Chemical Communications,
Journal Year:
2023,
Volume and Issue:
59(97), P. 14353 - 14369
Published: Jan. 1, 2023
As
an
emerging
functional
material,
liquid
metal–hydrogel
composites
exhibit
excellent
biosafety,
high
electrical
conductivity,
tunable
mechanical
properties
etc.,
providing
a
unique
platform
for
wide
range
of
flexible
electronics
applications.
Advanced Science,
Journal Year:
2023,
Volume and Issue:
10(6)
Published: Jan. 15, 2023
Room-temperature
liquid
metal
(LM)-based
electronics
is
expected
to
bring
advancements
in
future
soft
owing
its
conductivity,
conformability,
stretchability,
and
biocompatibility.
However,
various
difficulties
arise
when
patterning
LM
because
of
rheological
features
such
as
fluidity
surface
tension.
Numerous
attempts
are
made
overcome
these
difficulties,
resulting
LM-patterning
methods.
An
appropriate
choice
method
based
on
comprehensive
understanding
necessary
fully
utilize
the
unique
properties.
Therefore,
authors
aim
provide
thorough
knowledge
about
methods
properties
for
LM-based
electronics.
First,
essential
considerations
investigated.
Then,
methods-serial-patterning,
parallel-patterning,
intermetallic
bond-assisted
patterning,
molding/microfluidic
injection-are
categorized
Finally,
perspectives
with
provided.
They
include
outstanding
biocompatibility,
permeability,
restorability,
recyclability.
Also,
they
areas
radio
frequency
electronics,
robots,
heterogeneous
catalyst.
devices
permeate
daily
lives
if
aforementioned
analyzed
utilized.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(3), P. 2312 - 2324
Published: Jan. 8, 2024
Stable
outdoor
wearable
electronics
are
gaining
attention
due
to
challenges
in
sustaining
consistent
device
performance
outdoors,
where
sunlight
exposure
and
user
movement
can
disrupt
operations.
Currently,
researchers
have
focused
on
integrating
radiative
coolers
into
devices
for
thermal
management.
However,
these
approaches
often
rely
heat-vulnerable
thermoplastic
polymers
strain-susceptible
conductors
that
unsuitable
electronics.
Here,
we
introduce
mechanically,
electrically,
thermally
stable
even
when
they
stretched
under
address
challenges.
This
achievement
is
realized
by
a
polydimethylsiloxane
nanofibrous
cooler
liquid
metal
fully
device.
The
robust
architecture
of
nanofibers,
based
their
inherent
properties
as
thermoset
polymers,
exhibits
excellent
cooling
through
high
solar
reflection
emission.
Additionally,
laser-patterned
possess
ideal
electronics,
including
strain-insensitivity,
nonsmearing
behavior,
negligible
contact
resistance.
As
proof,
developed
integrated
with
electromechanically
components
accurately
detect
physiological
signals
harsh
environments,
light
exposure,
while
up
30%.
work
highlights
the
potential
development
everyday
capable
reliable
operation
challenging
external
conditions,
user-activity-induced
stress
exposure.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(5), P. 3969 - 3995
Published: Jan. 25, 2024
Implantable
chemical
sensors
built
with
flexible
and
biodegradable
materials
exhibit
immense
potential
for
seamless
integration
biological
systems
by
matching
the
mechanical
properties
of
soft
tissues
eliminating
device
retraction
procedures.
Compared
conventional
hospital-based
blood
tests,
implantable
have
capability
to
achieve
real-time
monitoring
high
accuracy
important
biomarkers
such
as
metabolites,
neurotransmitters,
proteins,
offering
valuable
insights
clinical
applications.
These
innovative
could
provide
essential
information
preventive
diagnosis
effective
intervention.
To
date,
despite
extensive
research
on
bioresorbable
electronics,
development
has
faced
several
challenges
related
design,
resulting
in
only
a
limited
number
successful
accomplishments.
This
review
highlights
recent
advancements
based
materials,
encompassing
their
sensing
strategies,
geometric
configurations.
The
following
discussions
focus
demonstrated
detection
various
objects
including
ions,
small
molecules,
few
examples
macromolecules
using
and/or
sensors.
Finally,
we
will
present
current
explore
future
directions.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 21, 2025
Abstract
Hydrogel‐based
electrodes
are
widely
used
in
electrophysiological
monitoring
for
personal
disease
prevention
and
home‐based
healthcare.
However,
limited
by
the
hydrogels’
low
toughness,
poor
adhesion,
weak
electrical
stability,
motion
artifacts
device
detachments
inevitable
after
long‐term,
continuous
monitoring.
Herein,
novel
liquid
metal@silk
fibroin
peptide
(LM@SF)
core‐shell
particles,
which
shell
SF
not
only
facilitates
core
LM's
dispersion
but
also
stabilizes
free
radicals,
designed
to
initiate
situ
formation
of
hydrogel
while
simultaneously
enhancing
its
conductivity.
As
applied
monitoring,
can
maintain
both
a
stable
physical
interface
transmission
skin,
thus
promoting
signal
acquisition
quality
obviously
even
during
exercise
long‐term
wearing.
