Advanced Functional Materials,
Год журнала:
2024,
Номер
34(28)
Опубликована: Март 11, 2024
Abstract
Zinc‐ion
batteries
(ZIBs)
have
become
a
global
research
hotspot
in
recent
years
due
to
their
eco‐friendliness,
safety,
abundant
resources,
and
low
cost.
However,
some
significant
challenges
seriously
affect
overall
performance,
thus
hindering
further
development
practical
applications.
Recently,
multifunctional
adjustable
2D
carbides
nitrides
(MXenes)
are
extensively
used
for
the
modification
of
ZIBs,
fruitful
achievements
achieved.
In
order
make
systematic
understanding
these
studies,
it
is
highly
desirable
provide
an
overview
MXenes
based
on
methods
action
mechanisms.
this
review,
basic
introduction
ZIBs
presented
main
approaches
solving
issues
discussed
detail,
including
activation
composite
strategies
cathode,
interface
engineering,
structural
optimization,
zinc
metal‐free
anode
strategy
anode,
solid‐state
electrolyte,
functionalized
separator.
Importantly,
functions
related
mechanisms
various
components
analyzed
depth.
Finally,
pathways
summarized,
future
directions
prospected.
Advanced Functional Materials,
Год журнала:
2023,
Номер
33(48)
Опубликована: Июль 17, 2023
Abstract
Polydimethylsiloxanes
(PDMS)
foam
as
one
of
next‐generation
polymer
materials
shows
poor
surface
adhesion
and
limited
functionality,
which
greatly
restricts
its
potential
applications.
Fabrication
advanced
PDMS
with
multiple
functionalities
remains
a
critical
challenge.
In
this
study,
unprecedented
self‐adhesive
are
reported
worm‐like
rough
structure
reactive
groups
for
fabricating
multifunctional
nanocomposites
decorated
MXene/cellulose
nanofiber
(MXene/CNF)
interconnected
network
by
facile
silicone
foaming
dip‐coating
strategy
followed
silane
modification.
Interestingly,
such
produces
strong
interfacial
the
hybrid
MXene/CNF
nano‐coatings.
Consequently,
optimized
have
excellent
super‐hydrophobicity
(water
contact
angle
≈159
o
),
tunable
electrical
conductivity
(from
10
−8
to
S
m
−1
stable
compressive
cyclic
reliability
in
both
wide‐temperature
range
−20
200
C)
complex
environments
(acid,
sodium,
alkali
conditions),
outstanding
flame
resistance
(LOI
value
>27%
low
smoke
production
rate),
good
thermal
insulating
performance
reliable
strain
sensing
various
stress
modes
environmental
conditions.
It
provides
new
route
rational
design
development
versatile
multifunctionalities
promising
applications
intelligent
healthcare
monitoring
fire‐safe
insulation.
Abstract
Conductive
Ti
3
C
2
T
x
MXenes
have
been
widely
investigated
for
the
construction
of
flexible
and
highly‐sensitive
pressure
sensors.
Although
inevitable
oxidation
solution‐processed
MXene
has
recognized,
effect
irreversible
on
its
electrical
conductivity
sensing
properties
is
yet
to
be
understood.
Herein,
we
construct
a
degradable
piezoresistive
sensor
by
coating
flakes
with
different
degrees
in
situ
onto
paper
substrates
using
dipping‐drying
method.
In
can
tune
intrinsic
resistance
expand
interlayer
distance
nanosheets.
The
partially
oxidized
MXene‐based
exhibits
high
sensitivity
28.43
kPa
−1
,
which
greater
than
those
pristine
MXene,
over‐oxidized
state‐of‐the‐art
paper‐based
Additionally,
these
sensors
exhibit
short
response
time
98.3
ms,
good
durability
over
5000
measurement
cycles,
low
force
detection
limit
0.8
Pa.
Moreover,
elements
are
easily
degraded
environmentally
friendly.
shows
promise
practical
applications
tracking
body
movements,
sports
coaching,
remote
health
monitoring,
human–computer
interactions.
image
Advanced Materials,
Год журнала:
2024,
Номер
36(24)
Опубликована: Фев. 21, 2024
In
the
past
decade,
with
rapid
development
of
wearable
electronics,
medical
health
monitoring,
Internet
Things,
and
flexible
intelligent
robots,
pressure
sensors
have
received
unprecedented
attention.
As
a
very
important
kind
electronic
component
for
information
transmission
collection,
gained
wide
application
prospect
in
fields
aerospace,
biomedical
skin,
human-machine
interface.
recent
years,
MXene
has
attracted
extensive
attention
because
its
unique
2D
layered
structure,
high
conductivity,
rich
surface
terminal
groups,
hydrophilicity,
which
brought
new
breakthrough
sensing.
