Chemical Science,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
A
novel
CO
2
locking
mechanism
for
fluorescence
sensing
is
proposed.
Specifically,
restricts
the
rotation
of
phenyl
groups
in
CuIDPO,
suppressing
non-radiative
decay
pathways
and
thereby
enhancing
emission.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(41)
Published: Aug. 19, 2024
Abstract
Efficient
gas
sensors
are
critical
for
environmental
monitoring
and
industrial
safety.
While
metal
oxide
semiconductor
(MOS)
cost‐effective,
they
struggle
with
poor
selectivity,
high
operating
temperatures,
limited
stability.
Electrochemical
sensors,
though
selective
energy‐efficient,
face
costs,
stability
issues
due
to
precious
catalysts
like
platinum
on
carbon
(Pt/C).
Herein,
a
novel,
cost‐effective
electrochemical
sensor
using
nitrogen‐doped
indium
In
2
O
3−
x
N
/3
V
(0.01≤
≤0.14),
synthesized
varying
nitriding
times
is
presented.
The
optimized
3
N‐40
min
demonstrates
remarkable
response
current
of
771
nA
10
ppm
nitrogen
dioxide
(NO
)
at
ambient
temperature,
outstanding
long‐term
(over
30
days)
rapid
response/recovery
(5/16
s).
Compared
Pt/C
it
shows
84%
67%
reductions
in
recovery
times,
respectively,
maintains
98%
performance
after
month,
versus
68%
Pt/C.
This
presents
promising
alternative
sensing,
eliminating
the
need
catalysts.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 28, 2025
Abstract
Constructing
highly
oriented
and
ordered
macro‐pores
on
metal‐organic
framework
(MOF)
film
can
surpass
the
inherent
limitations
from
micro‐pores,
promote
multiphase
adsorption,
expedite
electrochemical
reaction,
but
fabrication
remains
extremely
challenging.
Here,
continuous
macro‐micro‐porous
MOF
films
are
achieved
by
combining
polystyrene
microsphere
template
induction
effect
of
ZnO
nanomembrane
prepared
atomic
layer
deposition.
In
addition
to
intrinsic
fabricated
exhibits
macro‐porous
structures.
Compared
with
particles
conventional
film,
mass
diffusion
charge
transportation
in
significantly
improved,
endowing
excellent
activity.
The
sensor
device
made
ZIF‐67
toward
glucose
performance,
e.g.,
high
sensitivity,
low
limit
detection,
fast
response,
due
rapid
molecule
enhanced
exposure
active
sites
via
interconnected
channels.
This
work
paves
way
for
application
high‐performance
biosensor
chip
therefore
may
have
great
potential
post‐Moore
period.
Sensors,
Journal Year:
2025,
Volume and Issue:
25(5), P. 1631 - 1631
Published: March 6, 2025
Detecting
low
nitrogen
dioxide
concentrations
(NO2)
is
crucial
for
environmental
monitoring.
In
this
paper,
we
report
the
synergistic
effect
of
decorating
nitrogen-doped
reduced
graphene
oxide
(N-rGO)
with
nickel
(NiO)
nanoparticles
developing
highly
selective
and
sensitive
chemiresistive
NO2
gas
sensors.
The
N-rGO/NiO
sensor
was
synthesized
straightforwardly,
ensuring
uniform
decoration
NiO
on
N-rGO
surface.
Comprehensive
characterization
using
SEM,
TEM,
XRD,
Raman
spectroscopy
confirmed
successful
integration
revealed
key
structural
morphological
features
contributing
to
its
enhanced
sensing
performance.
As
a
result,
NiO/N-rGO
nanohybrids
demonstrate
significantly
response
five
orders
magnitude
higher
than
that
toward
(<1
ppm)
at
100
°C.
Moreover,
present
device
has
an
outstanding
performance,
high
sensitivity,
limit
detection
ppb).
findings
pave
way
integrating
these
sensors
into
advanced
applications,
including
monitoring
IoT-enabled
air
quality
management
systems.
ACS Nano,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 13, 2025
Two-dimensional
covalent
organic
frameworks
(2D
COFs)
are
emerging
as
promising
materials
for
advanced
electronic
applications
due
to
their
tunable
porosity,
crystalline
order,
and
π-conjugated
structures.
These
properties
enable
efficient
charge
transport
bandgap
modulation,
making
2D
COFs
strong
candidates
devices
such
transistors
memristors.
However,
the
practical
application
of
remains
limited
by
challenges
in
achieving
high-quality
thin
films
with
large-area
uniformity
improved
crystallinity.
This
review
explores
recent
advancements
fabrication
conductive
electronics.
Various
synthesis
strategies,
including
direct
growth,
vapor-assisted
conversion,
interfacial
methods,
discussed
context
enhancing
film
quality
scalability.
The
integration
into
is
classified
based
on
operation
mechanism─planar
vertical
field-effect
(FETs),
electrochemical
(ECTs),
memristors─to
highlight
device
performance.
Looking
forward,
large-scale
production,
material
compatibility,
outlined,
alongside
potential
solutions
through
innovative
techniques
collaborative
research
efforts.
By
addressing
these
challenges,
poised
drive
breakthroughs
adoption
next-generation
semiconducting
technologies.