In
this
study,
tandem
solar
cell
(SC)
based
on
MAPbI
3
-prevoskiteISi-nanowires
(P|Si-NWs)
structure
is
proposed
and
numerically
investigated.
The
simulation
results
are
calculated
using
the
finite
difference
time
domain
(FDTD)
method.
optical
efficiency
of
SC
increased
to
40%
compared
37.5%
for
counterpart
planar
structure.
This
owing
high
absorption
coefficient
optimum
MAPbI3
band
gap
perovskite
SC.
Further,
supported
wave-guided
modes
excited
Bloch
due
periodic
SiNWs
help
increase
through
suggested
thickness
can
be
controlled
efficiently
balance
photo-generated
current
with
bottom
Si
layer
improved
output
efficiency.
J
xmlns:xlink="http://www.w3.org/1999/xlink">ph
reported
equal
13.1
mA/cm
2
an
enhancement
relative
P|Si
Consequently,
PSiNWs
offers
better
electrical
performance
reduced
Si-material
low
manufacturing
cost.
physica status solidi (RRL) - Rapid Research Letters,
Journal Year:
2024,
Volume and Issue:
19(2)
Published: Sept. 17, 2024
This
study
investigates
the
optical
properties
(light
reflectance,
absorptance,
transmittance,
and
scattering)
of
black
silicon
(b‐Si)
layers
formed
using
reactive
ion
etching
method.
The
corresponding
spectra
are
determined
across
visible,
near‐infrared,
near‐ultraviolet
wavelength
ranges
(250–1400
nm).
It
is
demonstrated
that
b‐Si
reduce
increase
absorptance
light
scattering
due
to
disordered
distribution
nanoneedles.
Increasing
duration
strengthens
this
trend.
shown
etched
for
10
min
can
be
considered
perfect
scatterers
upon
reflection
at
wavelengths
less
than
700
nm.
Based
on
obtained
results,
possible
profits
from
interlayer
perovskite/Si
tandem
solar
cells
analyzed.
substantiated
useful
not
only
within
bottom
Si
subcell
but
also
in
top
perovskite
subcell.
prospects
future
research
directions
challenges
provided.
Advanced Materials Science and Technology,
Journal Year:
2023,
Volume and Issue:
5(1), P. 0 - 0
Published: Jan. 1, 2023
The
optical
properties
of
a
tandem
three-layered
structure
crystalline
silicon-black
silicon-perovskite
have
been
theoretically
studied
for
using
it
in
solar
energy
conversion.
transfer
matrix
method
is
used
obtaining
the
analytical
expressions
reflection,
transmission,
and
absorption
coefficients.
It
shown
that
can
be
successfully
applied
to
more
complicated
case
three
layers
with
complex
refractive
indexes.
Numerical
calculations
performed
at
an
angle
incidence
radiation
60o showed
region
short
wavelengths
reflection
coefficient
takes
on
low
values
(several
percent),
which
gradually
increase
become
> 10% at
above
0.8
μm.
modeled
results
are
good
agreement
experimental
data
carried
out
structures
silicon-TiO2-perovskite.
discrepancy
between
model
slowly
increases
increasing
wavelength.
transmittance
was
extremely
increased
found
cheaper
easier
created
may
potential
The
optical
properties
of
nanostructured
silicon
surfaces
in
the
form
nanocylinder
and
nanocone
arrays
are
simulated
by
finite
difference
time
domain
method.Such
correspond
to
porous
black
layers,
respectively.The
relationship
between
reflectance
geometric
parameters
(in-plane
period,
out-of-plane
depth
or
height,
diameter)
nanocylinders
nanocones
has
been
studied.It
is
shown
that
with
most
effective
frontal
antireflective
for
solar
cells.
Synthesis lectures on materials and optics,
Journal Year:
2024,
Volume and Issue:
unknown, P. 111 - 179
Published: Jan. 1, 2024
As
a
new
functional
material,
b-Si
has
drawn
worldwide
attention
in
recent
years.
It
is
an
ideal
material
for
achieving
sensitive
photodetectors,
photodiodes,
biochemical
sensors,
hydrogen
generators
and
display
devices.
In
this
study,
tandem
solar
cell
(SC)
based
on
MAPbI
3
-prevoskiteISi-nanowires
(P|Si-NWs)
structure
is
proposed
and
numerically
investigated.
The
simulation
results
are
calculated
using
the
finite
difference
time
domain
(FDTD)
method.
optical
efficiency
of
SC
increased
to
40%
compared
37.5%
for
counterpart
planar
structure.
This
owing
high
absorption
coefficient
optimum
MAPbI3
band
gap
perovskite
SC.
Further,
supported
wave-guided
modes
excited
Bloch
due
periodic
SiNWs
help
increase
through
suggested
thickness
can
be
controlled
efficiently
balance
photo-generated
current
with
bottom
Si
layer
improved
output
efficiency.
J
xmlns:xlink="http://www.w3.org/1999/xlink">ph
reported
equal
13.1
mA/cm
2
an
enhancement
relative
P|Si
Consequently,
PSiNWs
offers
better
electrical
performance
reduced
Si-material
low
manufacturing
cost.