Molecules,
Journal Year:
2023,
Volume and Issue:
28(4), P. 1627 - 1627
Published: Feb. 8, 2023
Flexible
sensors
are
the
essential
foundations
of
pressure
sensing,
microcomputer
sensing
systems,
and
wearable
devices.
The
flexible
tactile
sensor
can
sense
stimuli
by
converting
external
forces
into
electrical
signals.
signals
transmitted
to
a
computer
processing
system
for
analysis,
realizing
real-time
health
monitoring
human
motion
detection.
According
working
mechanism,
mainly
divided
four
types—piezoresistive,
capacitive,
piezoelectric,
triboelectric
sensors.
Conventional
silicon-based
often
inadequate
electronics
due
their
limited
mechanical
flexibility.
In
comparison,
polymeric
nanocomposites
stretchable,
which
makes
them
excellent
candidates
Among
promising
polymers,
conjugated
polymers
(CPs),
unique
chemical
structures
electronic
properties
that
contribute
high
conductivity,
show
great
potential
this
paper,
we
first
introduce
parameters
Then,
describe
operating
principles
resistive,
sensors,
review
based
on
polymer
were
reported
in
recent
years.
After
that,
performance
characteristics
regarding
applications
healthcare,
monitoring,
skin,
devices,
artificial
intelligence.
addition,
summarize
compare
performances
nanocomposite-based
Finally,
challenges
future
directions
Nature Communications,
Journal Year:
2024,
Volume and Issue:
15(1)
Published: April 25, 2024
Abstract
Soft
actuators
produce
the
mechanical
force
needed
for
functional
movements
of
soft
robots,
but
they
suffer
from
critical
drawbacks
since
previously
reported
often
rely
on
electrical
wires
or
pneumatic
tubes
power
supply,
which
would
limit
potential
usage
robots
in
various
practical
applications.
In
this
article,
we
review
new
types
untethered
that
represent
breakthroughs
and
discuss
future
perspective
actuators.
We
materials
innovative
strategies
gave
rise
to
deliver
our
challenges
opportunities
future-generation
International Journal of Molecular Sciences,
Journal Year:
2024,
Volume and Issue:
25(3), P. 1564 - 1564
Published: Jan. 26, 2024
Conducting
polymers
(CPs)
are
an
innovative
class
of
materials
recognized
for
their
high
flexibility
and
biocompatibility,
making
them
ideal
choice
health
monitoring
applications
that
require
flexibility.
They
active
in
design.
Advances
fabrication
technology
allow
the
incorporation
CPs
at
various
levels,
by
combining
diverse
monomers
with
metal
particles,
2D
materials,
carbon
nanomaterials,
copolymers
through
process
polymerization
mixing.
This
method
produces
unique
physicochemical
properties
is
highly
customizable.
In
particular,
development
expanded
surface
area
conductivity
has
significantly
improved
performance
sensors,
providing
sensitivity
expanding
range
available
options.
However,
due
to
morphological
diversity
new
thus
variety
characteristics
can
be
synthesized
other
types
functionalities,
choosing
right
combination
a
sensor
application
difficult
but
becomes
important.
review
focuses
on
classifying
role
CP
highlights
recent
advances
design,
especially
field
healthcare
monitoring.
It
also
synthesizes
sensing
mechanisms
evaluates
electrochemical
surfaces
Furthermore,
revolutionized
will
discussed
detail.
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
34(27)
Published: March 3, 2024
Abstract
Traditional
electronic
devices
inevitably
undergo
degradation
over
time
due
to
deformation,
fatigue,
or
mechanical
damage,
ultimately
resulting
in
device
failure.
To
overcome
this
issue,
researchers
have
pioneered
the
field
of
elastic
electronics,
incorporating
higher
tensile
properties
strain
resistance
into
devices.
Elastic
materials,
especially
self‐healing
elastomers
(SHEs)
are
regarded
as
a
crucial
component
offering
potential
for
restoring
functionality
and
prolonging
lifespan
SHEs
possess
remarkable
ability
tolerate
significant
deformation
utilize
intrinsic
dynamic
chemical
bonds
autonomously
repair
themselves
from
varying
degrees
damage.
The
acquisition
is
key
development
electronics
has
attracted
global
attention.
This
review
offers
comprehensive
overview
current
advancements
electronics.
First,
various
mechanisms
present
elastomeric
material
systems
summarized.
Second,
design
strategies
constructing
based
on
reviewed
detail,
with
particular
emphasis
covalent
non‐covalent
bonds.
Subsequently,
optoelectronic
applications
Finally,
challenges
prospects
that
lie
ahead
order
foster
further
rapidly
growing
outlined.
Soft Science,
Journal Year:
2025,
Volume and Issue:
5(1)
Published: Jan. 16, 2025
Highly
sensitive
strain
sensors
are
crucial
for
monitoring
subtle
plant
growth
changes
and
show
diverse
applications
in
sensing.
