Recent Progress in Silver Nanowire‐Based Transparent Conductive Electrodes
Jintao Wang,
No information about this author
Jiajun Fan,
No information about this author
Tao Wan
No information about this author
et al.
Advanced Energy and Sustainability Research,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 27, 2025
In
this
work,
the
recent
progress
in
silver
nanowire
(AgNW)‐based
transparent
conductive
electrodes
(TCEs)
is
summarized.
First,
AgNWs
are
compared
with
other
mainstream
materials,
highlighting
their
superior
conductivity,
flexibility,
and
transparency,
which
make
them
prime
candidates
for
application
of
next‐generation
flexible
electronic
devices.
The
key
synthesis
strategies—including
template‐based,
hydrothermal/solvothermal,
polyol
methods—are
then
discussed
how
fabrication
processes
such
as
printing,
spin
coating,
dip
spray
vacuum
filtration
govern
electrical,
optical,
mechanical
properties
AgNW
networks
examined.
Special
attention
given
to
composites
carbon,
polymers,
metal
oxides,
underscoring
these
hybrid
approaches
boost
durability,
environmental
stability.
To
illustrate
AgNWs’
versatility,
applications
sensors,
solar
cells,
skin,
electromagnetic
shielding,
heating
devices,
nanogenerators,
various
electrode
systems
presented.
Notably,
capacity
maintain
functionality
under
deformation
points
broad
potential
wearable
Despite
advances,
challenges
remain.
conclusion
drawn
by
examining
future
prospects
emerging
fields
smart
textiles,
advanced
energy
harvesting,
electronics,
emphasizing
ongoing
innovations
composite
engineering
could
further
unlock
impact
on
technologies.
Language: Английский
2D MXenes: Synthesis, Properties, and Applications in Silicon‐Based Optoelectronic Devices
Wei Li,
No information about this author
Zhiyuan Xu,
No information about this author
Yu Yan
No information about this author
et al.
Small,
Journal Year:
2025,
Volume and Issue:
21(9)
Published: Jan. 16, 2025
Abstract
MXenes,
a
rapidly
emerging
class
of
2D
transition
metal
carbides,
nitrides,
and
carbonitrides,
have
attracted
significant
attention
for
their
outstanding
properties,
including
high
electrical
conductivity,
tunable
work
function,
solution
processability.
These
characteristics
made
MXenes
highly
versatile
widely
adopted
in
the
next
generation
optoelectronic
devices,
such
as
perovskite
organic
solar
cells.
However,
integration
into
silicon‐based
devices
remains
relatively
underexplored,
despite
silicon's
dominance
semiconductor
industry.
In
this
review,
timely
summary
recent
progress
utilizing
Ti‐based
particularly
Ti
3
C
2
T
x
,
is
provided.
The
composition,
synthesis
methods,
key
properties
that
contribute
to
potential
enhanced
device
performance
are
focused
on.
Furthermore,
latest
advancements
MXene
applications
cells
photodetectors
discussed
from
fundamental
applied
perspectives.
Finally,
challenges
future
opportunities
outlined.
Language: Английский
External Electric Field Enhanced Ti3C2 MXene Surface Passivation for Realizing Ultra‐Long Cycling Stability
Weixin Wang,
No information about this author
Mingzhu Ma,
No information about this author
Yuting Song
No information about this author
et al.
Small,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 17, 2025
Abstract
External
electric
field
(EEF),
as
a
stimulating
factor,
is
an
effective
method
for
optimizing
the
surface
composition
and
structure
of
materials.
Ti
3
C
2
MXene
enriched
with
negatively
charged
functional
groups
(─OH,
─O,
etc.)
will
exhibit
high
sensitivity
to
EEF.
However,
impact
EEF
on
interaction
mechanisms
between
guest
ions
remains
unclear
requires
further
investigation.
Herein,
density
theory
(DFT)
employed
simulate
adsorption
energies
butyl
trimethylammonium
ion
(BTA
+
)
surfaces
under
different
intensities
EEFs
(±0.9,
±0.7,
±0.5,
±0.3,
±0.1,
0
V
Å
−1
),
indicating
can
effectively
regulate
adsorption.
It
increase
encapsulation
degree
BTA
surface,
thereby
enhancing
passivation.
Based
theoretical
predictions,
quaternary‐ammonium
chain‐lengths
,
DTA
STA
are
selected
unveil
mechanism
The
applied‐EEF
promotes
formation
Ti─O─N
bonds
─OH
ammonium
construct
more‐denser
protective
layer,
leading
enhancement
passivation
obviously
increasing
capacitance
retention
after
100,000
cycles
(50.8%
97.5%).
This
work
provides
new
pathway
support
MXene.
Language: Английский
Highly Flexible and Ultralight PVA‐co‐PE‐AgNW/MXene Composite Film with Low Filling for Multistage Electromagnetic Interference Shielding
Dechang Tao,
No information about this author
Chenguang Yang,
No information about this author
Can Chen
No information about this author
et al.
Small,
Journal Year:
2024,
Volume and Issue:
21(7)
Published: Dec. 29, 2024
Abstract
A
composite
film
with
multistage
mechanisms
for
effective
electromagnetic
interference
(EMI)
shielding
in
the
ultra‐wide
frequency
of
8–20
GHz
was
designed.
Poly(vinyl
alcohol‐co‐ethylene)
(PVA‐co‐PE)
nanofibers
and
twill‐structured
nylon
6
fabric
are
used
as
substrate
filter
film,
respectively.
Subsequently,
a
PVA‐co‐PE/silver
nanowire
(AgNW)/MXene
(PVA/Ag/M)
is
prepared
by
vacuum
filtration,
templating,
hot‐pressing.
2.5
wt.%
AgNW/MXene
content,
EMI
efficiency
(SE),
normalized
SE
(SE/t),
absolute
(SSE/t)
101.6
dB,
7008.3
dB
cm
−1
,
36501.5
2
g
These
results
attributed
to
synergistic
enabled
twill
gradient
structure
highly
conductive.
The
surface
promotes
95%
wave
adsorption,
directing
along
interior,
significantly
increasing
EM
collision
probability
internal
reflection
times.
rich
number
hydrogen
bonds
increase
interfacial
adhesion
between
layers
enhance
tensile
stress
up
26.8
MPa.
PVA/Ag/M
exhibits
excellent
Joule
heating,
rapid
heat
dissipation,
non‐flammability,
hydrophobicity,
super‐flexibility,
stability.
This
paper
presents
an
fabrication
strategy
ultralight
conformable
low‐filling
films
high
strength,
SE,
outstanding
thermal
performance.
Language: Английский