RSC Advances,
Год журнала:
2025,
Номер
15(10), С. 7844 - 7854
Опубликована: Янв. 1, 2025
Wearable
sensors
have
emerged
as
a
transformative
technology,
enabling
real-time
monitoring
and
advanced
functionality
in
various
fields,
including
healthcare,
human–machine
interaction,
environmental
sensing.
Advanced Functional Materials,
Год журнала:
2023,
Номер
33(44)
Опубликована: Июль 7, 2023
Abstract
Electronic
skins
(E‐skins)
capable
of
biomechanical/bioelectrical
signal
acquisition
are
intensively
pursued
for
human‐centered
healthcare
daily
life.
For
practical
use,
it
is
highly
desired,
yet
challenging,
to
mass‐produce
E‐skins
that
soft
and
breathable
wearing
comfort,
skin‐adhesive
robust
acquisition,
multi‐signal
sensing
enhanced
data.
Herein,
a
scalable
fabrication
strategy
bioinspired
E‐skin
(SPRABE‐skin)
with
multi‐layered
architecture
reported
integrates
skin‐like
softness,
self‐protection,
self‐adhesion,
breathability,
bimodal
in
single
patch.
The
fibrous
thermoplastic
polyurethane
(TPU)
scaffold
endows
the
SPRABE‐skin
tissue‐like
softness
(Young's
modulus
3.36
MPa)
stretchability,
good
permeability
water
vapor,
self‐protection
against
adverse
loading
events.
A
strain
layer
composed
MXene‐carbon
nanotubes@TPU
(MXene‐CNT@TPU)
composition
exhibits
ultra‐high
sensitivity
wide
range
(gauge
factor
at
485%
reaches
63
494).
An
electrode
made
MXene‐waterborne
(MXene‐WPU)
provides
adhesive
electrode‐skin
interface,
which
enables
biopotentials,
such
as
electrocardiograph
(ECG),
electromyograph
(EMG),
electroencephalo‐graph
(EEG),
improved
fidelity
even
under
various
dynamic
interferences.
Finally,
based
system
demonstrated
realizes
wireless,
long‐duration,
monitoring
ECG
running
activities.
Advanced Functional Materials,
Год журнала:
2023,
Номер
33(36)
Опубликована: Май 14, 2023
Abstract
Flexible
strain
sensors
with
high
sensitivity
and
mechanical
robustness
are
highly
desirable
for
their
accurate
long‐term
reliable
service
in
wearable
human‐machine
interfaces.
However,
the
current
application
of
flexible
has
to
face
a
trade‐off
between
robustness.
The
most
representative
examples
micro/nano
crack‐based
serpentine
meander‐based
sensors.
former
one
typically
shows
but
limited
robustness,
while
latter
is
on
contrary.
Herein,
ultra‐robust
sensitive
developed
by
crack‐like
pathway
customization
ingenious
modulation
low/high‐resistance
regions
meander
structure.
show
cyclic
stability
(10
000
cycles),
strong
tolerance
harsh
environments,
gauge
factor
(>1000)
comparable
that
sensor,
fast
response
time
(<58
ms).
Finally,
integrated
into
sign
language
translation
system,
which
wireless,
low‐cost,
lightweight.
Recognition
rates
over
98%
demonstrated
21
languages
assistance
machine
learning.
This
system
facilitates
achieving
barrier‐free
communication
signers
nonsigners
offers
broad
prospects
gesture
interaction.
Nano-Micro Letters,
Год журнала:
2024,
Номер
16(1)
Опубликована: Июнь 6, 2024
Abstract
With
the
development
of
science
and
technology,
scale
industrial
production
continues
to
grow,
types
quantities
gas
raw
materials
used
in
produced
during
process
are
also
constantly
increasing.
These
gases
include
flammable
explosive
gases,
even
contain
toxic
gases.
Therefore,
it
is
very
important
necessary
for
sensors
detect
monitor
these
quickly
accurately.
In
recent
years,
a
new
two-dimensional
material
called
MXene
has
attracted
widespread
attention
various
applications.
