Nanomaterials,
Journal Year:
2024,
Volume and Issue:
14(24), P. 2016 - 2016
Published: Dec. 15, 2024
Energy
generation
and
storage
are
critical
challenges
for
developing
economies
due
to
rising
populations
limited
access
clean
energy
resources.
Fossil
fuels,
commonly
used
production,
costly
contribute
environmental
pollution
through
greenhouse
gas
emissions.
Quantum
dot-sensitized
solar
cells
(QDSSCs)
offer
a
promising
alternative
their
stability,
low
cost,
high-power
conversion
efficiency
(PCE)
compared
other
third-generation
cells.
Kesterite
materials,
known
excellent
optoelectronic
properties
chemical
have
gained
attention
potential
as
hole
transport
layer
(HTL)
materials
in
In
this
study,
the
SCAPS-1D
numerical
simulator
was
analyze
cell
with
configuration
FTO/TiO2/MoS2/HTL/Ag.
The
electron
(ETL)
titanium
dioxide
(TiO2),
while
Cu2FeSnS4
(CFTS),
Cu2ZnSnS4
(CZTSe),
Cu2NiSnS4
(CNTS),
Cu2ZnSnSe4
(CZTSSe)
kesterite
were
evaluated
HTLs.
MoS2
quantum
dot
served
absorber,
FTO
anode
silver
back
metal
contact.
CFTS
material
outperformed
others,
yielding
PCE
of
25.86%,
fill
factor
(FF)
38.79%,
short-circuit
current
density
(JSC)
34.52
mA
cm−2,
an
open-circuit
voltage
(VOC)
1.93
V.
This
study
contributes
advancement
high-performance
QDSSCs.
The
evolution
of
photovoltaic
cells
is
intrinsically
linked
to
advancements
in
the
materials
from
which
they
are
fabricated.
This
review
paper
provides
an
in-depth
analysis
latest
developments
silicon-based,
organic,
and
perovskite
solar
cells,
at
forefront
research.
We
scrutinize
unique
characteristics,
advantages,
limitations
each
material
class,
emphasizing
their
contributions
efficiency,
stability,
commercial
viability.
Silicon-based
explored
for
enduring
relevance
recent
innovations
crystalline
structures.
Organic
examined
flexibility
potential
low-cost
production,
while
perovskites
highlighted
remarkable
efficiency
gains
ease
fabrication.
also
addresses
challenges
scalability,
environmental
impact,
offering
a
balanced
perspective
on
current
state
future
these
technologies.
Applied Sciences,
Journal Year:
2024,
Volume and Issue:
14(11), P. 4376 - 4376
Published: May 22, 2024
As
a
case
study
on
sustainable
energy
use
in
educational
institutions,
this
examines
the
design
and
integration
of
solar–hydrogen
storage
system
within
management
framework
Kangwon
National
University’s
Samcheok
Campus.
This
paper
provides
an
extensive
analysis
architecture
integrated
such
system,
which
is
necessary
given
increasing
focus
renewable
sources
requirement
for
effective
management.
starts
with
survey
literature
hydrogen
techniques,
solar
technologies,
current
university
systems.
In
order
to
pinpoint
areas
need
improvement
chances
progress,
it
also
looks
at
earlier
research
study’s
methodology
describes
architecture,
includes
fuel
cell
integration,
electrolysis
production,
harvesting,
storage,
customized
needs
university.
explores
consumption
characteristics
Campus
University
recommendations
scalability
scale
suggested
by
designing
three
systems
microgrids
EMS
Optimization
solar–hydrogen,
hybrid
storage.
To
guarantee
safe
functioning,
control
strategies
safety
considerations
are
covered.
Prototype
creation,
testing,
validation
all
part
implementation
process,
ends
thorough
system’s
into
university’s
grid.
The
effectiveness
its
effect
campus
patterns,
financial
sustainability,
comparisons
conventional
assessed
findings
discussion
section.
Problems
that
arise
during
addressed
along
fixes,
directions
further
research—such
as
issues
technology
developments—are
indicated.
sheds
important
light
viability
efficiency
academic
environments,
particularly
regard
accomplishing
objectives.
