Chemical Society Reviews,
Journal Year:
2024,
Volume and Issue:
53(10), P. 5190 - 5226
Published: Jan. 1, 2024
Etching
technology
–
one
of
the
representative
modern
semiconductor
device
makers
serves
as
a
broad
descriptor
for
process
removing
material
from
surfaces
various
materials,
whether
partially
or
entirely.
Chemical Society Reviews,
Journal Year:
2023,
Volume and Issue:
52(15), P. 4933 - 4995
Published: Jan. 1, 2023
Solid-state
electrolytes
(SEs)
have
attracted
overwhelming
attention
as
a
promising
alternative
to
traditional
organic
liquid
(OLEs)
for
high-energy-density
sodium-metal
batteries
(SMBs),
owing
their
intrinsic
incombustibility,
wider
electrochemical
stability
window
(ESW),
and
better
thermal
stability.
Among
various
kinds
of
SEs,
inorganic
solid-state
(ISEs)
stand
out
because
high
ionic
conductivity,
excellent
oxidative
stability,
good
mechanical
strength,
rendering
potential
utilization
in
safe
dendrite-free
SMBs
at
room
temperature.
However,
the
development
Na-ion
ISEs
still
remains
challenging,
that
perfect
solution
has
yet
be
achieved.
Herein,
we
provide
comprehensive
in-depth
inspection
state-of-the-art
ISEs,
aiming
revealing
underlying
Na+
conduction
mechanisms
different
length
scales,
interpreting
compatibility
with
Na
metal
anode
from
multiple
aspects.
A
thorough
material
screening
will
include
nearly
all
developed
date,
i.e.,
oxides,
chalcogenides,
halides,
antiperovskites,
borohydrides,
followed
by
an
overview
modification
strategies
enhancing
conductivity
interfacial
metal,
including
synthesis,
doping
engineering.
By
discussing
remaining
challenges
ISE
research,
propose
rational
strategic
perspectives
can
serve
guidelines
future
desirable
practical
implementation
high-performance
SMBs.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(24)
Published: April 5, 2024
Abstract
Achieving
radar‐infrared
compatible
camouflage
with
dynamic
adaptability
has
been
a
long‐sought
goal,
but
faces
significant
challenges
owing
to
the
limited
dispersion
relations
of
conventional
material
systems
operating
in
different
wavelength
ranges.
Here,
this
work
proposes
concept
pneumatic
multiscale
shape
morphing
and
design
periodically
arranged
unit
consisting
MXene‐based
morphable
conductors
intake
platforms.
During
gas
actuation,
conductor
transforms
centimeter‐scale
2D
flat
sheets
into
3D
balloon
shapes
enhance
microwave
absorption
behavior,
also
reconfigures
micrometer‐scale
MXene
wrinkles
smooth
planes
combination
cavity‐induced
low
heat
transfer
minimize
infrared
(IR)
signatures.
Through
theory‐guided
reverse
engineering,
final
matrix
shows
remarkable
frequency
tunability
(2.64–18.0
GHz),
moderate
IR
emissivity
regulation
(0.14
at
7–16.5
µm),
rapid
responsiveness
(≈30
ms),
wide‐angle
operation
(>45
°
),
excellent
environmental
tolerance.
Additionally,
multiplexed
enables
over
14
programmable
coding
sequences
that
independently
alter
thermal
radiation
without
compromising
radar
stealth,
allows
multimodal
switching
between
three
distinct
states.
The
approach
may
facilitate
evolution
techniques
electromagnetic
functional
materials
toward
multispectral,
intelligence.
Energy & Environmental Science,
Journal Year:
2023,
Volume and Issue:
16(10), P. 4630 - 4640
Published: Jan. 1, 2023
In
this
work,
I
−
poisoning
mechanism
is
proposed
for
SACs
selection
to
suppress
shuttle
effect
in
Zn–I
2
batteries.
It
found
that
formation
and
desorption
are
crucial
maintain
the
catalytic
adsorption
role
of
metallic
element.
Nano-Micro Letters,
Journal Year:
2023,
Volume and Issue:
15(1)
Published: April 13, 2023
Abstract
Today,
self-healing
graphene-
and
MXene-based
composites
have
attracted
researchers
due
to
the
increase
in
durability
as
well
cost
reduction
long-time
applications.
Different
studies
focused
on
designing
novel
with
enhanced
sensitivity,
stretchability,
flexibility
improved
electrical
conductivity,
healing
efficacy,
mechanical
properties,
energy
conversion
efficacy.
These
properties
can
be
employed
field
of
wearable
sensors,
supercapacitors,
anticorrosive
coatings,
electromagnetic
interference
shielding,
electronic-skin,
soft
robotics,
etc.
However,
it
appears
that
more
explorations
are
still
needed
achieve
excellent
arbitrary
shape
adaptability,
suitable
adhesiveness,
ideal
durability,
high
immediate
responsibility,
outstanding
features.
Besides,
optimizing
reaction/synthesis
conditions
finding
strategies
for
functionalization/modification
crucial
aspects
should
comprehensively
investigated.
MXenes
graphene
exhibited
superior
electrochemical
abundant
surface
terminations
great
area,
which
important
evolve
biomedical
sensing
stretchability
criteria
need
their
future
Herein,
most
recent
advancements
pertaining
applications
deliberated,
focusing
challenges
perspectives.
Materials Horizons,
Journal Year:
2023,
Volume and Issue:
11(1), P. 217 - 226
Published: Oct. 20, 2023
Ionic
conductive
cholesteric
liquid
crystal
elastomers
with
dynamic
color-changing
and
electrical
sensing
functions
were
developed
through
the
integration
of
polymer
ionic
networks.
