Solar RRL,
Journal Year:
2024,
Volume and Issue:
8(21)
Published: March 14, 2024
In
recent
years,
perovskite
solar
cells
(PSCs)
have
emerged
as
a
focal
point
for
numerous
researchers
due
to
their
excellent
photoelectric
performance.
comparison
single‐junction
devices,
double‐junction
exhibited
the
potential
superior
power
conversion
efficiency
(PCE).
Copper
indium
gallium
selenide
(CIGS)
cells,
well‐established
photovoltaic
technology,
can
be
used
viable
bottom
cell
candidate
tandem
(TSCs).
Recently,
PCE
of
most
advanced
4T
perovskite/CIGS
TSCs
reached
29.9%,
while
highest
2T
TSC
is
24.2%,
which
develops
relatively
slowly.
contrast
leading
perovskite/silicon
(Si)
in
terms
(PCE
=
33.9%,
30.35%),
exhibit
distinctive
advantages
such
adjustable
bandgap,
high
absorption
coefficient,
radiation
resistance,
and
prepared
on
flexible
substrates.
Building
upon
these
advantages,
optimization
process
four‐terminal
two‐terminal
elucidated,
key
technologies
challenges
material,
structure,
performance
are
summarized,
prospective
analysis
future
overall
development
this
review
provided.
Furthermore,
it
hoped
give
readers
comprehensive
understanding
TSCs.
Science,
Journal Year:
2023,
Volume and Issue:
382(6672), P. 810 - 815
Published: Nov. 16, 2023
Compared
with
the
n-i-p
structure,
inverted
(p-i-n)
perovskite
solar
cells
(PSCs)
promise
increased
operating
stability,
but
these
photovoltaic
often
exhibit
lower
power
conversion
efficiencies
(PCEs)
because
of
nonradiative
recombination
losses,
particularly
at
perovskite/C60
interface.
We
passivated
surface
defects
and
enabled
reflection
minority
carriers
from
interface
into
bulk
using
two
types
functional
molecules.
used
sulfur-modified
methylthio
molecules
to
passivate
suppress
through
strong
coordination
hydrogen
bonding,
along
diammonium
repel
reduce
contact-induced
achieved
field-effect
passivation.
This
approach
led
a
fivefold
longer
carrier
lifetime
one-third
photoluminescence
quantum
yield
loss
certified
quasi-steady-state
PCE
25.1%
for
PSCs
stable
operation
65°C
>2000
hours
in
ambient
air.
also
fabricated
monolithic
all-perovskite
tandem
28.1%
PCE.
Advanced Energy Materials,
Journal Year:
2021,
Volume and Issue:
12(5)
Published: Dec. 29, 2021
Abstract
Organic–inorganic
lead
halide
perovskite
solar
cells
(PSCs)
have
demonstrated
enormous
potential
as
a
new
generation
of
solar‐based
renewable
energy.
Although
their
power
conversion
efficiency
(PCE)
has
been
boosted
to
spectacular
record
value,
the
long‐term
stability
efficient
PSCs
is
still
dominating
concern
that
hinders
commercialization.
Notably,
interface
engineering
identified
valid
strategy
with
extraordinary
achievements
for
enhancing
both
and
PSCs.
Herein,
latest
research
advances
various
interfaces
are
summarized,
basic
theory
multifaceted
roles
optimizing
device
properties
analyzed.
As
highlight,
authors
provide
insights
on
deposition
interlayers,
application
first‐principle
calculation,
challenges
solutions
high
toward
future
Materials Chemistry Frontiers,
Journal Year:
2023,
Volume and Issue:
7(18), P. 3797 - 3802
Published: Jan. 1, 2023
X-Ray
photoelectron
spectroscopy
is
a
powerful
tool
for
identifying
the
interactions
of
additives
or
surface
treatments
with
components
in
lead
halide
perovskites.
Energy & Environmental Science,
Journal Year:
2021,
Volume and Issue:
14(9), P. 5074 - 5083
Published: Jan. 1, 2021
A
layer
of
amorphous
NbO
x
is
employed
to
envelope
self-developed
SnO
2
NCs
and
the
resultant
PSC
achieves
a
PCE
24.01%
with
negligible
hysteresis
remarkable
stability,
which
among
most
efficient
planar
PSCs.
