Advanced Electronic Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 25, 2024
Abstract
This
study
introduces
a
novel
Room‐Temperature
Processable
Stretchable
Conductive
Composite
(RTPSC),
uniquely
combining
room‐temperature
processability,
stretchability,
and
conductivity.
Unlike
traditional
conductive
materials
requiring
thermal
or
UV
curing,
which
can
damage
heat‐sensitive
components
cause
substrate
distortion,
RTPSC
uses
Styrene‐Butadiene‐Styrene
(SBS)
elastomer
blended
with
silver
fillers
paraffin
oil.
composition
enables
rapid
solidification
within
five
minutes
at
room
temperature,
mitigating
risks.
Surface
ligands
on
flakes
are
replaced
oleylamine,
resulting
in
uniform
distribution
enhanced
resistance
to
acids,
bases,
oxidation.
The
composite
exhibits
low
contact
(0.1
Ω
across
7.7
mm
2
)
maintains
robust
mechanical
electrical
properties
under
extensive
deformation,
thanks
its
high
adhesion
force
(704.5
gF/25
mm).
Notably,
change
remains
0.15
even
after
1800
cycles
50%
strain.
RTPSC's
viscosity
be
finely
tuned
by
adding
solvents
secondary
fluids,
enabling
various
printing
techniques
from
spray
omni‐directional
printing.
adaptability
allows
intricate
patterning
delicate
structures
via
versatile
connections
between
stretchable
electrodes
rigid
through
These
capabilities
provide
design
flexibility
ease
of
repair,
making
highly
suitable
for
innovative
development
maintenance
electronic
devices.
Small,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 7, 2025
Abstract
Cellulose,
the
most
abundant
natural
polymer,
is
characterized
by
its
unique
molecular
architecture,
which
enables
strategic
engineering
into
functional
gel
materials
such
as
ionogels
and
hydrogels.
Despite
significant
advancements
in
cellulose
technology,
especially
area
of
ionogels,
challenges
remain
fully
exploring
their
properties
broadening
applications.
This
review
examines
development
evolution
gels,
focusing
on
new
directions
molecular‐scale
design
for
these
materials.
Strategies
to
enhance
mechanical
performance,
ionic
conductivity,
self‐healing
gels
are
systematically
outlined,
emphasizing
regulation
assembly,
creation
dynamic
bonds,
switchable
supramolecular
networks.
Furthermore,
emerging
applications
electronic
skins,
flexible
electronics,
smart
devices,
biomedical
science
discussed.
Performance
targets
trends
identified,
highlighting
potential
role
artificial
intelligence
predicting
accelerating
process.
work
proposes
feasible
scalable
strategies
aimed
at
improving
gels.
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 26, 2025
Abstract
Shear‐stiffening
materials,
renowned
for
their
rate‐dependent
behavior,
hold
immense
potential
impact‐resistant
applications
but
are
often
constrained
by
limited
load‐bearing
capacity
under
extreme
conditions.
In
this
study,
a
novel
hybrid
additive
manufacturing
strategy
that
successfully
achieves
anisotropic
structural
design
of
shear‐stiffening
materials
is
proposed.
strategy,
fused
deposition
modeling
(FDM)
synergistically
combined
with
direct
ink
writing
(DIW)
to
fabricate
lattice‐structured
soft‐hard
phase
elastomer
composites
(TPR‐SSE
composites)
enhanced
mechanical
properties.
Through
quasistatic
characterization
and
dynamic
impact
experiments,
complemented
noncontact
optical
measurement
finite
element
simulation,
the
enhancement
mechanisms
imparted
lattice
architecture
systematically
uncovered.
The
resulting
exhibit
exceptional
conditions
superior
energy
dissipation
impacts,
making
them
ideal
advanced
protective
systems.
Building
on
this,
smart
sports
shoes
featuring
deep‐learning‐based
sensing
module
integrates
customizability,
buffering
capacity,
gait
recognition,
developed.
This
work
provides
transformative
structure
approach
systems,
paving
way
next‐generation
intelligent
wearable
protection
applications.
Polymers,
Journal Year:
2024,
Volume and Issue:
16(22), P. 3125 - 3125
Published: Nov. 8, 2024
The
emergence
of
3D
and
4D
printing
has
transformed
the
field
polymer
composites,
facilitating
fabrication
complex
structures.
As
these
manufacturing
techniques
continue
to
progress,
integration
machine
learning
(ML)
is
widely
utilized
enhance
aspects
processes.
This
includes
optimizing
material
properties,
refining
process
parameters,
predicting
performance
outcomes,
enabling
real-time
monitoring.
paper
aims
provide
an
overview
recent
applications
ML
in
composites.
By
highlighting
intersection
technologies,
this
seeks
identify
existing
trends
challenges,
outline
future
directions.
International Journal of Extreme Manufacturing,
Journal Year:
2024,
Volume and Issue:
7(1), P. 012008 - 012008
Published: Nov. 13, 2024
Abstract
Electrohydrodynamic
(EHD)
jet
printing
represents
a
novel
micro/nano-scale
additive
manufacturing
process
that
utilises
high-voltage
induced
electric
field
between
the
nozzle
and
substrate
to
print
micro/nanoscale
structures.
EHD
is
particularly
advantageous
for
fabrication
on
flexible
or
non-flat
substrates
of
large
aspect
ratio
micro/nanostructures
composite
multi-material
Despite
this,
has
yet
be
fully
industrialised
due
its
low
throughput,
which
primarily
caused
by
limitations
serial
technology.
The
parallel
multi-nozzle
array-based
become
most
promising
option
achieve
large-scale
increasing
number
nozzles
realise
multichannel
printing.
This
paper
reviews
recent
development
technology,
analyses
motion
with
multi-nozzle,
explains
origins
crosstalk
effect
under
discusses
several
widely
used
methods
overcoming
it.
work
also
summarises
impact
different
parameters
describes
current
using
as
well
method
they
can
realised
independently.
In
addition,
it
presents
an
additional
significant
utilisation
aside
from
enhancing
single-nozzle
production
efficiency,
phase
change
materials
through
multi-nozzle.
Finally,
future
direction
discussed
envisioned.
