Conventional
logic
operations
transmitting
data
between
processing
and
the
memory
unit
inevitably
result
in
a
"memory
wall"
energy
consumption
dilemmas.
The
memristor
provides
an
alternative
solution
at
device
level
by
integrating
functions,
however,
combination
of
multistage
memristors
is
required
to
achieve
fundamental
Boolean
calculations,
especially
for
XOR/XNOR.
In
this
work,
we
implement
XOR/XNOR
through
leveraging
bifunctional
oxygen-containing
Ti
thin
films
as
both
current
collectors
Li-reservoirs
two-terminal
Li-based
memristor,
i.e.,
ITO/Nb2O5/LiCoO2/Ti.
When
Li-ions
are
inserted
into
under
reversed
voltage
partially
reduce
high-valence
Ti,
subsequent
postsynaptic
exceeds
threshold,
thereby
realizing
operations.
Therefore,
entire
seven
can
be
achieved
individual
device,
featuring
biological-like
synaptic
plasticity
without
redundant
circuit
design.
Through
electrochemical
modulation
pulse
parameters,
artificial
synapse
demonstrates
versatile
types
short-term
potentiation,
encompassing
pair-pulse
facilitation,
spike-voltage-dependent
plasticity,
spike-rate-dependent-plasticity
(SRDP).
SRDP
displays
properties
analogous
high-pass
filter
discernible
distinction
response
within
beyond
frequency
1
Hz.
Furthermore,
Physiological
functions
Ebbinghaus'
curves
Pavlov's
classical
conditioning
experiment
emulated
on
single
based
principles
long-term
potentiation.
Journal of Semiconductors,
Journal Year:
2025,
Volume and Issue:
46(1), P. 012602 - 012602
Published: Jan. 1, 2025
Abstract
Artificial
skin
should
embody
a
softly
functional
film
that
is
capable
of
self-powering,
healing
and
sensing
with
neuromorphic
processing.
However,
the
pursuit
bionic
combines
high
flexibility,
self-healability,
zero-powered
photosynaptic
functionality
remains
elusive.
In
this
study,
we
report
self-powered
self-healable
vision
skin,
featuring
silver
nanoparticle-doped
ionogel
heterostructure
as
photoacceptor.
The
localized
surface
plasmon
resonance
induced
by
light
in
nanoparticles
triggers
temperature
fluctuations
within
heterojunction,
facilitating
ion
migration
for
visual
synaptic
behaviors.
abundant
reversible
hydrogen
bonds
endow
remarkable
mechanical
flexibility
self-healing
properties.
We
assembled
equipped
5
×
photosynapse
array,
memorizing
diverse
patterns.
Journal of Semiconductors,
Journal Year:
2025,
Volume and Issue:
46(2), P. 021403 - 021403
Published: Feb. 1, 2025
Abstract
To
address
the
increasing
demand
for
massive
data
storage
and
processing,
brain-inspired
neuromorphic
computing
systems
based
on
artificial
synaptic
devices
have
been
actively
developed
in
recent
years.
Among
various
materials
investigated
fabrication
of
devices,
silicon
carbide
(SiC)
has
emerged
as
a
preferred
choices
due
to
its
high
electron
mobility,
superior
thermal
conductivity,
excellent
stability,
which
exhibits
promising
potential
applications
harsh
environments.
In
this
review,
progress
SiC-based
is
summarized.
Firstly,
an
in-depth
discussion
conducted
regarding
categories,
working
mechanisms,
structural
designs
these
devices.
Subsequently,
several
application
scenarios
are
presented.
Finally,
few
perspectives
directions
their
future
development
outlined.
Micromachines,
Journal Year:
2025,
Volume and Issue:
16(2), P. 118 - 118
Published: Jan. 21, 2025
Metal
oxide
semiconductors,
such
as
indium
gallium
zinc
(IGZO),
have
attracted
significant
attention
from
researchers
in
the
fields
of
liquid
crystal
displays
(LCDs)
and
organic
light-emitting
diodes
(OLEDs)
for
decades.
This
interest
is
driven
by
their
high
electron
mobility
over
~10
cm2/V·s
excellent
transmittance
more
than
~80%.
Amorphous
IGZO
(a-IGZO)
offers
additional
advantages,
including
compatibility
with
various
processes
flexibility
making
it
suitable
applications
flexible
wearable
devices.
Furthermore,
IGZO-based
thin-film
transistors
(TFTs)
exhibit
uniformity
high-speed
switching
behavior,
resulting
low
power
consumption
due
to
leakage
current.
These
advantages
position
not
only
a
key
material
display
technologies
but
also
candidate
next-generation
electronic
review
paper
provides
comprehensive
overview
electronics,
gas
sensors,
biosensors,
photosensors.
Additionally,
emphasizes
potential
implementing
logic
gates.
Finally,
discusses
neuromorphic
devices
promise
overcoming
limitations
conventional
von
Neumann
computing
architecture.
