Thin
films
of
0.2BaTiO3
–
0.8BaZr0.5Ti0.5O3
(BT-BZT)
dielectric
material
find
applications
in
various
sensors,
particularly
capacitor
manufacturing,
due
to
their
excellent
electrical
properties.
Thus,
this
study
aimed
synthesize
thin
BT-BZT
with
varying
annealing
temperatures
700°C,
750°C,
and
800°C.
To
achieve
this,
the
sol-gel
method
was
applied
on
a
Fluorine-Doped
Tin
Oxide
(FTO)
substrate,
chosen
for
its
simplicity
cost-effectiveness.
Electrochemical
properties
were
characterized
using
electrochemical
impedance
spectroscopy
(EIS).
The
results
revealed
that
highest
constant
obtained
411.5
at
700°C.
This
temperature
exhibited
lowest
resistance
compared
other
samples,
resulting
capacitance
value
2.9×10-6
F.
Therefore,
it
can
be
concluded
significantly
influenced
values
capacitor.
Materials Research,
Journal Year:
2024,
Volume and Issue:
27
Published: Jan. 1, 2024
Ferroelectric
thin
films
of
0.2BaTiO3
–
0.8BaZr0.5Ti0.5O3
(BT-BZT)
are
dielectric
materials
applied
in
various
sensors,
particularly
capacitor
manufacturing,
due
to
their
excellent
electrical
properties.
This
ferroelectric
material
also
has
a
high
constant
value,
such
that
it
is
suitable
for
use
Random
Access
Memory
(FeRAM)
and
microwaves.
Therefore,
this
study
aimed
synthesize
BT-BZT
with
annealing
temperature
variations
700
°C,
750
800
°C.
To
achieve
this,
the
sol-gel
method
was
Fluorine
Doped
Tin
Oxide
(FTO)
substrate,
selected
technique
its
simplicity
cost-effectiveness.
The
electrochemical
properties
were
characterized
using
impedance
spectroscopy
(EIS).
research
results
show
at
frequency
100
Hz,
highest
obtained
58975.43
resistance
compared
other
samples.
capacitance
value
2.9
µF
oC.
concluded
influenced
values
capacitor.
Thin
films
of
0.2BaTiO3
–
0.8BaZr0.5Ti0.5O3
(BT-BZT)
dielectric
material
find
applications
in
various
sensors,
particularly
capacitor
manufacturing,
due
to
their
excellent
electrical
properties.
Thus,
this
study
aimed
synthesize
thin
BT-BZT
with
varying
annealing
temperatures
700°C,
750°C,
and
800°C.
To
achieve
this,
the
sol-gel
method
was
applied
on
a
Fluorine-Doped
Tin
Oxide
(FTO)
substrate,
chosen
for
its
simplicity
cost-effectiveness.
Electrochemical
properties
were
characterized
using
electrochemical
impedance
spectroscopy
(EIS).
The
results
revealed
that
highest
constant
obtained
411.5
at
700°C.
This
temperature
exhibited
lowest
resistance
compared
other
samples,
resulting
capacitance
value
2.9×10-6
F.
Therefore,
it
can
be
concluded
significantly
influenced
values
capacitor.