Frontiers in Electronics,
Journal Year:
2025,
Volume and Issue:
6
Published: April 4, 2025
Flexible
electronic
skin
has
garnered
significant
interest
due
to
its
promising
applications
in
underwater
robotics,
aircraft
monitoring
systems,
and
human
healthcare
systems.
A
critical
requirement
for
flexible
is
exhibit
high
sensitivity,
stretchability,
stability.
Functional
materials,
as
essential
components
of
skin,
significantly
influence
the
overall
performance
device.
Consequently,
a
variety
material
structural
designs
have
been
developed
enhance
functional
materials.
This
perspective
delves
into
recent
advances
development
materials
engineering
strategies
that
endow
with
The
smart
precise
decoding
flow
field
are
highlighted.
Finally,
forward-looking
provided
on
future
decoding,
which
outlines
challenges
opportunities
ongoing
research
innovation
this
field.
Advanced Healthcare Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 2, 2025
Lack
of
timely
prognosis
cardiovascular
condition
(CVC)
is
resulting
in
increased
mortality
across
the
globe.
Currently,
available
techniques
are
confined
to
medical
facilities
and
need
intervention
specialists.
Frequently,
this
impedes
treatment,
driven
by
socioeconomic
factors.
Consequently,
disease
transcends
toward
incurable
complications.
In
such
a
scenario,
point-of-care
diagnostic
tools
can
help
with
at
an
early
stage.
Albeit
there
available,
it
imperative
develop
affordably
uncomplicated
manufacturing
should
have
simple
readout
analysis
modules
for
monitoring
CVC.
Accordingly,
solvent-free
stencil
printable
liquid
elastomer-carbon
nanotube
electronic
skin-based
strain
sensor,
capable
accurately
detecting
pulse
(at
different
positions)
other
parameters
like
augmentation
index
stiffness
artery
related
CVC,
reported.
The
Poincare
plot,
derived
from
recorded
data,
measures
heart
rate
variability,
key
indicator
linked
mortality.
Thanks
staggering
linearity,
gauge
factor
234.26,
fast
response
time
85
ms
(measured
data),
cyclic
stability
(over
500
cycles),
assist
ease
detection
vital
parameters.
Furthermore,
sensor
patch
demonstrates
its
capability
acquire
waves
under
real-time
conditions
using
cuff-based
pressure
applications.
AIP Advances,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Jan. 1, 2025
Triboelectric
technology,
with
its
renewable,
low-cost,
and
eco-friendly
advantages,
offers
new
possibilities
for
intelligent
motion-sensing
equipment
sports
monitoring.
We
propose
a
maple
leaf-based
triboelectric
nanogenerator
(ML-TENG)
green
mechanical
energy
harvesting
detecting
table
tennis
corner
kicks.
The
ML-TENG
operates
in
contact-separation
mode
achieves
peak
power
output
of
63.38
W/m3
at
an
optimal
load
50
MΩ.
experimental
results
show
transfer
charge
(Qsc)
35
nC,
short-circuit
current
(Isc)
9
μA,
open-circuit
voltage
(Voc)
V.
Tested
ping-pong
paddle,
the
generates
consistent
even
under
high-frequency
impacts,
demonstrating
sensitivity
to
both
strong
weak
forces.
This
ready-to-use
design
requires
minimal
preparation,
highlighting
technology’s
potential
improving
monitoring
accuracy
enabling
real-time
athletic
performance
analysis.
Soft Science,
Journal Year:
2025,
Volume and Issue:
5(1)
Published: Feb. 14, 2025
Self-powered
sensing
technology
plays
a
key
role
in
autonomous
and
portable
systems,
with
applications
health
monitoring
robotics.
These
sensors,
which
do
not
rely
on
external
power
sources,
offer
stable,
continuous
data
acquisition
for
real-time
complex
interactions.
For
instance,
triboelectric
nanogenerators
have
enabled
self-powered
wearable
sensors
to
monitor
vital
signs
such
as
heart
beat
rate
respiration
by
converting
body
movement
into
electrical
energy,
eliminating
the
need
batteries.
Despite
their
advantages,
challenges
remain
large-scale
manufacturing,
miniaturization,
multifunctional
integration.
Overcoming
these
may
require
innovative
advances
novel
materials,
intelligent
algorithms,
integration
strategies.
This
perspective
summarizes
recent
existing
technologies
robotics
applications,
provides
an
outlook
future
development.
Advanced Materials Technologies,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 15, 2025
Abstract
Gait
often
reveals
valuable
information
about
personal
movements
in
daily
life,
and
traditional
gait
monitoring
relies
on
inertial
sensors,
which
are
limited
by
high
manufacturing
costs,
inconvenient
operation,
complex
analysis
methods.
This
study
proposes
a
simple
cost‐effective
method
to
manufacture
wearable
capacitive
sensor,
can
efficiently
detect
different
signals.
The
sensor
is
made
polyurethane
sponge
with
deposited
activated
carbon
(C@PU
sponge)
as
the
dielectric
layer,
it
has
sensitivity
pretty
good
stability.
further
integrated
into
an
insole
for
detecting
collecting
signals
of
foot
pressure
during
human
movement.
To
overcome
limitations
methods,
convolutional
neural
network
model
based
residual
networks
designed
nine
activities
recognition
accuracy
98.15%.
Furthermore,
optimized
using
genetic
algorithm,
able
effectively
identify
eight
participants
98.75%.
