Eng—Advances in Engineering,
Journal Year:
2024,
Volume and Issue:
5(3), P. 1850 - 1862
Published: Aug. 14, 2024
There
is
an
enormous
amount
of
water
vapor
in
ambient
air
that
can
be
converted
into
liquid
by
several
methods.
A
method
capable
producing
a
large
compression
system.
However,
this
requires
significant
power
input,
which
may
cause
the
cost
to
prohibitive.
In
paper,
it
proposed
refrigeration
system
used
cool
combined
cycle
plant
has
potential
viable
atmospheric
generation.
This
produces
saturated
mixing
with
water,
and
reduces
temperature
humidity
using
mechanical
chiller.
The
reduction
inlet
enables
generate
more
output,
operate
cooling
Therefore,
harvest
without
requiring
external
input.
concept
proven
simulating
performance
various
conditions
models
mass
energy
balances.
Results in Engineering,
Journal Year:
2024,
Volume and Issue:
22, P. 101979 - 101979
Published: March 19, 2024
-
In
recent
years,
traditional
fossil
fuels
such
as
coal,
oil,
and
natural
gas
have
historically
dominated
various
applications,
but
there
has
been
a
growing
shift
towards
cleaner
alternatives.
Among
these
alternatives,
hydrogen
(H2)
stands
out
highly
promising
substitute
for
all
other
conventional
fuels.
Today,
is
actively
taking
on
significant
role
in
displacing
fuel
sources.
The
utilization
of
turbine
(GT)
power
generation
offers
advantage
terms
lower
greenhouse
emissions.
performance
hydrogen-based
turbines
influenced
by
range
variables,
including
ambient
conditions
(temperature
pressure),
component
efficiency,
operational
parameters,
factors.
Additionally,
incorporating
an
intercooler
into
the
system
yields
several
advantages,
reducing
compression
work
maintaining
efficiency.
Many
scholars
researchers
conducted
comprehensive
investigations
components
mentioned
above
within
context
(GTs).
This
study
provides
extensive
examination
research
hydrogen-powered
with
employed
different
methods
techniques,
specific
emphasis
case
studies
intercooler.
Moreover,
this
not
only
examined
current
state
also
covered
its
influence
offering
effective
recommendations
insightful
guiding
future
field.
Mathematics,
Journal Year:
2025,
Volume and Issue:
13(1), P. 174 - 174
Published: Jan. 6, 2025
This
study
developed
an
optimal
model
for
gas
turbine
power
plants
(GTPPs)
with
intercoolers,
focusing
on
the
challenges
related
to
output,
thermal
efficiency
and
specific
fuel
consumption.
The
combined
response
surface
methodology
(RSM)
central
composite
design
(CCD)
advanced
metaheuristic
algorithms,
including
ANFIS,
ANFIS
PSO
GA,
nonlinear
interactions
of
key
parameters,
pressure
ratio,
ambient
temperature,
inlet
temperature
effectiveness
intercooler.
Optimal
values
(47.8%),
output
(165
MW)
consumption
(0.16
kg/kWh)
were
attained
under
conditions
a
ratio
25,
293
K,
1550
K
95%
intercooler
effectiveness.
RSM,
being
initial
model,
was
able
predict
but
lacked
precision
when
compared
influences
that
modelled
by
(sfc)
having
corresponding
R2
0.979,
0.987
0.972.
demonstrated
potential
extending
algorithms
provide
sustainable
solutions
energy
system
problems
reduced
emissions
through
plant
(GTPP)
optimisation.
Energy Technology,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 2, 2025
Effective
thermal
management
is
a
critical
challenge
in
electric
vehicles
(EVs),
influencing
the
efficiency,
reliability,
and
lifespan
of
key
components
such
as
drive
motors,
inverters,
reducers.
This
comprehensive
review
systematically
evaluates
advanced
cooling
technologies
for
EV
powertrains,
providing
comparative
analysis
traditional
emerging
solutions.
Novel
insights
are
presented
on
integration
innovative
materials,
nanofluids
phase‐change
application
artificial
intelligence
(AI)
dynamic
optimization.
The
study
highlights
enhanced
performance
achieved
through
hybrid
approaches
that
synergize
liquid
air‐cooling
methods.
Additionally,
introduces
transformative
potential
AI‐driven
systems
optimizing
predicting
loads,
detecting
faults
real
time.
novelty
this
work
lies
its
focus
holistic
multiple
components,
bridging
gap
current
literature
by
addressing
interplay
strategies
across
entire
powertrain.
underscores
need
continued
innovation
to
meet
growing
demands
technology
sustainability
goals.
Processes,
Journal Year:
2024,
Volume and Issue:
12(6), P. 1164 - 1164
Published: June 5, 2024
This
study
presents
a
novel
approach
that
will
address
escalating
demands
for
water
and
cooling
in
regions
vulnerable
to
climate
change
through
the
proposal
of
an
optimal
integrated
cooling–freshwater
cogeneration
system
powered
by
renewable
energy
sources.
Comprising
three
subsystems
(integrated
multi-effect
evaporation
distillation,
absorption
heat
pump,
vapor
compression
refrigeration
(MAV);
unit
incorporating
solar
panels,
wind
turbines,
batteries,
hydrogen
facilities
(RHP/BH);
combined
power
(CHP)),
aims
produce
both
freshwater.
By
recovering
from
desalination
chill
air
taken
into
gas
turbine
compressor,
maximizes
efficiency.
Through
recovery
waste
employing
thermo-environ-economic
framework,
objective
function,
termed
modified
total
annual
cost
(MTAC),
is
introduced
optimization.
Using
genetic
algorithm,
parametric
iterative
optimization
minimizes
MTAC.
The
results
reveal
under
optimum
conditions,
MAV,
RHP/BH,
CHP
account
67%,
58%,
100%
annual,
exergy
destruction,
environmental
costs,
respectively.
Notably,
exhibits
lower
sensitivity
fuel
prices
than
sources,
suggesting
need
future
research
incorporate
dynamic
product
greater
consumption
enhanced
operational
robustness.
Case Studies in Thermal Engineering,
Journal Year:
2023,
Volume and Issue:
52, P. 103734 - 103734
Published: Nov. 9, 2023
Due
to
the
well-known
limitations
of
renewable
energy
resources,
nuclear
power
is
considered
as
another
alternative
for
carbon-free
electricity
generation.
A
great
deal
interest
has
been
paid
developing
gas-cooled
reactors
due
their
efficient
and
cost
effective
generation
ability.
Among
these
systems,
GT-MHR
a
promising
one
which
employs
Brayton
closed
cycle
with
an
efficiency
around
47%
waste
heat
300
MWth.
The
present
work
aims
at
utilizing
this
produce
additional
(via
ORC)
inlet
gas
cooling
compressor
via
employing
absorption
chiller.
In
respect
combined
GT-MHR/ORC/ARC
structure
designed
assessed
thermodynamically
economically
compared
standalone
performance.
sensitivity
analysis
implemented
inspect
influences
design
variables,
then
optimizations
are
conducted
based
on
exergy.
Results
revealed
better
performance
system
in
comparison
GT-MHR.
Under
optimal
working
conditions
obtained
case,
yields
12.4%
higher
9.7%
lower
LCOE
compered
plant.
Another
interesting
outcome
obtained,
under
operation,
total
levelized
investment
novel
(9065
$/h)
less
than
(9285
$/h).
This
larger
pressure
ratio
causes
helium
flow
rate,
result
components
sizes
costs
decreased.