Applied Sciences,
Journal Year:
2024,
Volume and Issue:
14(21), P. 9771 - 9771
Published: Oct. 25, 2024
The
integration
of
wind
and
solar
energy
with
green
hydrogen
technologies
represents
an
innovative
approach
toward
achieving
sustainable
solutions.
This
review
examines
state-of-the-art
strategies
for
synthesizing
renewable
sources,
aimed
at
improving
the
efficiency
(H2)
generation,
storage,
utilization.
complementary
characteristics
energy,
where
power
typically
peaks
during
daylight
hours
while
becomes
more
accessible
night
or
overcast
conditions,
facilitate
reliable
stable
production.
Quantitatively,
hybrid
systems
can
realize
a
reduction
in
levelized
cost
(LCOH)
ranging
from
EUR
3.5
to
8.9
per
kilogram,
thereby
maximizing
use
resources
but
also
minimizing
overall
H2
production
infrastructure
costs.
Furthermore,
advancements
such
as
enhanced
electrolysis
technologies,
efficiencies
rising
6%
2008
over
20%
near
future,
illustrate
significant
progress
this
domain.
addresses
operational
challenges,
including
intermittency
scalability,
introduces
system
topologies
that
enhance
both
performance.
However,
it
is
essential
consider
these
challenges
carefully,
because
they
significantly
impact
effectiveness
systems.
By
providing
comprehensive
assessment
(which
are
gaining
traction),
study
highlights
their
potential
address
increasing
global
demands.
aims
support
transition
carbon-neutral
future.
significant,
aligns
environmental
goals
requirements.
Although
remain,
promise
evident.
Journal of Composites Science,
Journal Year:
2025,
Volume and Issue:
9(3), P. 105 - 105
Published: Feb. 25, 2025
Zinc
cobaltite
(ZnCo2O4)
is
a
ternary
metal
oxide
found
in
spinel
with
promising
properties
for
various
applications.
Optimizing
its
catalytic
activity
requires
an
understanding
of
electrochemical
behavior.
The
ZnCo2O4
have
significantly
improved
due
to
recent
developments
nanostructuring,
doping,
surface
modification,
hybridization,
structural
engineering,
and
activation.
These
improvements
inspired
motivated
researchers
by
presenting
the
latest
field.
structure,
coupled
redox
cobalt
ions,
semiconducting
characteristics,
electrocatalytic
potential,
positions
as
versatile
material
several
energy
storage
conversion
systems.
This
review
explores
these
advancements;
notable
ZnCo2O4;
applications
sensors,
batteries,
photovoltaics,
supercapacitors.
Applied Sciences,
Journal Year:
2025,
Volume and Issue:
15(6), P. 3053 - 3053
Published: March 12, 2025
This
study
investigates
the
potential
of
patterned
multiple-layer
anti-reflection
coatings
(MLARCs)
integrated
with
nanocrystalline
quantum
dots
(NQDs)
to
enhance
silicon
solar
cell
(Si-SC)
performance
by
significantly
reducing
reflection
losses.
Through
a
combination
experimental
characterization
and
numerical
modeling,
impact
single-layer
(SLARCs),
continuous
MLARCs,
MLARCs
on
optical
electrical
properties
was
assessed.
The
results
demonstrate
substantial
improvements
in
light
trapping
absorption
through
implementation
MLARCs.
Energies,
Journal Year:
2025,
Volume and Issue:
18(8), P. 1937 - 1937
Published: April 10, 2025
Agrivoltaic
(AV)
systems
have
the
potential
to
meet
growing
demand
for
sustainable
societal
development
due
their
ability
simultaneously
enable
food
and
energy
production
by
using
photovoltaics
(PVs)
on
same
land
used
agricultural
activities.
One
of
major
factors
restricting
widespread
implementation
AV
is
lack
information
regarding
operational
lifetime,
which
influenced
various
degradation
factors.
This
paper
reviews
main
factors,
modes,
physical
mechanisms
responsible
PV
deterioration
performance
inhibitors
in
conventional
installations,
including
how
these
are
evaluated,
modeled,
potentially
modified
when
placing
PVs
settings
typical
systems.
These
modes
been
largely
overlooked
modeling
system
designs
use
optimization.
Therefore,
further
advancements
required
properly
understand
environments
play
a
role
modifying
thermal,
irradiance,
hydrolysis
whether
such
can
lead
onset
new
pathways.