Advanced Functional Materials,
Journal Year:
2023,
Volume and Issue:
33(52)
Published: Sept. 15, 2023
Abstract
Conductive
hydrogels
are
compelling
materials
for
the
development
of
soft
electronics;
however,
their
essential
attributes
such
as
high
sensitivity,
excellent
stretchability,
and
environmental
stability
have
rarely
been
achieved
simultaneously
in
one
hydrogel.
Herein,
a
Kirigami‐inspired
strategy
is
proposed
to
improve
organohydrogel
sensitivity
without
sacrificing
mechanical
stretchability
.
The
organohydrogels
with
multiple
interpenetrating
networks
synthesized
by
introducing
sodium
alginate
nanofibrils
conductive
MXene
nanoflakes
into
polymer
double
infiltrated
glycerol–water
mixtures,
featuring
remarkable
(>5000%),
good
water
retention
(>30
days).
Kirigami
structures
further
applied
enhance
strain
achieving
gauge
factor
29.1,
which
≈5.5
times
that
an
unstructured
organohydrogel.
Using
sensors,
durable
glove
developed
grabbing
underwater
objects
through
operating
robotic
arm,
demonstrating
subaqueous
interactive
human–machine
interfacing.Meanwhile,
integrating
wearable
sensor
machine
learning
algorithm,
Morse
code
intelligent
recognition
system
demonstrated,
enabling
real‐time
conversion
signs
speech
superior
accuracy
(>99%)
fast
response
time
(≈17
ms).
This
work
offers
new
route
synthesize
highly
sensitive,
stretchable,
extremely
tolerant
organohydrogels,
providing
promising
platform
next‐generation
electronics.
Deleted Journal,
Journal Year:
2023,
Volume and Issue:
2(1)
Published: Dec. 11, 2023
Abstract
Compared
with
traditional
rigid
actuators,
soft
actuators
exhibit
a
large
number
of
advantages,
including
enhanced
flexibility,
reconfigurability,
and
adaptability,
which
motivate
us
to
develop
artificial
widespread
applications.
Soft
MXene
nanomaterials
are
regarded
as
highly
promising
candidates
for
advancing
the
development
bioinspired
robotics
consequence
their
unprecedented
physicochemical
characteristics,
such
high
electronic
conductivity,
thermal
photothermal
conversion
capability,
abundant
surface
functional
groups.
Herein,
comprehensive
overview
recent
advancement
extensive
applications
from
perspective
bioinspiration
is
provided.
First,
synthetic
methods
properties
briefly
summarized.
Subsequently,
(including
photoresponsive
electroresponsive
chemoresponsive
actuators)
sequentially
investigated
focus
on
fabrication
approaches,
actuation
properties,
underlying
mechanisms,
At
end,
future
challenges
opportunities
rapid
discussed.
Small,
Journal Year:
2023,
Volume and Issue:
20(9)
Published: Oct. 10, 2023
Abstract
Conductive
microfibers
play
a
significant
role
in
the
flexibility,
stretchability,
and
conductivity
of
electronic
skin
(e‐skin).
Currently,
fabrication
conductive
suffers
from
either
time‐consuming
complex
operations
or
is
limited
environments.
Thus,
it
presents
one‐step
method
to
prepare
hydrogel
based
on
microfluidics
for
construction
ultrastretchable
e‐skin.
The
are
achieved
with
MXene
cores
shells,
which
solidified
covalent
cross‐linking
between
sodium
alginate
calcium
chloride,
mechanically
enhanced
by
complexation
reaction
poly(vinyl
alcohol)
hydroxide.
microfiber
conductivities
tailorable
adjusting
flow
rate
concentration
core
shell
fluids,
essential
more
practical
applications
scenarios.
More
importantly,
patterned
e‐skin
can
be
constructed
combining
3D
printing
technology.
Because
great
advantages
mechanical
electrical
performance
microfibers,
shows
impressive
stretching
sensitivity,
also
demonstrate
attractive
application
values
motion
monitoring
gesture
recognition.
These
characteristics
indicate
that
has
potential
health
monitoring,
wearable
devices,
smart
medicine.
Results in Physics,
Journal Year:
2024,
Volume and Issue:
60, P. 107655 - 107655
Published: April 5, 2024
Recently
graphene,
a
two-dimensional,
layered
carbon
nanomaterial,
has
gained
attention
of
the
researchers
working
on
nanomaterials
due
to
its
outstanding
mechanical,
thermal,
and
electrical
properties.
When
incorporated
into
polymer
matrices,
graphene
serves
as
versatile
filler,
resulting
in
development
high-performance
nanocomposites
with
variety
applications.
This
review
article
delves
latest
advancements
graphene-based
composites,
primarily
focusing
their
role
energy-related
The
explores
extensive
potential
covers
fabrication
using
diverse
techniques.
These
techniques
include
solution
mixing,
in-situ
polymerization,
electrospinning,
layer-by-layer
assembly,
each
tailored
meet
specific
composite
requirements.
methods
enable
design
engineer
graphene-polymer
composites
practical
applications
these
span
various
fields,
significant
emphasis
They
find
utility
energy
storage
conversion.
includes
enhancement
supercapacitors,
lithium-ion
batteries,
fuel
cells,
electrolyte
membranes,
all
which
benefit
from
improved
performance
stability
imparted
by
graphene.
meticulously
reviews
breakthroughs
innovations
areas,
underscoring
substantial
progress
achieved
enhancing
efficiency
for
conversion
storage.
provides
comprehensive
insightful
examination
nanocomposites.
It
techniques,
outlines
conversion,
showcases
both
recent
historical
developments.
By
acknowledging
achievements
considering
future
directions,
offers
well-rounded
perspective
evolving
landscape
materials
science.