution
emerging
field
research
green
hydrogen
provides
detailed
electrolyzer
technologies,
identifying
areas
for
future
technology
development.
The
results
reflect
immaturity
which
advances
different
technical
advancements,
waiting
find
optimal
solution
allows
massive
implementation
as
generation.
According
found
article,
alkaline
(ALK)
proton
exchange
membrane
(PEM)
electrolyzers
seem
be
ones
interest
community
most.
Similarly,
terms
regional
analysis,
Europe
clearly
committed
view
analysis
materials
capacity
forecasts
2030.
Language: Английский
Strategic Model for Yellow Hydrogen Production Using the Metalog Family of Probability Distributions
Energies,
Journal Year:
2024,
Volume and Issue:
17(10), P. 2398 - 2398
Published: May 16, 2024
Storing
energy
in
hydrogen
has
been
recognized
by
scientists
as
one
of
the
most
effective
ways
storing
for
many
reasons.
The
first
these
reasons
is
availability
technology
producing
from
water
using
electrolytic
methods.
Another
aspect
relatively
cheap
renewable
sources.
Moreover,
you
can
count
on
large
amounts
this
energy.
aim
article
to
support
decision-making
processes
related
production
yellow
a
strategic
model
which
exploits
metalog
family
probability
distributions.
This
allows
us
calculate,
with
accuracy
regarding
distribution,
amount
produced
photovoltaic
systems
specific
peak
power.
Using
question,
it
possible
calculate
expected
electricity
daily
system
and
corresponding
produced.
Such
may
be
appropriate
developers
who
build
intended
specifically
green
hydrogen.
Based
our
model,
they
estimate
size
needed
produce
assumed
volume.
also
adopted
producers
Due
precise
calculations,
up
providing
required
part
mix.
Language: Английский
Technology for Green Hydrogen Production: Desk Analysis
Energies,
Journal Year:
2024,
Volume and Issue:
17(17), P. 4514 - 4514
Published: Sept. 9, 2024
The
use
of
green
hydrogen
as
a
high-energy
fuel
the
future
may
be
an
opportunity
to
balance
unstable
energy
system,
which
still
relies
on
renewable
sources.
This
work
is
comprehensive
review
recent
advancements
in
production.
outlines
current
consumption
trends.
It
presents
tasks
and
challenges
economy
towards
hydrogen,
including
production,
purification,
transportation,
storage,
conversion
into
electricity.
main
types
water
electrolyzers:
alkaline
electrolyzers,
proton
exchange
membrane
solid
oxide
anion
electrolyzers.
Despite
higher
production
costs
compared
grey
this
suggests
that
technologies
become
cheaper
more
efficient,
cost
expected
decrease.
highlights
need
for
cost-effective
efficient
electrode
materials
large-scale
applications.
concludes
by
comparing
operating
parameters
considerations
different
electrolyzer
technologies.
sets
targets
2050
improve
efficiency,
durability,
scalability
underscores
importance
ongoing
research
development
address
limitations
technology
make
competitive
with
fossil
fuels.
Language: Английский
New perspectives and challenges
Elsevier eBooks,
Journal Year:
2025,
Volume and Issue:
unknown, P. 339 - 370
Published: Jan. 1, 2025
Language: Английский
Recent Advances in Technologies of Green Hydrogen Production
Published: Aug. 6, 2024
The
use
of
green
hydrogen
as
a
high-energy
fuel
the
future
may
be
an
opportunity
to
balance
unstable
energy
system,
which
still
remains
renewable
sources.
This
work
is
comprehensive
review
recent
advancements
in
production.
outlines
current
consumption
trends.
It
presents
tasks
and
challenges
Hydrogen
Economy
towards
hydrogen,
including
production,
purification,
transmission,
storage,
conversion
into
electricity.
discusses
main
types
water
electrolyzers:
alkaline
electrolyzers,
proton
exchange
membrane
solid
oxide
anion
electrolyzers.
Despite
higher
production
costs
compared
grey
suggests
that
technologies
become
cheaper
more
efficient,
cost
expected
decrease.
highlights
need
for
cost-effective
efficient
electrode
materials
large-scale
applications.
concludes
by
comparing
operating
parameters
considerations
different
electrolyzer
technologies.
sets
targets
2050
improve
efficiency,
durability,
scalability
underscores
importance
ongoing
research
development
address
limitations
technology
make
competitive
with
fossil
fuels.
Language: Английский
Techno-economic, Social and Environmental Analysis of Different Photovoltaic Cell Technologies Under Tropical Weather Conditions
International Journal of Thermofluids,
Journal Year:
2025,
Volume and Issue:
unknown, P. 101164 - 101164
Published: March 1, 2025
Language: Английский
Advancements in Green Hydrogen Production: A Comprehensive Review of System Integration, Power Grid Applications, and Cost Optimization
Hossam Ashraf,
No information about this author
Masahiro Mae,
No information about this author
Ryuji Matsuhashi
No information about this author
et al.
International Journal of Energy Research,
Journal Year:
2025,
Volume and Issue:
2025(1)
Published: Jan. 1, 2025
Hydrogen
is
acquiring
a
promising
recognition
as
new
trend
in
energy
storage
technologies
due
to
its
advantageous
features
including
fast
response,
high
density,
and
unconstrained
capacity.
Thus,
it
offers
an
effective
solution
for
addressing
the
stability
challenges
posed
by
large‐scale
integration
of
renewable
sources
(RESs)
into
power
systems.
Accordingly,
this
article
presents
comprehensive
review
advancements
green
hydrogen
production
(GHP),
with
focus
on
water
electrolyzers
(WELs)
their
Specifically,
examines
WEL
types,
operational
characteristics,
role
DC
converters
system
connectivity
efficient
flow.
Furthermore,
various
control
strategies
optimize
converter
performance
are
thoroughly
analyzed,
along
applications
frequency
voltage
regulation,
congestion
management,
black
start
operations.
Moreover,
recent
efforts
minimize
costs
through
optimal
configurations
resource
management
reviewed.
It’s
worth
indicating
that
alkaline
WELs
have
lowest
capital
cost,
qualifying
them
cost‐effective
option
production.
Therefore,
seeks
aid
researchers
stakeholders
providing
insightful
overview
present
status
emergence
modern
systems,
highlighting
key
technological
advancements,
challenges,
prospects.
Language: Английский
Methods for Enhancing Electrolysis for Hydrogen Production: The Benefits of Applying Magnetic Fields
Michael Binns
No information about this author
Energies,
Journal Year:
2024,
Volume and Issue:
17(19), P. 4897 - 4897
Published: Sept. 30, 2024
The
electrolysis
of
water
is
one
the
most
promising
ways
producing
green
hydrogen.
This
produces
hydrogen
using
electricity
and
does
not
generate
additional
carbon
dioxide
like
more
conventional
reforming
fossil
fuels.
However,
making
competitive
with
methods
for
production
a
challenge
because
cost
inefficiencies
costs
in
systems.
Initially
this
review
looks
at
basic
design
asks
where
energy
lost.
Then,
selection
latest
results
area
magnetic
field-enhanced
are
examined
discussed,
particular
focusing
on
empirical
field-assisted
aim
comparing
findings
identifying
limitations
current
studies
such
that
recommendations
can
be
made
advanced
Language: Английский