Thus,
it
become
revolutionary
pressure-sensitive
material
great
potential.
this
work,
advances
MXene-based
are
reviewed
from
aspects
sensing
type,
mechanism,
selection,
structural
design,
preparation
strategy,
application.
The
methods
strategies
to
improve
performance
analyzed
details.
Finally,
opportunities
challenges
faced
by
discussed.
This
review
will
bring
research
level,
promoting
wider
exploitation
practical
materials
sensors.
Advanced Materials,
Год журнала:
2024,
Номер
36(16)
Опубликована: Янв. 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.
Abstract
The
Internet
of
Things
era
has
promoted
enormous
research
on
sensors,
communications,
data
fusion,
and
actuators.
Among
them,
sensors
are
a
prerequisite
for
acquiring
the
environmental
information
delivering
to
an
artificial
center
make
decisions.
MXene‐based
have
aroused
tremendous
interest
because
their
extraordinary
performances.
In
this
review,
electrical,
electronic,
optical
properties
MXenes
first
introduced.
Next,
discussed
according
sensing
mechanisms
such
as
electrochemical,
methods.
Initially,
biosensors
introduced
based
chemiresistors
field‐effect
transistors.
Besides,
wearable
pressure
sensor
is
demonstrated
with
piezoresistive
devices.
Third,
electrochemical
methods
include
amperometry
electrochemiluminescence
examples.
addition,
approaches
refer
surface
plasmonic
resonance
fluorescence
energy
transfer.
Moreover,
prospects
delivered
multimodal
fusion
toward
complicated
human‐like
senses.
Eventually,
future
opportunities
MXene
conveyed
in
new
material
discovery,
structure
design,
proof‐of‐concept
Advanced Functional Materials,
Год журнала:
2023,
Номер
33(12)
Опубликована: Янв. 8, 2023
Abstract
The
geometric
multiplication
development
of
MXene
has
promoted
it
to
become
a
star
material
in
numerous
applications
including,
but
not
limited
to,
energy
storage.
It
is
found
that
pore
structure
modulation
engineering
can
improve
the
inherent
properties
MXene,
turn
significantly
enhancing
its
electrochemical
performance.
However,
most
current
works
have
focused
on
exploring
structure‐effective
relationships
single‐scale
regulation
MXene.
Inspired
by
Murray's
law
from
nature
where
highly
graded
organisms
discovered
and
used
achieve
effective
diffusion
maximize
mass
transfer,
hierarchically
interconnected
porous
electrode
across
micro‐meso‐macroporous
constructed.
This
MXene‐based
provides
large
amounts
active
sites
while
greatly
shortening
ion
channel.
Finally,
zinc
microcapacitor
based
this
exhibits
an
ultrahigh
area‐specific
capacitance
up
410
mF
cm
−2
density
103
µWh
at
power
2100
µW
.
areal
outperforms
currently
reported
microcapacitors.
study
supports
strategy
for
materials
(including
MXene)
ultra‐short
channels
maximum
transport
efficiency
next‐generation
high‐performance
ACS Nano,
Год журнала:
2023,
Номер
17(16), С. 16036 - 16047
Опубликована: Авг. 14, 2023
Although
skin-like
sensors
that
can
simultaneously
detect
various
physical
stimuli
are
of
fair
importance
in
cutting-edge
human-machine
interaction,
robotic,
and
healthcare
applications,
they
still
face
challenges
facile,
scalable,
cost-effective
production
using
conventional
active
materials.
The
emerging
two-dimensional
transition
metal
carbide,
Ti3C2Tx
MXene,
integrated
with
favorable
thermoelectric
properties,
metallic-like
conductivity,
a
hydrophilic
surface,
is
promising
for
solving
these
problems.
Herein,
multifunctional
designed
to
precisely
distinguish
temperature
pressure
without
cross-talk
by
decorating
elastic
porous
substrates
MXene
sheets.
Because
the
combination
conductive
thermally
insulating,
elastic,
substrate
integrates
efficient
Seebeck
piezoresistive
effects,
resultant
sensor
exhibits
not
only
an
ultralow
detection
limit
(0.05
K),
high
signal-to-noise
ratio,
excellent
cycling
stability
but
also
sensitivity,
fast
response
time,
outstanding
durability
detection.
Based
on
impressive
dual-mode
sensing
properties
independent
detections,
multimode
input
terminal
electronic
skin
created,
exhibiting
great
potential
robotic
interaction
applications.
This
work
provides
scalable
fabrication
tactile
detecting
distinguishing
stimuli.