Agricultural byproduct/reduced graphene oxide sustainable nanocomposite aerogels as solar evaporation active materials
Solar Energy Materials and Solar Cells,
Journal Year:
2025,
Volume and Issue:
288, P. 113648 - 113648
Published: April 15, 2025
Language: Английский
High-Performance Roller Tube-Shaped Copper Foam Solar Evaporators with Copper Foil Integration for Enhanced Thermal Control
Husam Eltigani,
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Yuttanant Boonyongmaneerat
No information about this author
Langmuir,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 30, 2025
The
growing
global
freshwater
shortage
and
climate
crisis
are
increasing
the
dependence
on
water
desalination
technologies.
To
meet
this
pressing
demand,
innovative
solutions
that
utilize
renewable
energy
sources
like
solar
power,
with
an
emphasis
improving
evaporation
processes,
essential.
Although
considerable
research
has
been
conducted
a
variety
of
materials
structural
designs,
development
highly
efficient
steam
generators
for
large-scale
use
remains
challenge.
Here,
we
introduce
novel
design:
two-layer
vertical
cylinder
in
roll
format
integrates
small,
inverted
cone-shaped
pure
copper
(ICPC)
foam
etched
foil
to
enhance
thermal
management.
primary
objective
is
advance
direct
interfacial
by
effectively
capturing
both
reflected
light
while
preventing
salt
accumulation
through
self-cleaning.
This
design
leverages
optical
properties
three
materials─absorption,
reflection,
transmission─while
providing
deeper
insights
into
seawater
behavior
within
foam's
interconnected
pores.
It
also
addresses
common
challenges
encountered
traditional
evaporators,
such
as
buildup,
uncontrolled
flow,
poor
cutting-edge
system
exhibits
exceptional
performance,
remarkable
adaptability
diverse
configurations,
represents
breakthrough
sustainable
chemistry,
featuring
advanced
engineering
achieves
outstanding
rate
17.15
kg·m-2·h-1
under
1
sun
irradiation.
Language: Английский
Synergistic Super‐Hygroscopic Composite Gel for Enhanced Atmospheric Water Harvesting and Desalination Applications
Small,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 12, 2025
Abstract
Atmospheric
water
harvesting
(AWH)
produces
freshwater
by
capturing
moisture
from
air,
offering
a
sustainable
and
decentralized
solution
to
scarcity
without
geographical
limitations.
Sorption‐based
vapor
condensation
has
gained
significant
attention
for
garnering
fresh
drinking
water.
However,
the
development
of
multifunctional
sorption
materials
with
versatile
applications
remains
unexplored.
In
this
work,
super‐hygroscopic
composite
gel
composed
valine,
2‐hydroxyethyl
methacrylate,
N‐isopropyl
acrylamide‐based
thermoresponsive
hydrogel
(Valine‐HEMA‐NIPAM)
NH
2
‐MIL‐53(Al)
metal–organic
framework
hygroscopic
CaCl
salt
is
reported.
The
leverages
synergistic
properties
its
components,
achieving
generation
capacity
4.48
g
−1
at
25
°C
90%
humidity.
molecular
level
integration
MOF's
photothermal
activity
along
thermo‐responsive
PNIPAM
polymer,
which
exhibits
reversible
hydrophilic
hydrophobic
phase
transition,
enables
efficient
photo‐thermal
responsiveness,
resulting
in
complete
release
within
30
min.
porous
architecture
design
facilitate
capture,
situ
liquefaction,
effective
storage
under
varying
weather
conditions.
Furthermore,
material
promising
desalination
performance
an
evaporation
rate
2.98
kg
m
−2
h
.
This
study
not
only
addresses
but
also
highlights
potential
developing
advanced
AWH
broader
environmental
applications.
Language: Английский
Recent Progress on Solar‐Driven Interfacial Evaporation for Resource Recovery and Pollutant Removal
Aqiang Chu,
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Shenxiang Zhang,
No information about this author
Jian Jin
No information about this author
et al.
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 15, 2025
Abstract
Solar‐driven
interfacial
evaporation
(SDIE)
has
emerged
as
a
transformative
technology
for
clean
water
generation
by
localizing
solar‐thermal
energy
conversion
at
the
air‐liquid
interface.
Beyond
production,
recent
advancements
reveal
its
potential
pivotal
platform
addressing
challenges
in
resource
reclamation
and
environmental
sustainability.
Drawing
inspiration
from
plant
transpiration
mechanisms,
particularly
ion‐selective
absorption,
long‐distance
transport,
bioactive
enrichment,
this
review
systematically
examines
bioinspired
SDIE
architectures
that
synergistically
integrate
membrane
separation,
adsorption,
photocatalytic
processes.
The
progress
is
summarized
across
three
tiers:
1)
structural
biomimetics
replicating
natural
plants,
2)
functional
hybridization
coupling
complementary
purification
3)
hierarchical
integration
of
multi‐process
cascades.
highlights
material
innovation
structure
design
to
expand
function.
Furthermore,
implementation
frameworks
engineering,
process
optimization,
system
durability
are
proposed
bridge
lab‐scale
prototypes
with
practical
applications.
future
prospects
also
outlined
multifunctional
technologies
address
water‐energy‐resource
interdependency,
advancing
their
role
sustainable
management.
Language: Английский