To
enhance
adoption
sector,
insights
ensure
that
maintenance
costs
communicated
well
understood
end
users.
The
field
of
solar
technology
has
experienced
remarkable
advancements,
transforming
from
early
photovoltaic
discoveries
to
a
diverse
array
high-efficiency,
cost-effective
solutions.
This
review
explores
the
evolution
technology,
detailing
its
development
initial
discovery
effect
contemporary
innovations.
current
generation
technologies,
including
silicon
cells,
thin-film
perovskite
bifacial
panels,
concentrated
power,
and
building-integrated
photovoltaics,
is
examined
for
their
efficiencies,
applications,
contributions
renewable
energy
landscape.
Future
prospects
highlight
promising
trends
such
as
next-generation
advanced
storage
solutions,
agrivoltaics,
floating
farms,
artificial
photosynthesis.
Despite
progress,
challenges
related
efficiency,
stability,
scalability,
cost,
grid
integration,
environmental
impact,
policy
support,
public
acceptance
remain.
Addressing
these
through
continued
research,
supportive
policies,
collaborative
efforts
crucial
realizing
full
potential
technology.
underscores
importance
in
achieving
sustainable
future
emphasizes
need
ongoing
innovation
commitment
overcome
existing
barriers.
Electricity,
Journal Year:
2024,
Volume and Issue:
5(3), P. 585 - 605
Published: Aug. 24, 2024
Recent
advancements
in
residential
solar
electricity
have
revolutionized
sustainable
development.
This
paper
introduces
a
methodology
leveraging
machine
learning
to
forecast
panels’
power
output
based
on
weather
and
air
pollution
parameters,
along
with
an
automated
model
for
fault
detection.
Innovations
high-efficiency
panels
advanced
energy
storage
systems
ensure
reliable
supply.
Smart
inverters
grid-tied
enhance
management.
Government
incentives
decreasing
installation
costs
increased
accessibility.
The
proposed
methodology,
utilizing
techniques,
achieved
R-squared
value
of
0.95
Mean
Squared
Error
0.02
forecasting
panel
output,
demonstrating
high
accuracy
predicting
production
under
varying
environmental
conditions.
By
improving
operational
efficiency
anticipating
this
approach
not
only
reduces
carbon
footprints
but
also
promotes
independence,
contributing
the
global
transition
towards
sustainability.
Molecules,
Journal Year:
2024,
Volume and Issue:
29(22), P. 5233 - 5233
Published: Nov. 5, 2024
In
the
present
mini-review
article,
we
have
compiled
previously
reported
literature
on
fabrication
of
MXenes
and
their
hybrid
composite
materials
based
electrochemical
sensors
for
determination
phenolic
compounds
counter
electrodes
platinum
(Pt)-free
dye-sensitized
solar
cells
(DSSCs).
are
two-dimensional
(2D)
with
excellent
optoelectronic
physicochemical
properties.
been
extensively
used
in
construction
cell
applications.
this
paper,
reviewed
progress
materials.
addition,
co1.unter
composites
development
Pt-free
DSSCs.
We
believe
that
review
article
will
be
beneficial
researchers
working
towards
DSSCs
using
as
electrode
Materials,
Journal Year:
2024,
Volume and Issue:
17(15), P. 3741 - 3741
Published: July 28, 2024
This
study
introduces
an
innovative
method
for
identifying
high-efficiency
perovskite
materials
using
asymmetric
convolution
block
(ACB).
Our
approach
involves
preprocessing
extensive
data
on
oxide
and
developing
a
precise
predictive
model.
system
is
designed
to
accurately
predict
key
properties
such
as
band
gap
stability,
thereby
eliminating
the
reliance
traditional
feature
importance
filtering.
It
exhibited
outstanding
performance,
achieving
accuracy
of
96.8%
recall
0.998
in
classification
tasks,
coefficient
determination
(R2)
value
0.993
with
mean
squared
error
(MSE)
0.004
regression
tasks.
Notably,
DyCoO3
YVO3
were
identified
promising
candidates
photovoltaic
applications
due
their
optimal
gaps.
efficient
significantly
advances
development
advanced
solar
cells,
providing
robust
framework
rapid
material
screening.