Langmuir,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 14, 2025
Realizing
reliable
online
detection
of
characteristic
gases
(H2,
C2H4,
CO,
and
CO2)
in
lithium-ion
batteries
is
crucial
to
maintain
the
safe
stable
operation
power
equipment
new
energy
storage
plants.
In
this
study,
transition
metal
Ptn
(n
=
1,
3,
4)
clusters
are
attached
MoSe2
nanosheets
for
first
time
based
on
density
functional
theory
using
perfect
crystalline
facet
modification
method,
adsorption
characteristics
electronic
behaviors
H2,
CO2
investigated
enhanced.
The
results
show
that
reliably
chemically
connected
substrate
without
any
significant
deformation
geometry.
properties
as
well
band
gap,
DOS,
LUMO-HOMO
optimized
modified
Gas/Ptn
4)-MoSe2
system.
large
states
near
Fermi
level
further
activated
by
process,
Pt-MoSe2
Pt4-MoSe2
can
serve
battery
state
gas
sensors
suitably
according
needs
specific
target
gases,
whereas
Pt3-MoSe2
be
used
a
good
adsorbent
effective
scavenging
applied
Small,
Journal Year:
2023,
Volume and Issue:
19(24)
Published: March 10, 2023
Abstract
Printed
flexible
electronics
have
emerged
as
versatile
functional
components
of
wearable
intelligent
devices
that
bridge
the
digital
information
networks
with
biointerfaces.
Recent
endeavors
in
plant
sensors
provide
real‐time
and
situ
insights
to
study
phenotyping
traits
crops,
whereas
monitoring
ethylene,
fundamental
phytohormone,
remains
challenging
due
lack
scalable
manufacturing
ethylene
sensors.
Here
all‐MXene‐printed
radio
frequency
(RF)
resonators
are
presented
for
wireless
detection.
The
facile
formation
additive‐free
MXene
ink
enables
rapid,
printed
electronics,
demonstrating
decent
printing
resolution
(2.5%
variation),
≈30000
S
m
−1
conductivity
mechanical
robustness.
Incorporation
MXene‐reduced
palladium
nanoparticles
(MXene@PdNPs)
facilitates
1.16%
response
at
1
ppm
0.084
limit
sensor
tags
attached
on
organ
surfaces
continuously
profiling
emission
inform
key
transition
biochemistry,
potentially
extending
application
enable
hormone
precision
agriculture
food
industrial
management.
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
34(44)
Published: June 22, 2024
Abstract
Tactile
sensors
have
garnered
considerable
interest
for
their
capacity
to
detect
and
quantify
tactile
information.
The
incorporation
of
microstructural
designs
into
flexible
has
emerged
as
a
potent
strategy
augment
sensitivity
pressure
variations,
thereby
enhancing
linearity,
response
spectrum,
mechanical
robustness.
This
review
underscores
the
imperative
progress
in
microstructured
sensors.
Subsequently,
discourse
transitions
prevalent
materials
employed
fabrication
sensor
electrodes,
encapsulation
layers,
active
sensing
mediums,
elucidating
merits
limitations.
In‐depth
discussions
are
devoted
adorned
with
microstructures,
including
but
not
limited
to,
micropyramids,
microhemispheres,
micropillars,
microporous
configurations,
microcracks,
topological
interconnections,
multilevel
constructs,
random
roughness,
biomimetic
microstructures
inspired
by
flora
fauna,
accompanied
exemplar
studies
from
each
category.
Moreover,
utility
within
realm
intelligent
environments
is
explicated,
highlighting
application
monitoring
physiological
signals,
detection
sliding
motions,
discernment
surface
textures.
culminates
critical
examination
paramount
challenges
predicaments
that
must
be
surmounted
further
development
enhance
functional
performance
sensors,
paving
way
integration
advanced
sensory
systems.
Journal of Materials Chemistry C,
Journal Year:
2022,
Volume and Issue:
10(41), P. 15554 - 15564
Published: Jan. 1, 2022
Electronic
skin
arrays
and
smart
gloves
are
designed
based
on
AgNFs/MWCNTs
flexible
strain
sensors
to
realize
motion
monitoring
human–computer
interactions.
ACS Applied Materials & Interfaces,
Journal Year:
2023,
Volume and Issue:
15(20), P. 24933 - 24947
Published: May 11, 2023
Conductive
hydrogels
have
good
prospects
in
the
fields
of
flexible
electronic
devices
and
artificial
intelligence
due
to
their
biocompatibility,
durability,
functional
diversity.
However,
process
hydrogel
polymerization
is
time-consuming
energy-consuming,
freezing
at
zero
temperature
inevitable,
which
seriously
hinders
its
applications
working
life.
Herein,
zwitterionic
conductive
with
self-adhesive
antifreeze
properties
were
prepared
one
minute
by
introducing
two-dimensional
(2D)
MXene
nanosheets
into
autocatalytically
enhanced
system
composed
tannic
acid-modified
cellulose
nanofibers
zinc
chloride.
The
has
strong
environmental
applicability
(-60
40
°C),
stretchability
(ductility
≈
980%),
durable
adhesion
(even
after
30
days
exposure
air),
electrical
conductivity
(20
°C,
mS
cm-1).
By
virtue
these
advantages,
can
be
developed
strain
sensors
monitor
large
human
movements
subtle
physiological
signals
over
a
wide
range
capture
from
handwriting
voice
recognition.
In
addition,
multiple
assembled
three-dimensional
(3D)
array,
detect
magnitude
spatial
distribution
or
force.
These
results
demonstrate
that
promising
medical
monitoring
intelligence.
Advanced Materials,
Journal Year:
2023,
Volume and Issue:
36(8)
Published: Dec. 1, 2023
Abstract
The
advent
of
Internet
Things
and
artificial
intelligence
era
necessitates
the
advancement
self‐powered
electronics.
However,
prevalent
multifunctional
electronics
still
face
great
challenges
in
rigid
electrodes,
stacked
layers,
external
power
sources
to
restrict
development
flexible
Here,
a
transparent,
self‐healing,
anti‐freezing
(TSA)
ionogel
composed
fluorine‐rich
ionic
liquid
fluorocarbon
elastomer,
which
is
engineered
for
monolayered
triboelectric
nanogenerators
(M‐TENG)
electromagnetic
energy‐based
touch
panels
developed.
Notably,
TSA‐ionogel
exhibits
remarkable
features
including
outstanding
transparency
(90%),
robustness
(253
K),
impressive
stretchability
(600%),
repetitive
self‐healing
capacity.
resultant
M‐TENG
achieves
significant
output
density
(200
mW
m
−2
)
sustains
operational
stability
beyond
1
year.
Leveraging
this
performance,
adeptly
harnessed
biomechanical
energy
harvesting,
control
interface,
electroluminescent
devices,
enabling
wireless
over
electrical
appliances.
Furthermore,
harnessing
Faraday's
induction
law
exploiting
human
body's
intrinsic
antenna
properties,
seamlessly
transforms
into
an
autonomous
epidermal
panel.
This
panel
offers
impeccable
input
capabilities
through
word
inscription
participation
Chinese
game
Go.
Consequently,
TSA‐ionogel's
innovation
holds
potential
reshape
trajectory
next‐generation
profoundly
revolutionize
paradigm
human–machine
interaction.
