Applied Physics Letters,
Journal Year:
2025,
Volume and Issue:
126(18)
Published: May 5, 2025
Recent
advancements
in
artificial
intelligence
have
spurred
growing
interest
developing
innovative
architectures
for
synapses.
Among
these,
nanowires
emerged
as
promising
candidates
creating
lightweight,
flexible,
and
energy-efficient
However,
achieving
in-plane
aligned
growth
of
on
flexible
substrates
poses
a
substantial
challenge
their
integration
into
bendable
This
study
introduces
room-temperature
solution-phase
graphoepitaxial
technique
that
facilitates
the
along
hydrophilic
nanogrooves
polyvinyl
alcohol
films.
scalable
method
obviates
need
complex
vacuum
systems
bypasses
constraints
traditional
lattice-matching
epitaxy
by
leveraging
surface
topography
to
guide
nanowire
alignment.
Devices
incorporating
tri-isopropylsilylethynyl
pentacene
exhibit
wavelength-sensitive
photoresponse
mimic
fundamental
biological
synaptic
behaviors,
including
paired
pulse
facilitation
spike-number-dependent
plasticity.
Furthermore,
these
devices
demonstrate
exceptional
bending
stability,
maintaining
consistent
response
even
after
2000
bends
at
curvature
radius
0.4
cm.
The
approach's
versatility
is
further
highlighted
its
applicability
diverse
organic
arrays.
By
seamlessly
integrating
without
requiring
post-growth
transfer
assembly,
this
approach
simplifies
fabrication
processes
improves
device
durability.
underscores
transformative
potential
efficient
strategy
advancing
conformable
nanowire-based
technologies.
Journal of the American Chemical Society,
Journal Year:
2024,
Volume and Issue:
146(29), P. 19998 - 20008
Published: June 12, 2024
As
the
dimensionality
of
materials
generally
affects
their
characteristics,
thin
films
composed
low-dimensional
nanomaterials,
such
as
nanowires
(NWs)
or
nanoplates,
are
great
importance
in
modern
engineering.
Among
various
bottom-up
film
fabrication
strategies,
interfacial
assembly
nanoscale
building
blocks
holds
promise
constructing
large-scale
aligned
films,
leading
to
emergent
enhanced
collective
properties
compared
individual
blocks.
for
1D
nanostructures,
self-assembly
causes
morphology
orientation,
effectively
achieving
anisotropic
electrical,
thermal,
and
optical
conduction.
However,
issues
defects
between
each
block,
crystal
homogeneity
constrain
application
ordered
films.
The
precise
control
transdimensional
synthesis
formation
mechanism
from
2D
rarely
reported.
To
meet
this
gap,
we
introduce
an
interfacial-assembly-induced
strategy
successfully
synthesize
quasi-2D
nanofilms
Advanced Electronic Materials,
Journal Year:
2024,
Volume and Issue:
10(12)
Published: Aug. 19, 2024
Abstract
Self‐assembled
nanoparticle
or
nanowire
networks
have
recently
come
under
the
spotlight
as
systems
able
to
emulate
brain‐like
data
processing
performances
by
exploiting
memristive
character
and
wiring
of
junctions
connecting
nanostructured
network
building
blocks.
Recently
it
is
demonstrated
that
Au
films,
fabricated
assembling
gold
clusters
produced
in
gas
phase,
non‐linear
non‐local
electric
conduction
properties
caused
extremely
high
density
grain
boundaries
resulting
complex
arrangement
nanojunctions.
These
observations
suggest
metallic
films
can
be
explored
exploited
a
novel
class
neuromorphic
for
unconventional
electronic
devices.
Here
reported
cluster‐assembled
Pt
show
resistive
switching
activity,
negative
differential
resistance,
reversible
memory
effects.
allow
use
programmable
analog
circuits,
such
gain
amplifiers
relaxation
oscillators
with
fast
response.
Applied Physics Letters,
Journal Year:
2025,
Volume and Issue:
126(18)
Published: May 5, 2025
Recent
advancements
in
artificial
intelligence
have
spurred
growing
interest
developing
innovative
architectures
for
synapses.
Among
these,
nanowires
emerged
as
promising
candidates
creating
lightweight,
flexible,
and
energy-efficient
However,
achieving
in-plane
aligned
growth
of
on
flexible
substrates
poses
a
substantial
challenge
their
integration
into
bendable
This
study
introduces
room-temperature
solution-phase
graphoepitaxial
technique
that
facilitates
the
along
hydrophilic
nanogrooves
polyvinyl
alcohol
films.
scalable
method
obviates
need
complex
vacuum
systems
bypasses
constraints
traditional
lattice-matching
epitaxy
by
leveraging
surface
topography
to
guide
nanowire
alignment.
Devices
incorporating
tri-isopropylsilylethynyl
pentacene
exhibit
wavelength-sensitive
photoresponse
mimic
fundamental
biological
synaptic
behaviors,
including
paired
pulse
facilitation
spike-number-dependent
plasticity.
Furthermore,
these
devices
demonstrate
exceptional
bending
stability,
maintaining
consistent
response
even
after
2000
bends
at
curvature
radius
0.4
cm.
The
approach's
versatility
is
further
highlighted
its
applicability
diverse
organic
arrays.
By
seamlessly
integrating
without
requiring
post-growth
transfer
assembly,
this
approach
simplifies
fabrication
processes
improves
device
durability.
underscores
transformative
potential
efficient
strategy
advancing
conformable
nanowire-based
technologies.