Recent Advances in the Tunable Optoelectromagnetic Properties of PEDOTs
Ling Zhu,
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Qi Liu,
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Y L Zhang
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et al.
Molecules,
Journal Year:
2025,
Volume and Issue:
30(1), P. 179 - 179
Published: Jan. 4, 2025
Conducting
polymers
represent
a
crucial
class
of
functional
materials
with
widespread
applications
in
diverse
fields.
Among
these,
poly(3,4-ethylenedioxythiophene)
(PEDOT)
and
its
derivatives
have
garnered
significant
attention
due
to
their
distinctive
optical,
electronic,
magnetic
properties,
as
well
exceptional
tunability.
These
properties
often
exhibit
intricate
interdependencies,
manifesting
synergistic,
concomitant,
or
antagonistic
relationships.
In
optics,
PEDOTs
are
renowned
for
high
transparency
unique
photoelectric
responses.
From
an
electrical
perspective,
they
display
conductivity,
thermoelectric,
piezoelectric
performance,
along
notable
electrochemical
activity
stability,
enabling
wide
array
electronic
applications.
terms
demonstrate
outstanding
electromagnetic
shielding
efficiency
microwave
absorption
capabilities.
Moreover,
these
can
be
precisely
tailored
through
molecular
structure
modifications,
chemical
doping,
composite
formation
suit
various
application
requirements.
This
review
systematically
examines
the
mechanisms
underlying
optoelectromagnetic
PEDOTs,
highlights
tunability,
outlines
prospective
research
directions.
By
providing
critical
theoretical
insights
technical
references,
this
aims
advance
landscape
PEDOTs.
Language: Английский
A Highly Conductive and Tough Binary Metalgel
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 23, 2024
Abstract
Materials
that
combine
metallic
electrical
conductivity
and
high
toughness
are
in
great
demand
for
advancing
flexible
electronics.
However,
such
materials
still
lacking.
Previously
reported
with
(≥1
×
10
6
S·m
‒1
)
usually
compromise
on
(<3
MJ·m
‒3
).
Here,
a
binary
metalgel
is
presented
features
metal
continuum
stabilized
by
three‐dimensional
polymer
network.
The
consists
of
hard
particles
encapsulated
soft
liquid
metal.
continuous
conductive
pathways
within
the
network
enable
2.50
.
Additionally,
combination
particles,
metal,
facilitates
stress
transfer
throughout
material,
creating
triple‐mode
energy
dissipation
mechanism
enhances
to
14.40
This
strategy
offers
valuable
framework
developing
achieve
both
superior
mechanical
properties.
Language: Английский