At
last,
portable
flexible
patch
with
small
volume
(70
×
35
2
mm)
light
weight
(7
g)
is
developed
achieve
electrocardiogram
(ECG)
via
wireless
transmission,
demonstrating
high
potentials
telemedicine.
Advanced Materials,
Journal Year:
2023,
Volume and Issue:
36(8)
Published: Dec. 1, 2023
Abstract
The
advent
of
Internet
Things
and
artificial
intelligence
era
necessitates
the
advancement
self‐powered
electronics.
However,
prevalent
multifunctional
electronics
still
face
great
challenges
in
rigid
electrodes,
stacked
layers,
external
power
sources
to
restrict
development
flexible
Here,
a
transparent,
self‐healing,
anti‐freezing
(TSA)
ionogel
composed
fluorine‐rich
ionic
liquid
fluorocarbon
elastomer,
which
is
engineered
for
monolayered
triboelectric
nanogenerators
(M‐TENG)
electromagnetic
energy‐based
touch
panels
developed.
Notably,
TSA‐ionogel
exhibits
remarkable
features
including
outstanding
transparency
(90%),
robustness
(253
K),
impressive
stretchability
(600%),
repetitive
self‐healing
capacity.
resultant
M‐TENG
achieves
significant
output
density
(200
mW
m
−2
)
sustains
operational
stability
beyond
1
year.
Leveraging
this
performance,
adeptly
harnessed
biomechanical
energy
harvesting,
control
interface,
electroluminescent
devices,
enabling
wireless
over
electrical
appliances.
Furthermore,
harnessing
Faraday's
induction
law
exploiting
human
body's
intrinsic
antenna
properties,
seamlessly
transforms
into
an
autonomous
epidermal
panel.
This
panel
offers
impeccable
input
capabilities
through
word
inscription
participation
Chinese
game
Go.
Consequently,
TSA‐ionogel's
innovation
holds
potential
reshape
trajectory
next‐generation
profoundly
revolutionize
paradigm
human–machine
interaction.
Materials Chemistry Frontiers,
Journal Year:
2023,
Volume and Issue:
7(16), P. 3278 - 3297
Published: Jan. 1, 2023
A
flexible
sensor
is
a
key
part
of
intelligent
wearable
devices.
The
design
micro–nano
structured
materials
in
sensors
crucial.
Therefore,
the
recent
application
devices
summarized.
Advanced Functional Materials,
Journal Year:
2023,
Volume and Issue:
33(36)
Published: May 11, 2023
Abstract
Researchers
are
eagerly
developing
various
stretchable
conductors
to
fabricate
devices
for
next‐generation
electronics.
Most
of
the
major
problems
in
electronics
happen
at
connection
between
rigid
and
soft
parts
development
reliable
soldering
material
is
a
hurdle
Though
there
attempts
devise
new
processes
integrating
chips
conductors,
they
still
possess
limitations
such
as
mechanical
stability,
mass
production,
sophisticated
processes,
restricted
candidates
substrates.
Here,
this
study
presents
room‐temperature
universal
sticker‐like
process
that
can
stretchably
solder
multiple
spots
once
directly
fabricates
device
an
situ
manner
while
target
conductor
installed
on
one's
body.
The
developed
research
possesses
high
conductivity
with
unique
freestanding
feature
enabling
process.
It
be
elongated
when
positioned
chip
conductor,
demonstrating
its
extraordinary
stretchability.
expected
simple
but
technique
utilizing
invented
will
allow
integration
functional
highly
advanced
International Journal of Smart and Nano Materials,
Journal Year:
2023,
Volume and Issue:
14(4), P. 510 - 565
Published: Sept. 27, 2023
The
rapid
evolution
of
flexible
electronic
devices
promises
to
revolutionize
numerous
fields
by
expanding
the
applications
smart
devices.
Nevertheless,
despite
this
vast
potential,
reliability
these
innovative
currently
falls
short,
especially
in
light
demanding
operation
environment
and
intrinsic
challenges
associated
with
their
fabrication
techniques.
heterogeneity
processes
environments
gives
rise
unique
failure
modes
throughout
devices'
lifespan.
To
significantly
enhance
assure
long-term
performance,
it
is
paramount
comprehend
underpinning
mechanisms
thoroughly,
thereby
enabling
optimal
design
solutions.
A
myriad
investigative
efforts
have
been
dedicated
unravel
mechanisms,
utilizing
a
spectrum
tools
from
analytical
models,
numerical
methods,
advanced
characterization
methods.
This
review
delves
into
root
causes
device
failure,
scrutinizing
both
process
environment.
Next,
We
subsequently
address
across
four
commonly
observed
modes:
strength
fatigue
interfacial
electrical
followed
an
overview
targeted
methods
each
mechanism.
Concluding
outlook,
we
spotlight
ongoing
promising
directions
for
future
research
our
pursuit
highly
resilient
Journal of Materials Chemistry C,
Journal Year:
2023,
Volume and Issue:
11(38), P. 12807 - 12827
Published: Jan. 1, 2023
Liquid
metals
(LM)
have
attracted
tremendous
attention
in
the
last
decade,
especially
fabrication
of
LM-based
polymer
composites
(LMPCs),
due
to
unique
combination
their
metallic
and
fluidic
properties.