The future of solar-driven interfacial steam generation for sustainable water desalination: Drivers, challenges, and opportunities-review
Results in Engineering,
Год журнала:
2024,
Номер
23, С. 102649 - 102649
Опубликована: Авг. 2, 2024
The
global
demand
for
freshwater
increased
keep
interest
in
water
desalination
technology.
In
recent
past,
solar
thermal
emerged
as
a
promising
technique
to
desalination.
This
review
provides
an
extensive
analysis
of
various
techniques,
including
steam
generation
systems,
their
mechanisms,
structures,
and
the
role
different
nanomaterials
enhancing
efficiency.
We
critically
analyzed
studies,
focusing
on
process
performance,
benefits,
limitations,
economic
viability,
environmental
impact.
advantages
desalination,
such
sustainability,
renewability,
fossil
fuel
independence,
decentralized
production,
suitability
remote
locations,
are
discussed.
also
discussed
materials
based
material's
water-transport
capability,
salt
resistance,
photothermal
conversion
efficiency
and.
Additionally,
we
provided
insights
into
design
principles
management
enhance
efficiency,
reduce
costs,
ensure
sustainable
production.
will
provide
guideline
facilitate
development
technologies
by
utilizing
existing
knowledge
identifying
research
gaps,
promoting
integration
renewable
energy
production
resilient,
water-secure
future.
Язык: Английский
Green Hydrogen Revolution: Advancing Electrolysis, Market Integration, and Sustainable Energy Transitions Towards a Net-Zero Future
V. Sakthi Murugan,
G Lakshmikanth,
N. Balaji
и другие.
Results in Engineering,
Год журнала:
2025,
Номер
unknown, С. 104849 - 104849
Опубликована: Апрель 1, 2025
Язык: Английский
Experimental investigation of aerodynamic behavior of wood chips in fluidized bed reactors as a sustainable biomass fuel
Results in Engineering,
Год журнала:
2024,
Номер
23, С. 102533 - 102533
Опубликована: Июль 14, 2024
Sustainable
energy
solutions
are
necessary
in
the
current
manufacturing
advancements,
where
a
need
is
being
pressed
upon
biomaterial-based
processes.
This
study
examines
aerodynamics
of
wood
chip
biomass
fluidized-bed
reactors,
an
essential
aspect
sustainable
fuel
technologies.
Through
experimental
investigations,
methodology
determined
minimum
fluidization
rates
for
particles
four
distinct
sizes
and
compared
these
with
theoretical
prediction-based
calculations.
A
novel
laboratory
setup
featuring
Differential
Pressure
Feedback
Exhaust
gas
recirculation
(DPFE)
sensor
system
was
developed
to
measure
processes
continuously
advance
enhancements
precision
reliability
findings.
Key
results
include
successful
adaptation
Ergun
equation
chips,
herewith
accommodating
observed
deviations
pressure
drops
within
specific
ranges.
adaptation,
along
real-time
data
tracking
air
phase
changes
using
multifunction
measuring
device,
revealed
critical
insights
into
turbulence
patterns
particle
movement.
These
findings
consistent
models
underscore
potential
optimize
use
reactors.
The
study's
also
contribute
significantly
field
renewable
as
they
offer
validated
methodological
approach
practical
modifications
existing
models.
Язык: Английский