The Journal of Physical Chemistry Letters,
Journal Year:
2024,
Volume and Issue:
unknown, P. 12068 - 12075
Published: Nov. 26, 2024
The
rapid
advancement
of
artificial
intelligence
has
driven
the
demand
for
hardware
solutions
neuromorphic
pathways
to
effectively
mimic
biological
functions
human
visual
system.
However,
current
machine
vision
systems
(MVSs)
fail
fully
replicate
retinal
and
lack
ability
update
weights
through
all-optical
pulses.
Here,
by
employing
rational
interface
charge
engineering
via
varying
trapping
layer
thickness
PMMA,
we
determine
that
ferroelectric
polarization
our
neuristors
can
be
flexibly
manipulated
light
or
electrical
This
capability
enables
dynamic
modulation
device's
optoelectronic
characteristics,
facilitating
a
complete
MVS.
As
front-end
sensors,
devices
with
thickest
PMMA
(∼32
nm)
demonstrate
autonomous
adaptation
while
those
thinnest
(∼2
exhibit
bidirectional
photoresponse
characteristics
akin
bipolar
cells.
Furthermore,
as
components
back-end
processor,
conductances
these
moderate
(∼12
updated
linearly
Our
MVS,
constructed
neuristors,
achieved
an
impressive
recognition
accuracy
93%
in
handwritten
digit
tasks
under
extreme
lighting
conditions.
work
offers
effective
strategy
development
energy-efficient
highly
integrated
intelligent
MVSs.
Advanced Science,
Journal Year:
2024,
Volume and Issue:
unknown
Published: July 25, 2024
Binocular
stereo
vision
relies
on
imaging
disparity
between
two
hemispherical
retinas,
which
is
essential
to
acquire
image
information
in
three
dimensional
environment.
Therefore,
retinomorphic
electronics
with
structural
and
functional
similarities
biological
eyes
are
always
highly
desired
develop
perception
system.
In
this
work,
a
optoelectronic
memristor
array
based
Ag-TiO
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 24, 2025
Abstract
Organic
memristors
have
emerged
as
promising
candidates
for
neuromorphic
computing
due
to
their
potential
low‐cost
fabrication,
large‐scale
integration,
and
biomimetic
functionality.
However,
practical
applications
are
often
hindered
by
limited
thermal
stability
device‐to‐device
variability.
Here,
an
organic
polymer‐based
memristor
using
a
thiadiazolobenzotriazole
(TBZ)
2,5‐Dioctyl‐3,6‐di(thiophen‐2‐yl)pyrrolo[3,4‐c]pyrrole‐1,4(2H,5H)‐dione
(DPP)‐based
conjugated
polymer
is
presented
that
exhibits
exceptional
reliable
resistance
switching
behavior
over
wide
temperature
range
(153–573
K).
The
device
leverages
charge‐transfer
mechanism
achieve
gradual
uniform
switching,
overcoming
the
challenges
associated
with
filamentary‐based
mechanisms.
memristor's
consistent
performance
enable
its
integration
into
various
applications,
including
image
processing.
device's
ability
demonstrated
effectively
deblur
images,
even
under
varying
conditions,
showcasing
robust
computing.
This
study
establishes
pathway
toward
high‐performance,
thermally
stable
advanced
artificial
intelligence
applications.
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.
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 25, 2025
The
ongoing
global
energy
crisis
has
heightened
the
demand
for
low-power
electronic
devices,
driving
interest
in
neuromorphic
computing
inspired
by
parallel
processing
of
human
brains
and
efficiency.
Reconfigurable
memristors,
which
integrate
both
volatile
non-volatile
behaviors
within
a
single
unit,
offer
powerful
solution
in-memory
computing,
addressing
von
Neumann
bottleneck
that
limits
conventional
architectures.
These
versatile
devices
combine
high
density,
low
power
consumption,
adaptability
positioning
them
as
superior
alternatives
to
traditional
complementary
metal-oxide-semiconductor
(CMOS)
technology
emulating
brain-like
functions.
Despite
their
potential,
studies
on
reconfigurable
memristors
remain
sparse
are
often
limited
specific
materials
such
Mott
insulators
without
fully
unique
reconfigurability.
This
review
specifically
focuses
examining
dual-mode
operation,
diverse
physical
mechanisms,
structural
designs,
material
properties,
switching
behaviors,
applications.
It
highlights
recent
advancements
low-power-consumption
solutions
memristor-based
neural
networks
critically
evaluates
challenges
deploying
standalone
or
artificial
systems.
provides
in-depth
technical
insights
quantitative
benchmarks
guide
future
development
implementation
computing.
Nanoscale,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Reliable
parylene–PbTe
memristors
controlled
via
electrical
and
optical
stimuli
replicate
key
synaptic
functions
are
applicable
in
neuromorphic
computing
systems.
Advanced Intelligent Systems,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 31, 2025
Data‐intensive
computing
tasks,
such
as
training
neural
networks,
are
fundamental
to
artificial
intelligence
applications
but
often
demand
substantial
energy
resources.
This
study
presents
a
novel
complementary
metal‐oxide‐semiconductor
(CMOS)‐based
memcapacitor
framework
designed
address
these
challenges
by
enabling
efficient
and
robust
neuromorphic
computing.
Utilizing
devices,
crossbar
array
that
performs
parallel
vector‐matrix
multiplication
operations,
validated
through
cadence
simulations
implemented
in
python
for
scalable
accelerator
design,
is
developed.
The
demonstrates
outstanding
performance
across
classification
achieving
98.4%
accuracy
digit
recognition
85.9%
object
recognition.
A
key
aspect
of
this
research
its
focus
on
real‐world
fabrication
nonidealities,
including
up
30%
device
parameter
variations,
ensuring
robustness
reliability
under
practical
deployment
conditions.
results
emphasize
the
effectiveness
capacitance‐based
systems
handling
tasks
while
demonstrating
resilience
fabrication‐induced
variations.
work
establishes
foundation
scalable,
energy‐efficient,
memcapacitor‐based
advancing
potential
intelligent
intelligence‐driven
paving
way
future
innovations
InfoMat,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 12, 2025
Abstract
Artificial
visual
neural
systems
have
emerged
as
promising
candidates
for
overcoming
the
von
Neumann
bottleneck
via
integrating
image
perception,
storage,
and
computation.
Existing
photoelectric
memristors
are
limited
by
need
specific
wavelengths
or
long
input
times
to
maintain
stable
behavior.
Here,
we
introduce
a
benzothiophene‐modified
covalent
organic
framework,
enhancing
response
of
methyl
trinuclear
copper
low‐voltage
(0.2
V)
redox
processes.
The
material
enables
modulation
50
conductive
states
light
electrical
signals,
improving
recognition
accuracy
in
low
light,
dense
fog,
high‐frequency
motion.
ITO/BTT‐Cu
3
/ITO
device's
increases
from
7.1%
with
2
87.1%
after
training.
This
construction
strategy
synergistic
effect
interactions
offer
new
pathway
development
neuromorphic
computing
elements
capable
processing
environmental
information
situ.