International Journal of Computational Methods and Experimental Measurements,
Journal Year:
2024,
Volume and Issue:
12(2), P. 135 - 146
Published: June 30, 2024
This
paper
explores
the
field
of
FPGA
implementation
and
emulation
memristor
devices,
providing
insights
into
advancements,
challenges,
future
directions.The
discusses
various
techniques
used
for
FPGA-based
emulation,
emphasizing
importance
accurate
modeling
performance
evaluation.It
identifies
challenges
in
field,
including
improving
accuracy,
scalability,
real-time
adaptation,
standardization,
integration
with
design
tools,
exploring
novel
applications.Additionally,
results
study
show
that
FPGAs
are
one
viable
solutions
emulating
memristors.The
concludes
based
holds
a
promise
studying
memristor-based
circuits
systems,
potential
applications
neuromorphic
computing,
machine
learning
accelerators,
analog/mixed-signal
circuit
design.
The Journal of Physical Chemistry Letters,
Journal Year:
2023,
Volume and Issue:
14(32), P. 7173 - 7192
Published: Aug. 4, 2023
Neuromorphic
computing
could
enable
the
potential
to
break
inherent
limitations
of
conventional
von
Neumann
architectures,
which
has
led
widespread
research
interest
in
developing
novel
neuromorphic
memory
devices,
such
as
memristors
and
bioinspired
artificial
synaptic
devices.
Covalent
organic
frameworks
(COFs),
crystalline
porous
polymers,
have
tailorable
skeletons
pores,
providing
unique
platforms
for
interplay
with
photons,
excitons,
electrons,
holes,
ions,
spins,
molecules.
Such
features
encourage
rising
COF
materials
electronics.
To
develop
high-performance
COF-based
it
is
necessary
comprehensively
understand
materials,
applications.
Therefore,
this
Perspective
focuses
on
discussing
use
devices
terms
molecular
design,
thin-film
processing,
Finally,
we
provide
an
outlook
future
directions
applications
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(25), P. 16236 - 16247
Published: June 13, 2024
Retina-inspired
visual
sensors
play
a
crucial
role
in
the
realization
of
neuromorphic
systems.
Nevertheless,
significant
obstacles
persist
pursuit
achieving
bidirectional
synaptic
behavior
and
attaining
high
performance
context
photostimulation.
In
this
study,
we
propose
reconfigurable
all-optical
controlled
device
based
on
IGZO/SnO/SnS
heterostructure,
which
integrates
sensing,
storage
processing
functions.
Relying
simple
heterojunction
stack
structure
energy
band
engineering,
excitatory
inhibitory
behaviors
can
be
observed
under
light
stimulation
ultraviolet
(266
nm)
visible
(405,
520
658
without
additional
voltage
modulation.
particular,
junction
field-effect
transistors
heterostructure
were
fabricated
to
elucidate
underlying
photoresponse
mechanism.
addition
optical
signal
processing,
an
artificial
neural
network
simulator
optoelectrical
synapse
was
trained
recognized
handwritten
numerals
with
recognition
rate
91%.
Furthermore,
prepared
8
×
array
successfully
demonstrated
process
perception
memory
for
image
human
brain,
as
well
simulated
situation
damage
retina
by
light.
This
work
provides
effective
strategy
development
high-performance
optoelectronic
synapses
practical
approach
design
multifunctional
vision
npj 2D Materials and Applications,
Journal Year:
2024,
Volume and Issue:
8(1)
Published: March 27, 2024
Abstract
In-memory
computing
technology
built
on
2D
material-based
nonvolatile
resistive
switches
(aka
memristors)
has
made
great
progress
in
recent
years.
It
however
been
debated
whether
such
remarkable
switching
is
an
inherent
property
of
the
materials
or
if
metal
electrode
plays
any
role?
Can
atoms
penetrate
through
crystalline
to
form
conductive
filaments
as
observed
amorphous
oxide-based
memristors?
To
find
answers,
here
we
investigate
MoS
2
and
h-BN-based
devices
with
electrochemically
passive
active
(metal)
electrodes
using
reactive
molecular
dynamics
a
charge
equilibration
approach.
We
that
SET
RESET
processes
electrode-based
multilayer
involve
formation
disruption
linking
two
exclusively
grain
boundaries,
configuration
which
affects
volatility
switching.
Whereas
mechanisms
require
interlayer
B-N
bonds
popping
S
atom
Mo
plane
at
point
defects.
also
show
adsorption
defects
causes
monolayer
.
Our
atomic-level
understanding
provides
explanations
apparently
contradictory
experimental
findings
enables
defect-engineering
guidelines
for
disruptive
technology.