These
results
indicate
that
smart
insoles
sensors
show
application
prospects
identity
recognition,
expected
be
widely
used
life
future.
Small,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 3, 2025
Abstract
The
integration
of
physical
and
chemical
signal
sensing
is
great
significance
to
bridge
the
gap
between
electronic
skin
(e‐skin)
natural
skin.
However,
existing
method
integrating
units
in
two
dimensions
not
conducive
development
e‐skin
multifunctionality
miniaturization.
Herein,
a
new
three‐dimensional
(3D)
integrated
physicochemical‐sensing
(TDPSES)
developed
by
piezoresistive
unit,
biochemical
electrode,
microfluidic
system
3D
superposition
mode.
For
pressure
sensing,
TDPSES
demonstrates
an
ultra‐high
sensitivity
208.6
kPa
−1
0–15
excellent
stability
8000
cycles.
glucose
sweat,
has
3.925
µA
m
detection
limit
29.1
µ
.
Meanwhile,
can
only
continuously
detect
biological
fluids,
but
also
self‐monitor
its
fluid‐driving
behavior,
demonstrating
intelligent
characteristics.
Furthermore,
applied
monitor
variety
physiological
signals
such
as
pulse,
voice,
multifunctional
capabilities
application
potential
health
care.
In
conclusion,
implementation
provides
idea
for
constructing
miniaturized
e‐skin,
which
helps
narrow
ACS Materials Letters,
Journal Year:
2025,
Volume and Issue:
unknown, P. 1250 - 1259
Published: March 4, 2025
As
an
ion-conductive
material,
multifunctional
ionogels
are
crucial
for
the
development
of
i-skin
materials.
However,
current
designs
face
significant
challenges
in
simultaneously
achieving
mechanical
properties,
along
with
self-healing
capabilities,
multimodal
sensing,
and
high
sensory
precision.
In
this
work,
we
propose
a
strategy
situ
electron
beam
irradiation-induced
copolymerization
highly
soluble
acrylic
acid
(AA)
poor-solubility
4-allyloxy-2-hydroxybenzophenone
(AHBP)
to
prepare
phase-separated
ionogels.
AHBP
not
only
enables
tunable
transparency
by
adjusting
degree
phase
separation
but
also
improves
properties
ionogel
modulating
soft/hard
domains
caused
solvent-rich
polymer-rich
phases.
Additionally,
efficiently
absorbs
UV
light
through
conformational
changes.
Combined
its
excellent
conductivity,
thermal
stability,
outstanding
self-adhesive
ionogel-based
demonstrates
sensing
capabilities
strain,
temperature,
pressure,
showing
great
potential
applications
wearable
strain
sensors
multisignal
arrays.
Sensors,
Journal Year:
2025,
Volume and Issue:
25(5), P. 1615 - 1615
Published: March 6, 2025
E-skin
is
an
integrated
electronic
system
that
can
mimic
the
perceptual
ability
of
human
skin.
Traditional
analysis
methods
struggle
to
handle
complex
e-skin
data,
which
include
time
series
and
multiple
patterns,
especially
when
dealing
with
intricate
signals
real-time
responses.
Recently,
deep
learning
techniques,
such
as
convolutional
neural
network,
recurrent
transformer
methods,
provide
effective
solutions
automatically
extract
data
features
recognize
significantly
improving
data.
Deep
not
only
capable
handling
multimodal
but
also
response
personalized
predictions
in
dynamic
environments.
Nevertheless,
problems
insufficient
annotation
high
demand
for
computational
resources
still
limit
application
e-skin.
Optimizing
algorithms,
efficiency,
exploring
hardware-algorithm
co-designing
will
be
key
future
development.
This
review
aims
present
techniques
applied
inspiration
subsequent
researchers.
We
first
summarize
sources
characteristics
models
applicable
their
applications
analysis.
Additionally,
we
discuss
use
e-skin,
particularly
health
monitoring
human-machine
interactions,
explore
current
challenges
development
directions.
Sports
cardiology
focuses
on
athletes'
cardiovascular
health,
yet
sudden
cardiac
death
remains
a
significant
concern
despite
preventative
measures.
Prolonged
physical
activity
leads
to
notable
adaptations,
known
as
the
athlete's
heart,
which
can
resemble
certain
pathological
conditions,
complicating
accurate
diagnoses
and
potentially
leading
serious
consequences
such
unnecessary
exclusion
from
sports
or
missed
treatment
opportunities.
Wearable
devices,
including
smartwatches
smart
glasses,
have
become
prevalent
for
monitoring
health
metrics,
offering
potential
clinical
applications
cardiologists.
These
gadgets
are
capable
of
spotting
exercise-induced
arrhythmias,
uncovering
hidden
heart
problems,
crucial
information
training
recovery,
minimize
exercise-related
incidents
enhance
care.
However,
concerns
about
data
accuracy
actionable
value
obtained
persist.
A
major
challenge
lies
in
integration
artificial
intelligence
with
wearables,
research
gaps
remain
regarding
their
ability
provide
real-time,
reliable,
clinically
relevant
insights.
Combining
wearable
devices
improve
how
is
managed
used
cardiology.
Artificial
intelligence,
particularly
machine
learning,
classify,
predict,
draw
inferences
collected
by
revolutionizing
patient
usage.
Despite
intelligence's
proven
effectiveness
managing
chronic
limited
its
application
cardiology,
creates
critical
gap
that
needs
be
addressed.
This
review
examines
commercially
available
wearables
exploring
integrated
into
technology
advance
field.