Design of Multi-Sourced MIMO Multiband Hybrid Wireless RF-Perovskite Photovoltaic Energy Harvesting Subsystems for IoTs Applications in Smart Cities
Technologies,
Journal Year:
2025,
Volume and Issue:
13(3), P. 92 - 92
Published: March 1, 2025
Energy
harvesting
technology
allows
Internet
of
Things
(IoT)
devices
to
be
powered
continuously
without
needing
battery
charging
or
replacement.
In
addressing
existing
and
emerging
massive
IoT
energy
supply
challenges,
this
paper
presents
the
design
multi-sourced
multiple
input
output
(MIMO)
multiband
hybrid
wireless
RF-perovskite
photovoltaic
subsystems
for
application.
The
research
findings
evaluate
efficiency
power
different
RF
configurations
(1
16
antennas)
within
MIMO
subsystems.
A
Delon
quadruple
rectifier
in
system
demonstrates
a
system-level
conversion
51%.
also
explores
I-V
P-V
characteristics
adopted
perovskite
tandem
cell.
This
results
an
impressive
array
capable
producing
6.4
V
generating
maximum
650
mW.
For
first
time,
combined
mathematical
modelling
architecture
is
presented.
achieved
90%
(for
8
MIMO)
98%
at
0
dBm
power.
novel
study
holds
great
promise
next-generation
5G/6G
smart
passive
electronics.
Additionally,
it
establishes
harvester
as
promising,
compact,
eco-friendly
solution
efficiently
powering
cities.
work
contributes
development
sustainable,
scalable,
solutions
integration
into
city
infrastructures.
Language: Английский
Improved free iodine capture by light-driven carbon-halogen bond cleavage in perovskite solar cells with dynamic self-healing ability
Caixia Li,
No information about this author
Wen‐Wu Liu,
No information about this author
Shiji Da
No information about this author
et al.
Chemical Engineering Journal,
Journal Year:
2025,
Volume and Issue:
unknown, P. 159767 - 159767
Published: Jan. 1, 2025
Language: Английский
Ambient‐Air‐Processed, Solution‐Based Organic Photovoltaics and Photodetectors
Advanced Optical Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 29, 2025
Abstract
Organic
photovoltaics
(OPVs)
and
organic
photodetectors
(OPDs),
which
use
conjugated
polymers
molecules
as
photoactive
materials,
hold
significant
promise
for
energy
harvesting
sensing
applications
due
to
their
customizable
optoelectronic
properties,
potential
mechanical
flexibility,
compatibility
with
low‐cost,
high‐throughput
manufacturing.
However,
OPV
OPD
research
date
has
typically
relied
on
device
fabrication
in
controlled
environments
(e.g.,
glove
boxes
filled
inert
gases)
vacuum‐deposited
(rather
than
solution‐processed)
electrodes,
limiting
scalability
increasing
manufacturing
complexity
cost.
This
review
explores
these
challenges
by
surveying
the
development
of
ambient‐air‐processed,
solution‐based
(APSB)
OPVs
OPDs,
not
only
solution‐processed
electrodes
but
are
also
entirely
fabricated
under
ambient
conditions.
Various
solution
processing
techniques,
performance
APSB
OPDs
comprehensively
examined,
offering
insights
future
advance
technologies
toward
ultra‐low‐cost
optoelectronics
harvesting.
Language: Английский
From lab to fab: solution-processed top electrodes for commercializing perovskite solar cells
Yuqing Yue,
No information about this author
Hongkai Zhang,
No information about this author
Jie Fu
No information about this author
et al.
Journal of Materials Chemistry A,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Solution-processed
top
electrodes
are
crucial
for
PSC
commercialization.
This
TOC
image
illustrates
solution-processed
commercial-scale
perovskite
photovoltaics.
Language: Английский
Cost Effectivities Analysis of Perovskite Solar Cells: Will it Outperform Crystalline Silicon Ones?
Yingming Liu,
No information about this author
Ziyang Zhang,
No information about this author
Tianhao Wu
No information about this author
et al.
Nano-Micro Letters,
Journal Year:
2025,
Volume and Issue:
17(1)
Published: April 15, 2025
Abstract
The
commercialization
of
perovskite
solar
cells
(PSCs)
has
garnered
worldwide
attention
and
many
efforts
were
devoted
on
the
improvement
efficiency
stability.
Here,
we
estimated
cost
effectivities
PSCs
based
current
industrial
condition.
Through
analysis
process,
manufacturing
levelized
electricity
(LCOE)
is
as
0.57
$
W
−1
18–22
US
cents
(kWh)
,
respectively,
demonstrate
materials
shares
70%
total
cost.
Sensitivity
indicates
that
efficiency,
yield
decrease
in
significantly
reduce
modules.
Analysis
module
LCOE
have
potential
to
outperform
silicon
condition
over
25%
25-year
lifetime
future.
To
achieve
this
target,
it
essential
further
refine
fabrication
processes
each
layer
module,
develop
stable
inorganic
transport
materials,
precisely
control
material
formation
processing
at
microscale
nanoscale
enhance
charge
transport.
Language: Английский
Nano‐Space Confinement Crystal Growth Boosted Hole Extraction in Carbon‐Based CsPbI3 Perovskite Solar Cells
Q. Zhang,
No information about this author
Yuhang Wu,
No information about this author
Xiaozhen Wei
No information about this author
et al.
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 15, 2024
Abstract
Carbon‐based
CsPbI
3
perovskite
solar
cells
(C‐PSCs)
have
shown
a
great
promising
due
to
its
excellent
chemical
stability.
However,
the
low
hole
selectivity
and
inefficient
charge
separation
at
perovskite/carbon
interface
suppress
their
photovoltaic
performance.
Introducing
low‐dimensional
(LD)
structure
is
anticipated
address
issue
but
randomly
grown
LD
crystals
would
considerably
increase
surface
roughness,
which
not
only
weakens
contact
for
inhibiting
extraction
also
increases
transporting
length
in
perovskite.
Herein,
COMSOL
Multiphysics
simulation
first
explored
establish
relation
of
with
device
performance,
suggests
that
p
‐type
thin
capping
layer
high
coverage
favorable
To
verify
results,
nano‐space
confinement
(NSC)
strategy
proposed
inhibit
vertical
growth
2D
Cs
2
PbI
Cl
plates
promoting
in‐plane
growth,
during
polymethyl
methacrylate
(PMMA)
pre‐covered
on
nuclear
before
growth.
Consequently,
well‐covered
deposited
n
layer,
significantly
enhances
efficiency
C‐PSCs
18.23%
an
ultra‐high
V
OC
1.161
V.
Language: Английский