However,
the
prevailing
integrated
fabrication
methods
such
tend
to
be
costly
complex,
impeding
their
fundamental
design
practical
usage.
Herein,
we
develop
a
simple
effective
multimaterial
all-3D
printing
technique
manufacture
with
multilayered
structure.
Such
an
all-3D-printed
sensor
exhibits
excellent
sensing
performance
enabling
precise
detection
of
minor
strains
growth,
including
high
stretchability
(>
300%),
sensitivity
(~12.78)
good
linearity
(0.98),
long-term
stability
over
3,000
loading/unloading
cycles.
We
further
validate
potential
our
3D-printed
accurate
continuous
bamboo
both
horizontal
vertical
directions
14
days.
Our
offers
promising
avenue
systems
toward
monitoring.
Nano-Micro Letters,
Journal Year:
2022,
Volume and Issue:
14(1)
Published: Sept. 12, 2022
Organic
electrochemical
transistors
(OECTs)
have
emerged
as
versatile
platforms
for
broad
applications
spanning
from
flexible
and
wearable
integrated
circuits
to
biomedical
monitoring
neuromorphic
computing.
A
variety
of
materials
tailored
micro/nanostructures
recently
been
developed
realized
stretchable
OECTs,
however,
a
solid-state
OECT
with
high
elasticity
has
not
demonstrated
date.
Herein,
we
present
general
platform
the
facile
generation
highly
elastic
all-polymer
OECTs
transconductance
(up
12.7
mS),
long-term
mechanical
environmental
durability,
sustainability.
Rapid
prototyping
these
devices
was
achieved
simply
by
transfer
printing
lithium
bis(trifluoromethane)sulfonimide
doped
poly(3,4-ethylenedioxythiophene):
poly(styrene
sulfonate)
(PEDOT:PSS/LiTFSI)
microstructures
onto
resilient
gelatin-based
gel
electrolyte,
in
which
both
depletion-mode
enhancement-mode
were
produced
using
various
active
channels.
Remarkably,
elaborate
3D
architectures
PEDOT:PSS
engineered,
an
imprinted
3D-microstructured
channel/electrolyte
interface
combined
wrinkled
electrodes
provided
performance
that
retained
(>
70%)
through
biaxial
stretching
100%
strain
after
1000
repeated
cycles
80%
strain.
Furthermore,
anti-drying
degradable
gelatin
self-crosslinked
PEDOT:PSS/LiTFSI
jointly
enabled
stability
during
>
4
months
storage
on-demand
disposal
recycling.
This
work
thus
represents
straightforward
approach
towards
high-performance
organic
electronics
wearable/implantable/neuromorphic/sustainable
applications.
Chemical Society Reviews,
Journal Year:
2022,
Volume and Issue:
52(2), P. 795 - 835
Published: Dec. 23, 2022
Stretchable
electronics
have
received
intense
attention
due
to
their
broad
application
prospects
in
many
areas,
and
can
withstand
large
deformations
form
close
contact
with
curved
surfaces.
conductors
are
vital
components
of
stretchable
electronic
devices
used
wearables,
soft
robots,
human-machine
interactions.
Recent
advances
motivated
basic
scientific
technological
research
efforts.
Here,
we
outline
analyse
the
development
transistors
circuits,
examine
materials,
device
engineering,
preparation
technologies.
We
divide
existing
approaches
constructing
into
following
two
types:
geometric
engineering
intrinsic
stretchability
engineering.
Finally,
consider
challenges
outlook
this
field
for
delivering
electronics.
Journal of Materials Chemistry A,
Journal Year:
2023,
Volume and Issue:
11(26), P. 14096 - 14107
Published: Jan. 1, 2023
A
highly
stretchable,
ultra-sensitive,
self-adhesive,
and
antibacterial
wearable
sensor
has
been
successfully
fabricated
by
constructing
core–shell
structured
silk-fibroin@AgNP
nanoparticles
MXene
nanosheets
with
promoting
wound
healing.
Soft Science,
Journal Year:
2023,
Volume and Issue:
3(3)
Published: Aug. 2, 2023
Soft
conductive
nanocomposites
have
introduced
significant
breakthroughs
in
bio-integrated
electronics
by
mitigating
the
mechanical
mismatch
between
body
and
device.
Compared
with
conventional
wearable
sensors
based
on
rigid
electronic
materials,
soft
are
advantageous
to
long-term
high-quality
biosignal
recordings.
Materials
used
for
synthesis
of
nanocomposites,
especially
nanofillers,
critical
determining
quality
recorded
biosignals
performance
nanocomposites.
In
this
review,
we
focus
recent
advances
mainly
their
electrical
properties
according
types
present
applications
recording
devices.
We
classified
nanofillers
into
four
categories:
carbon-based
nanomaterials,
conducting
polymers,
metal-based
liquid
metals.
then
introduce
as
that
record
various
biosignals,
including
electrophysiological,
strain,
pressure,
biochemical
information.
conclusion,
a
brief
outlook
remaining
challenges
future
nanomaterial-based
bioelectronics
is
provided.