Chip,
Journal Year:
2024,
Volume and Issue:
3(2), P. 100093 - 100093
Published: April 6, 2024
Inspired
by
the
structure
and
principles
of
human
brain,
spike
neural
networks
(SNNs)
appear
as
latest
generation
artificial
networks,
attracting
significant
universal
attention
due
to
their
remarkable
low-energy
transmission
pulse
powerful
capability
for
large-scale
parallel
computation.
Current
researches
on
gradually
change
from
software
simulation
into
hardware
implementation.
However,
such
a
process
is
fraught
with
challenges.
In
particular,
memristors
are
highly
anticipated
candidate
considering
fast-programming
speed,
low
power
consumption,
compatibility
CMOS
technology.
this
review,
we
start
basic
SNNs,
then
introduce
memristor-based
technologies
implementation
further
discuss
feasibility
integrating
customized
algorithm
optimization
promote
efficient
energy-saving
SNN
systems.
Finally,
based
existing
memristor
technology,
summarize
current
problems
challenges
in
field.
ACS Applied Electronic Materials,
Journal Year:
2024,
Volume and Issue:
6(3), P. 1581 - 1589
Published: March 11, 2024
Resistive
random-access
memory
(RRAM)
is
one
of
the
most
promising
candidates
for
next-generation
nanoscale
nonvolatile
devices
and
neuromorphic
computing
applications.
In
this
study,
we
developed
a
novel
mixed-dimensional
design
RRAM
devices,
incorporating
zero-dimensional
quantum
dots
(QDs),
two-dimensional
MoS2,
TiO2
switching
layer
to
achieve
prominent
interfacial
behaviors.
Compared
with
typical
filamentary
proposed
heterostructure
featured
light-sensitive
QDs/MoS2
that
allowed
bias-controllable
resistive
changes
during
set
reset
processes
without
abrupt
switching.
This
was
endowed
by
effective
electron–hole
pair
separations
upon
excitation
generation
thin
molybdenum
oxide
(MoOx)
due
accumulation
oxygen
ions
at
interface
between
MoS2
TiO2.
The
ITO/QDs/MoS2/TiO2/Pt
device
exhibited
an
on/off
ratio
10
improved
endurance
under
515
nm
laser
illumination
wavelength-dependent
behavior,
making
it
useful
multilevel
storage.
Furthermore,
heterostructured
demonstrated
synaptic
characteristics
enhanced
potentiation
depression
nonlinearities
asymmetry
factors,
revealing
its
potential
future
Chemical Reviews,
Journal Year:
2024,
Volume and Issue:
124(16), P. 9733 - 9784
Published: July 22, 2024
Neuromorphic
computing
and
artificial
intelligence
hardware
generally
aims
to
emulate
features
found
in
biological
neural
circuit
components
enable
the
development
of
energy-efficient
machines.
In
brain,
ionic
currents
temporal
concentration
gradients
control
information
flow
storage.
It
is
therefore
interest
examine
materials
devices
for
neuromorphic
wherein
electronic
can
propagate.
Protons
being
mobile
under
an
external
electric
field
offers
a
compelling
avenue
facilitating
functionalities
synapses
neurons.
this
review,
we
first
highlight
interesting
analog
protons
as
neurotransmitters
various
animals.
We
then
discuss
experimental
approaches
mechanisms
proton
doping
classes
inorganic
organic
proton-conducting
advancement
architectures.
Since
hydrogen
among
lightest
elements,
characterization
solid
matrix
requires
advanced
techniques.
review
powerful
synchrotron-based
spectroscopic
techniques
characterizing
well
complementary
scattering
detect
hydrogen.
First-principles
calculations
are
discussed
they
help
provide
understanding
migration
structure
modification.
Outstanding
scientific
challenges
further
our
its
use
emerging
electronics
pointed
out.
PLoS ONE,
Journal Year:
2025,
Volume and Issue:
20(1), P. e0318009 - e0318009
Published: Jan. 27, 2025
Artificial
neurons
with
bio-inspired
firing
patterns
have
the
potential
to
significantly
improve
performance
of
neural
network
computing.
The
most
significant
component
an
artificial
neuron
circuit
is
a
large
amount
energy
consumption.
Recent
literature
has
proposed
memristors
as
promising
option
for
synaptic
implementation.
In
contrast,
implementing
memristive
circuitry
through
hardware
presents
challenges
and
relevant
research
topic.
This
paper
describes
efficient
circuit-level
mixed
CMOS
memristor
synapse
model.
From
this
perspective,
design
in
standard
technology
low
power
utilization.
response
modified
version
Morris-Lecar
theoretical
suggested
employs
memristor-based
Dual
Transistor
Memristor
(DTDM)
circuit.
produces
high
spiking
frequency
According
our
research,
Morris
Lecar
(ML)
DTDM
consumes
12.55
pW
power,
22.72
kHz,
2.13
fJ
per
spike.
simulations
were
carried
out
using
Spectre
tool
45
nm
technology.