Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
34(46)
Published: June 10, 2024
Abstract
With
the
development
of
modern
medicine,
importance
continuous
and
reliable
pulse
wave
monitoring
has
increased
significantly
in
physiological
evaluation
disease
diagnosis.
Among
them,
3D
reconstruction
is
indispensable,
needs
rely
on
ultra‐high
resolution
sensor
arrays,
that
is,
high
spatial
resolution,
temporal
force
resolution.
Herein,
a
flexible
high‐density
32
×
tactile
array
based
pressure‐sensitive
tunneling
mechanism
develpoed.
Conformal
graphene
nanowalls
(
GNWs
)
pattern
arrays
are
deposited
micro‐pyramidal
structural
Si
substrate
via
mask‐assisted
plasma
enhanced
chemical
vapor
deposition
PECVD)
method
adopted
as
electrode,
exhibiting
64
dots/cm
2
,
sensitivity
(222.36
kPa
−1
short
response
time
(2
ms).
More
importantly,
HfO
layer
can
effectively
suppress
noise
current,
which
made
it
sense
weak
pressure
signals
with
1/1000
SNR
36.32
dB.
By
leveraging
its
high‐resolution
array,
more
holistic
acquired
shape
successfully
replicated.
This
work
shows
sensors
have
significant
promise
for
applications
remote
intelligent
diagnostics.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(16)
Published: Jan. 23, 2024
Abstract
With
the
commercialization
of
first‐generation
flexible
mobiles
and
displays
in
late
2010s,
humanity
has
stepped
into
age
electronics.
Inevitably,
soft
multifunctional
sensors,
as
essential
components
next‐generation
electronics,
have
attracted
tremendous
research
interest
like
never
before.
This
review
is
dedicated
to
offering
an
overview
latest
emerging
trends
sensors
their
accordant
future
development
(R&D)
directions
for
coming
decade.
First,
key
characteristics
predominant
target
stimuli
are
highlighted.
Second,
important
selection
criteria
introduced.
Next,
materials/structures
identified.
Specifically,
R&D
these
envisaged
based
on
trends,
namely
i)
decoupling
multiple
stimuli,
ii)
data
processing,
iii)
skin
conformability,
iv)
energy
sources.
Finally,
challenges
potential
opportunities
discussed,
new
insights
prospects
fast‐emerging
technology.
Nano-Micro Letters,
Journal Year:
2024,
Volume and Issue:
17(1)
Published: Sept. 27, 2024
Abstract
With
the
continuous
development
of
wearable
electronics,
wireless
sensor
networks
and
other
micro-electronic
devices,
there
is
an
increasingly
urgent
need
for
miniature,
flexible
efficient
nanopower
generation
technology.
Triboelectric
nanogenerator
(TENG)
technology
can
convert
small
mechanical
energy
into
electricity,
which
expected
to
address
this
problem.
As
core
component
TENG,
choice
electrode
materials
significantly
affects
its
performance.
Traditional
metal
often
suffer
from
problems
such
as
durability,
limits
further
application
TENG.
Graphene,
a
novel
material,
shows
excellent
prospects
in
TENG
owing
unique
structure
electrical
properties.
This
review
systematically
summarizes
recent
research
progress
TENGs
based
on
graphene
electrodes.
Various
precision
processing
methods
electrodes
are
introduced,
applications
electrode-based
various
scenarios
well
enhancement
performance
discussed.
In
addition,
future
also
prospectively
discussed,
aiming
promote
advancement
TENGs.
Journal of Materials Chemistry A,
Journal Year:
2024,
Volume and Issue:
12(16), P. 9296 - 9321
Published: Jan. 1, 2024
This
review
covers
recent
advancements
in
flexible
resistive
tactile
pressure
sensors,
including
operational
principles,
performance
metrics,
material
choices,
structural
design,
and
applications,
as
well
future
challenges.
Small Methods,
Journal Year:
2024,
Volume and Issue:
8(11)
Published: April 10, 2024
Abstract
The
rising
global
population
and
improved
living
standards
have
led
to
an
alarming
increase
in
non‐communicable
diseases,
notably
cardiovascular
chronic
respiratory
posing
a
severe
threat
human
health.
Wearable
sensing
devices,
utilizing
micro‐sensing
technology
for
real‐time
monitoring,
emerged
as
promising
tools
disease
prevention.
Among
various
platforms,
graphene‐based
sensors
shown
exceptional
performance
the
field
of
micro‐sensing.
Laser‐induced
graphene
(LIG)
technology,
cost‐effective
facile
method
preparation,
has
gained
particular
attention.
