The Journal of Physical Chemistry Letters,
Journal Year:
2024,
Volume and Issue:
unknown, P. 10153 - 10161
Published: Sept. 30, 2024
Transparent
photovoltaics
for
building
integration
represent
a
promising
approach
renewable
energy
deployment.
These
devices
require
transparent
electrodes
to
manage
transmittance
and
ensure
proper
cell
operation.
In
this
study,
FAPbBr
Advanced Theory and Simulations,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 22, 2024
Abstract
Semi‐transparent
perovskite
solar
cells
(ST‐PSCs)
offer
a
promising
pathway
for
use
in
building
integrated
photovoltaic
(BIPV)
systems
instead
of
conventional
panels’
roofs.
Furthermore,
their
potential
bifacial
operation,
allowing
light
absorption
from
both
sides,
creates
new
opportunities
integration
as
windows,
and
greatly
improves
energy
harvesting
capacities.
This
combination
bifaciality
flexibility
enhances
efficiency
adaptability,
making
them
well‐suited
into
various
architectural
elements.
Herein,
this
study,
the
performance
40
different
configurations
flexible
semi‐transparent
inverted
(BF‐STIPSCs)
is
explored.
Using
SCAPS‐1D
(version
3.3.11),
3D‐perovskite
(PVK)
absorber
layer
modeled
combined
with
polymer‐based
electron
transport
layers
(ETLs)
such
C
60
BCP,
along
innovative
hole
(HTLs)
including
D‐PBTTT‐14,
Me‐4PACz,
NiOx,
PANI,
Poly‐TPD,
PATAA,
SrCuO
2
,
V
O
5
.
Various
transparent
conductive
oxides
(TCOs)
IWO,
ITO,
FTO,
substrates
silver
nanowires
(AgNWs)
two‐dimensional
transition
carbide
(MXene:
T
CF
)
are
also
examined
effects
on
cells'
bifaciality,
transparency,
stability.
Among
configurations,
PET/Ag
NWs:MXenes
/SrCuO
/(FAPbI
3
0.95
(MAPbBr
0.05
/C
/BCP/FTO
identified
high‐performance
structure,
achieving
power
conversion
(PCE)
≈26%,
enhanced
resilience
to
temperature
variations.
These
results
hold
great
promise
perovskite‐based
semitransparent
real‐world
applications.
Solar RRL,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 4, 2024
The
growing
demand
for
sustainable
energy
solutions
has
made
the
development
of
scalable,
efficient,
and
cost‐effective
perovskite
solar
cells
(PSCs)
increasingly
important.
Wide‐bandgap
perovskites
(WB‐PSCs)
stand
out
due
to
their
efficiency
in
low‐light
conditions
use
tandem
cells.
WB‐PSCs
are
currently
behind
conventional
PSCs
upscaling,
with
limited
success
printing
wide
bandgap
PSCs.
Developing
upscaling
methods
is
essential
fully
realize
potential
renewable
sector.
This
research
addresses
roll‐to‐roll
(R2R)
slot‐die
coating
Cs
0.05
FA
0.95
PbBr
3
‐based
by
focusing
on
improving
film
formation
process
ink
formulation.
By
adding
optimal
concentration
CsBr
performing
situ
characterization,
we
obtained
films
enhanced
morphology
crystallinity
ambient
(50%
RH),
without
inducing
secondary
phase
formation.
In
addition,
defects
eliminated
through
introducing
DMSO:
Butanol
(9:1)
solvent
system.
R2R
coated
wide‐bandgap
reaches
a
power
conversion
(PCE)
up
8.97%
under
1‐sun
18.3%
PCE
indoor
conditions.
corresponding
modules
5
×
cm
2
active
area
achieve
5.8%,
representing
crucial
step
towards
high‐throughput,
production
modules.
The Journal of Physical Chemistry Letters,
Journal Year:
2024,
Volume and Issue:
unknown, P. 10153 - 10161
Published: Sept. 30, 2024
Transparent
photovoltaics
for
building
integration
represent
a
promising
approach
renewable
energy
deployment.
These
devices
require
transparent
electrodes
to
manage
transmittance
and
ensure
proper
cell
operation.
In
this
study,
FAPbBr