Advanced Energy Materials,
Journal Year:
2021,
Volume and Issue:
12(6)
Published: Dec. 29, 2021
Abstract
Metal‐halide
perovskite
has
emerged
as
an
effective
photovoltaic
material
for
its
high
power
conversion
efficiency
(PCE),
low
cost
and
straightforward
fabrication
techniques.
Unfortunately,
long‐term
operational
durability,
mainly
affected
by
halide
ion
migration
undercoordinated
Pb
2+
is
still
the
bottleneck
large‐scale
commercialization.
In
this
work,
ionic
liquid
(IL)
designed
to
effectively
cap
grain
surface
improved
stability
reduced
trap
density.
More
specifically,
Br
−
in
IL
passivates
chemically
bonding
it,
resulting
a
thin
layer
of
ionic‐liquid‐perovskite
formed
on
surface,
leading
performance
better
stability.
Specifically,
solar
cell
exhibits
open‐circuit
voltage
1.192
V
PCE
24.33%
under
one‐sun
illumination
with
negligible
hysteresis,
large
area
(10.75
cm
2
)
integrated
module
achieves
20.33%.
Moreover,
bare
device
maintains
over
90%
initial
after
700
h
aging
at
65
°C.
It
also
shows
outstanding
only
about
10%
degradation
being
exposed
ambient
environment
1000
h.
The
superior
demonstrate
that
present
passivating
strategy
promising
approach
high‐performance
applications.
Advanced Functional Materials,
Journal Year:
2022,
Volume and Issue:
32(49)
Published: Sept. 16, 2022
Abstract
Inverted
type
perovskite
solar
cells
(PSCs)
have
recently
emerged
as
a
major
focus
in
academic
and
industrial
photovoltaic
research.
Their
multiple
advantages
over
conventional
PSCs
include
easy
processing,
hysteresis‐free
behavior,
high
stability,
compatibility
for
tandem
applications.
However,
the
maximum
power
conversion
efficiency
(PCE)
of
inverted
still
lags
behind
those
because
suitable
charge‐selective
materials
are
limited.
In
this
study,
excellent
hole‐selective
introduced.
A
series
tricyclic
aromatic
rings
containing
O,
S,
or
Se,
respectively,
core
heteroatom,
along
with
phosphonic
acid
anchor,
form
self‐assembled
monolayer
(SAM)
that
directly
contacts
absorber.
The
influence
heteroatoms
structure
on
molecular
energetics
operating
characteristics
corresponding
is
investigated
using
complementary
experimental
techniques
well
density
functional
theory
(DFT)
calculations.
It
found
all
SAMs
formed
an
energetically
well‐aligned
interface
interaction
energy
between
Se‐containing
SAM
absorber
strongest
among
it
reduces
interfacial
defect
density,
turn
leading
to
extended
charge
carrier
lifetime.
As
result,
incorporating
achieves
PCE
22.73%
retains
≈96%
their
initial
after
point
tracking
test
500
h
without
encapsulation
under
ambient
conditions.
All
then
employed
organic
(OSCs).
Again,
SAM‐based
OSCs
demonstrates
highest
17.9%
three
OSCs.
This
study
great
potential
precisely
engineered
use
high‐performance
cells.
Advanced Materials,
Journal Year:
2022,
Volume and Issue:
34(52)
Published: April 6, 2022
Abstract
Halide
perovskite
semiconductors
with
extraordinary
optoelectronic
properties
have
been
fascinatedly
studied.
nanocrystals,
single
crystals,
and
thin
films
prepared
for
various
fields,
such
as
light
emission,
detection,
harvesting.
High‐performance
devices
rely
on
high
crystal
quality
determined
by
the
nucleation
growth
process.
Here,
fundamental
understanding
of
crystallization
process
driven
supersaturation
solution
is
discussed
methods
halide
crystals
are
summarized.
Supersaturation
determines
proportion
average
Gibbs
free
energy
changes
surface
volume
molecular
units
involved
in
spontaneous
aggregation,
which
could
be
stable
induce
homogeneous
only
when
exceeds
a
required
minimum
critical
concentration
(
C
min
).
Crystal
heterogeneous
thermodynamically
easier
than
due
to
existent
surfaces.
Nanocrystals
mainly
via
nucleation‐dominated
rapidly
increasing
over
,
growth‐dominated
keeping
between
solubility
while
compromising
processes
ensure
compactness
grain
sizes.
Typical
strategies
preparing
these
three
forms
perovskites
also
reviewed.