By
converting
polymer
films
directly
into
patterned
materials
at
ambient
temperature
pressure,
LIG
offers
convenient
environmentally
friendly
alternative
traditional
methods,
opening
up
innovative
possibilities
electronic
device
fabrication.
Integrating
LIG‐based
health
monitoring
systems
holds
potential
revolutionize
management.
To
commemorate
tenth
anniversary
discovery
LIG,
this
work
provides
comprehensive
overview
LIG's
evolution
progress
sensors.
Delving
diverse
mechanisms
sensors,
recent
research
advances
domain
are
explored.
Furthermore,
opportunities
challenges
associated
with
briefly
discussed.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(39), P. 26435 - 26476
Published: Sept. 17, 2024
The
burgeoning
demands
for
health
care
and
human-machine
interfaces
call
the
next
generation
of
multifunctional
integrated
sensor
systems
with
facile
fabrication
processes
reliable
performances.
Laser-induced
graphene
(LIG)
highly
tunable
physical
chemical
characteristics
plays
vital
roles
in
developing
versatile
skin-like
flexible
or
stretchable
systems.
This
Progress
Report
presents
an
in-depth
overview
latest
advances
LIG-based
techniques
applications
sensors.
First,
merits
LIG
technique
are
highlighted
especially
as
building
blocks
sensors,
followed
by
description
various
methods
its
variants.
Then,
focus
is
moved
to
diverse
including
electrophysiological
Mechanisms
advantages
these
scenarios
described
detail.
Furthermore,
representative
paradigms
presented
show
capabilities
multipurpose
applications.
signal
cross-talk
issues
discussed
possible
strategies.
technology
functionalities
coupled
other
strategies
will
enable
high-performance
next-generation
skin
electronics.
Nature Communications,
Journal Year:
2024,
Volume and Issue:
15(1)
Published: June 25, 2024
Abstract
High-sensitivity
strain
sensing
elements
with
a
wide
range,
fast
response,
high
stability,
and
small
areas
are
desirable
for
constructing
sensor
arrays
temporospatial
resolution.
However,
current
sensors
rely
on
crack-based
conductive
materials
having
an
inherent
tradeoff
between
their
area
performance.
Here,
we
present
molecular-level
crack
modulation
strategy
in
which
use
layer-by-layer
assembly
to
introduce
strong,
dynamic,
reversible
coordination
bonds
MXene
silver
nanowire-matrixed
film.
We
this
approach
fabricate
stretchable
very
(0.25
mm
2
).
It
also
exhibits
ultrawide
working
range
(0.001–37%),
sensitivity
(gauge
factor
~500
at
0.001%
>150,000
35%),
response
time,
low
hysteresis,
excellent
long-term
stability.
Based
high-performance
element
facile
process,
array
device
density
of
100
per
cm
is
realized.
demonstrate
the
practical
high-density
as
multichannel
pulse
system
monitoring
pulses
terms
spatiotemporal
Advanced Materials Technologies,
Journal Year:
2024,
Volume and Issue:
9(5)
Published: Jan. 10, 2024
Abstract
Accurate
data
acquisition
from
flexible
sensors
placed
on
deformable
3D
freeform
surfaces
is
of
critical
importance
for
many
applications,
such
as
wearable
electronics,
human‐machine
interfaces,
and
soft
robotics.
However,
the
mechanical
coupling
between
sensor
subject
surface
to
bending
stretching
deformations
can
significantly
reduce
accuracy
acquired
data.
This
study
combines
a
polyimide
(PI)
micropore
isolation
layer
(PIL)
serpentine
electrodes
with
piezoresistive
mitigate
issue
coupling.
As
buffer
distribute
external
pressure
strain
concentration,
PIL
avoid
interference
curvature
up
256
m
−1
,
while
maintaining
high
sensitivity
S
>
21.5
kPa
.
The
electrode
design
further
allows
reliably
acquire
in
presence
45%
without
cross‐talk.
versatility
developed
demonstrated
several
interaction
scenarios,
including
gesture
recognition
motion
detection.
strategies
materials
structures
this
also
be
applied
development
other
low
deformation
surface.
ACS Sensors,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 2, 2025
Flexible
pressure
sensors
have
shown
significant
application
prospects
in
fields
such
as
artificial
intelligence
and
precision
manufacturing.
However,
most
flexible
are
often
prepared
using
polymer
materials
precise
micronano
processing
techniques,
which
greatly
limits
the
widespread
of
sensors.
Here,
this
work
chooses
textile
material
construction
for
sensor,
its
latitude
longitude
structure
endows
sensor
with
a
natural
structure.
The
was
designed
multilayer
stacking
strategy
by
combining
two-dimensional
MXene
materials.
experiment
shows
that
sensitivity
is
52.08
kPa