Materials Horizons,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Coordination
bonds
between
molecular
entities
and
the
surface
of
inorganic
nanoparticles
are
an
efficient
tool
to
tune
both
structural
morphology
photoelectrical
properties
nanostructured
hybrid
materials.
Chinese Journal of Chemistry,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 14, 2025
Comprehensive
Summary
This
study
highlights
the
innovative
use
of
increased
rare
earth
elements
to
enhance
dielectric
properties
materials
and
devices.
The
AlOC‐129Ln
series,
features
highest
number
dopants
in
aluminum
oxo
clusters
date.
trivalent
ions
impart
a
high
dipole
moment,
significantly
elevating
constant
(
k
)
doped
polymer
films.
AlOC‐129Ce,
particular,
exhibits
largest
molecular
size,
which
enhances
interfacial
effects
achieves
relative
four
times
greater
than
that
undoped
polymers
1.5
higher
those
with
single
dopants.
substantial
size
(~2.5
nm)
robust
charge
scattering
trapping
capabilities
reduce
loss
by
up
50%
at
frequencies.
Additionally,
its
excellent
solution
processability
breakdown
strength
147%,
ensuring
superior
electrical
stability.
research
demonstrates
versatility
cluster
doping
strategy
effectively
balancing
loss,
unveiling
promising
potential
solution‐processable
electronic
International Materials Reviews,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 3, 2025
Memristors,
or
memristive
devices,
have
gained
substantial
attention
as
valuable
building
blocks
for
neuromorphic
computing
systems.
Their
dynamic
reconfiguration
enables
simulation
of
essential
analog
synaptic
and
neuronal
functionalities,
making
them
promising
candidates
brain-inspired
neural
network
computing.
In
recent
years,
conventional
thin
film
materials
low-dimensional
nanomaterials
been
extensively
explored
in
devices
the
development
applications.
Despite
progress
several
technical
challenges
persist,
such
device-to-device
uniformity
high
device
density
integration,
requiring
further
improvement
at
single
system
level
integration.
Interface
engineering,
through
careful
design
physical
chemical
nature
interface
two-terminal
structure,
emerges
a
method
to
address
these
challenges.
This
review
highlights
utilization
engineering
techniques
optimize
behavior,
covering
both
including
0D
quantum
dots
nanoparticles,
1D
nanowire/nanotube,
2D
materials,
heterostructures
nanoscale
materials.
Two
main
classes
mechanisms
involved
specifically,
electronic
ionic
modulating
are
described
detail.
Recent
advancements
optical
artificial
functionalities
integration
also
reviewed.
concludes
with
remaining
how
would
be
addressing
issues.
comprehensive
serves
guide
atomic-scale
research,
while
emphasizing
broader
potential
kinetics
enabling
various
exciting
physiochemical
properties
reconfigurable
functionalities.
Applied Physics Letters,
Journal Year:
2025,
Volume and Issue:
126(13)
Published: March 1, 2025
The
spectral
recognition
is
key
for
efficient
machine
vision
to
obtain
high
imaging
quality
of
color
target
objects.
However,
the
bidirectional
response
within
a
single
band
sensors
still
challenging
in-site
recognize
objects
from
multi-spectral
context.
Here,
inspired
by
avian
eyes,
we
propose
tetrachromatic-bidirectional
synaptic
transistor
based
on
WOx/WSe2
heterojunctions
with
ultraviolet
(UV)-photoactive
floating
gate
CdS
and
realize
bio-avian
enhanced
image
improved
under
background.
positive-synaptic
responses
are
exhibited
visible
wavelength
while
negative
UV
band.
Moreover,
bionic-kestrel
behaviors
exhibited,
such
as
object
images
accuracy
58%
93.1%
due
contribution
response.
This
work
provides
an
effective
neuromorphic
feature
signatures
contexts.
Applied Physics Letters,
Journal Year:
2025,
Volume and Issue:
126(17)
Published: April 28, 2025
Emerging
optoelectronic
synaptic
devices
based
on
two-dimensional
(2D)
materials
are
extremely
attractive
in
the
field
of
artificial
intelligence.
However,
most
reports,
these
either
have
single
functions
and
high
energy
consumption.
Based
photoinduced
ferroelectric
polarization
reversal
(CuInP2S6)
synergistic
defect
engineering
(MoS2),
we
propose
a
2D
CuInP2S6–MoS2
two-terminal
synapse
device,
which
has
simple
structure
wide
spectral
photovoltaic
response
ultralow
power
consumption,
as
low
0.03
fJ
under
electric
pulse
stimulation
0.5
light
stimulation.
Most
importantly,
complex
bionic
behaviors,
including
acquisition,
extinction,
recovery,
generalization,
were
mimicked
by
electrical
stimulation,
respectively.
Therefore,
this
efficient
device
can
provide
scientific
perspective
for
future
synapses