Their
abundant
surface
functional
groups
sites,
excellent
current
conductivity,
tunable
chemistry,
outstanding
stability
make
them
promising
sensor
Since
birth
materials,
researchers
have
utilized
efficient
convenient
solution
etching
preparation,
high
flexibility,
easily
functionalize
with
other
prepare
composites
sensing.
This
opened
chapter
high-performance
sensing
provided
approach
advanced
research.
However,
previous
reviews
on
MXene-based
composite
only
focused
performance
sensing,
without
systematically
explaining
mechanisms
generated
by
different
as
well
summarizing
predicting
advantages
disadvantages
materials.
article
latest
progress
application
Firstly,
brief
summary
was
given
commonly
methods
preparing
device
structures,
followed
an
introduction
key
attributes
related
performance.
focuses
such
MXene/graphene,
MXene/Metal
oxide,
MXene/Transition
metal
sulfides
(TMDs),
MXene/Metal–organic
framework
(MOF),
MXene/Polymer.
It
summarizes
discusses
possible
Finally,
future
directions
inroads
MXenes-based
presented
discussed.
Chemical Reviews,
Год журнала:
2024,
Номер
124(17), С. 9899 - 9948
Опубликована: Авг. 28, 2024
Electronic
skins
(e-skins)
have
seen
intense
research
and
rapid
development
in
the
past
two
decades.
To
mimic
capabilities
of
human
skin,
a
multitude
flexible/stretchable
sensors
that
detect
physiological
environmental
signals
been
designed
integrated
into
functional
systems.
Recently,
researchers
increasingly
deployed
machine
learning
other
artificial
intelligence
(AI)
technologies
to
neural
system
for
processing
analysis
sensory
data
collected
by
e-skins.
Integrating
AI
has
potential
enable
advanced
applications
robotics,
healthcare,
human–machine
interfaces
but
also
presents
challenges
such
as
diversity
model
robustness.
In
this
review,
we
first
summarize
functions
features
e-skins,
followed
feature
extraction
different
models.
Next,
discuss
utilization
design
e-skin
address
key
topic
implementation
e-skins
accomplish
range
tasks.
Subsequently,
explore
hardware-layer
in-skin
before
concluding
with
an
opportunities
various
aspects
AI-enabled
Flexible
pressure
sensors
play
a
significant
role
in
wearable
devices
and
electronic
skin.
Iontronic
with
high
sensitivity,
wide
measurement
range,
resolution
can
meet
requirements.
Based
on
the
deformation
characteristics
of
alveoli
to
improve
compressibility,
ability
arch
disperse
vertical
into
horizontal
thrust
increase
contact
area,
graded
hollow
ball
(GHBA)
microstructure
is
proposed,
greatly
improving
sensitivity.
The
fabrication
GHBA
ingeniously
employs
double-sided
structure.
One
side
uses
mold
casting
create
convex
structures,
while
other
utilizes
evaporation
moisture
during
curing
process
form
concave
structures.
At
same
time,
novel
side-by-side
package
structure
ensuring
flexible
substrate
maximally
transferred
microstructure.
Within
range
0.2
Pa-300
kPa,
iontronic
sensor
achieves
maximum
sensitivity
10
420.8
kPa
ACS Nano,
Год журнала:
2024,
Номер
18(36), С. 24705 - 24740
Опубликована: Авг. 26, 2024
The
gradual
rise
of
personal
healthcare
awareness
is
accelerating
the
deployment
wearable
sensors,
whose
ability
acquiring
physiological
vital
signs
depends
on
sensing
materials.
MXenes
have
distinct
chemical
and
physical
superiorities
over
other
2D
nanomaterials
for
sensors.
This
review
presents
a
comprehensive
summary
latest
advancements
in
MXenes-based
materials
It
begins
with
an
introduction
to
special
structural
features
performance,
followed
by
in-depth
exploration
versatile
functionalities.
A
detailed
description
different
mechanisms
also
included
illustrate
contribution
performance
its
improvement.
In
addition,
real-world
applications
sensors
monitoring
are
as
well.
remaining
challenges
their
promising
opportunities
finally
narrated,
conjunction
prospective
future
development.