RSC Advances,
Год журнала:
2024,
Номер
14(8), С. 5351 - 5369
Опубликована: Янв. 1, 2024
Owing
to
the
fact
that
detection
limit
of
already
existing
sensor-devices
is
below
100%
efficiency,
use
3D
nanomaterials
as
detectors
and
sensors
for
various
pollutants
has
attracted
interest
from
researchers
in
this
field.
Therefore,
sensing
potentials
bare
impact
Cu-group
transition
metal
(Cu,
Ag,
Au)-functionalized
silicon
carbide
nanotube
(SiCNT)
nanostructured
surfaces
were
examined
towards
efficient
NO
Abstract
This
work
focuses
on
comparative
investigation
of
three
different
doped
surfaces
a
nano‐cage
C
59
As,
Ga
and
Ge
to
understand
their
sensitivity
ability
adsorbed
uric
acid
(UA).
is
done
using
the
density
functional
theory
(DFT)
computation,
employing
ωB97XD/def2SVP
level
theory.
After
interaction
with
UA,
FMO
results
reveal
that
UA@C
As
more
reactive
Eg=5.1911
eV
stable
Eg=5.3304
eV,
while
relatively
Eg=5.2145
eV.
Geometric
optimization
analysis
reveals
shows
best
least
adsorption
distance
(1.9437
Å)
good
(1.9674
poorest
(3.6370
Å).
The
calculated
thermodynamic
parameters
deduced
compared
complexes,
due
fact
values
ℇ
°
+ℇ
ZPE
,
+G
corr
+H
+E
tot
are
less
negative
in
compound
Ga.
Negative
E
ads
(−0.5968
eV),
(−1.8798
eV)
(−1.1656
were
observed
from
studies
its
sensor
mechanism
implying
an
enhanced
chemical
was
manifested
this
indicates
presence
covalent
interaction.
Similarly,
result
energy
(E
int
)
have
22.3978
greater
than
(21.5832
far
(2.4593
there
by
confirming
be
strongly
interacted.
However,
all
has
shown
promising
biomarker
candidate
for
adsorbing
although
also
demonstrated
UA
candidate.
RSC Advances,
Год журнала:
2024,
Номер
14(8), С. 5351 - 5369
Опубликована: Янв. 1, 2024
Owing
to
the
fact
that
detection
limit
of
already
existing
sensor-devices
is
below
100%
efficiency,
use
3D
nanomaterials
as
detectors
and
sensors
for
various
pollutants
has
attracted
interest
from
researchers
in
this
field.
Therefore,
sensing
potentials
bare
impact
Cu-group
transition
metal
(Cu,
Ag,
Au)-functionalized
silicon
carbide
nanotube
(SiCNT)
nanostructured
surfaces
were
examined
towards
efficient
NO