IEEE Journal of Radio Frequency Identification,
Journal Year:
2023,
Volume and Issue:
7, P. 208 - 210
Published: Jan. 1, 2023
The
IEEE
Journal
of
Radio
Frequency
Identification
(JRFID)
hosts
a
Special
Issue
collecting
journal
papers
that
were
presented
at
the
IEEE
International
Conference
on
Digital
Twins
and
Parallel
Intelligence
(DTPI)
2022
Conference
,
held
in
two
simultaneous
venues
opposite
sides
world
October
28-30,
2022.
first
venue
was
Ningbo,
China
second
Boston,
MA,
USA.
Both
featured
talks
recorded
and/or
streamed
to
hybrid
attendees.
With
174
total
submissions,
119
acceptances,
69
articles
accepted
for
RFID,
one
might
say
this
conference
digitally
twinned
successful
result.
Electric Power Components and Systems,
Journal Year:
2023,
Volume and Issue:
52(1), P. 42 - 54
Published: July 24, 2023
Identifying
faults
in
the
photovoltaic
(PV)
arrays
is
very
much
essential
improving
PV
system's
safety
and
reliability.
Solar
operate
with
non-linear
characteristics,
installed
maximum
power
point
trackers
(MPPT's),
blocking
diodes
cause
mismatch
levels.
Line-to-line
line-to-ground
are
identified,
faulted
circuits
isolated
by
means
of
over
current
protection
devices
(OCPD)
ground
fault
(GFPD).
In
order
to
improve
accuracy
detection,
artificial
intelligence
(AI)-based
techniques
like
Fuzzy
inference,
wavelet,
support
vector
machine,
k-nearest
neighbors
used.
The
drawback
AI-based
(1)
requirement
large
dataset
for
effective
identification
also
show
incompatibility
if
there
low
irradiation
(2)
require
a
larger
number
voltage
sensors.
An
experimental
setup
160
W,
4
×
solar
array
having
modules
(SPB)
subjected
different
conditions
(CS),
identified
using
minimum
that
not
detected
conventional
methods
this
proposed
method,
gain
due
around
152%
which
97
W
array.
Energies,
Journal Year:
2023,
Volume and Issue:
16(21), P. 7417 - 7417
Published: Nov. 3, 2023
Photovoltaic
(PV)
fault
detection
is
crucial
because
undetected
PV
faults
can
lead
to
significant
energy
losses,
with
some
cases
experiencing
losses
of
up
10%.
The
efficiency
systems
depends
upon
the
reliable
and
diagnosis
faults.
integration
Artificial
Intelligence
(AI)
techniques
has
been
a
growing
trend
in
addressing
these
issues.
goal
this
systematic
review
offer
comprehensive
overview
recent
advancements
AI-based
methodologies
for
detection,
consolidating
key
findings
from
31
research
papers.
An
initial
pool
142
papers
were
identified,
which
selected
in-depth
following
PRISMA
guidelines.
title,
objective,
methods,
each
paper
analyzed,
focus
on
machine
learning
(ML)
deep
(DL)
approaches.
ML
DL
are
particularly
suitable
their
capacity
process
analyze
large
amounts
data
identify
complex
patterns
anomalies.
This
study
identified
several
AI
used
systems,
ranging
classical
methods
like
k-nearest
neighbor
(KNN)
random
forest
more
advanced
models
such
as
Convolutional
Neural
Networks
(CNNs).
Quantum
circuits
infrared
imagery
also
explored
potential
solutions.
analysis
found
that
models,
general,
outperformed
traditional
accuracy
efficiency.
shows
have
evolved
increasingly
applied
detection.
offers
high
effectiveness.
After
reviewing
studies,
we
proposed
an
Network
(ANN)-based
method
classification.
Remote Sensing,
Journal Year:
2023,
Volume and Issue:
15(5), P. 1277 - 1277
Published: Feb. 25, 2023
The
widespread
adoption
of
green
energy
resources
worldwide,
such
as
photovoltaic
(PV)
systems
to
generate
and
renewable
power,
has
prompted
safety
reliability
concerns.
One
these
concerns
is
fault
diagnostics,
which
needed
manage
the
output
PV
systems.
Severe
faults
make
detecting
challenging
because
drastic
weather
circumstances.
This
research
article
presents
a
novel
deep
stack-based
ensemble
learning
(DSEL)
approach
for
diagnosing
array
faults.
DSEL
compromises
three
deep-learning
models,
namely,
neural
network,
long
short-term
memory,
Bi-directional
base
learners
To
better
analyze
arrays,
we
use
multinomial
logistic
regression
meta-learner
combine
predictions
learners.
study
considers
open
circuits,
short
partial
shading,
bridge,
degradation
faults,
incorporation
MPPT
algorithm.
algorithm
offers
reliable,
precise,
accurate
PV-fault
diagnostics
noiseless
noisy
data.
proposed
quantitatively
examined
compared
eight
prior
machine-learning
deep-learning-based
classification
methodologies
by
using
simulated
dataset.
findings
show
that
outperforms
other
techniques,
achieving
98.62%
accuracy
detection
with
data
94.87%
revealed
retains
strong
generalization
potential
while
enhancing
prediction
accuracy.
Hence,
detects
categorizes
more
efficiently,
reliably,
accurately.
International Transactions on Electrical Energy Systems,
Journal Year:
2025,
Volume and Issue:
2025(1)
Published: Jan. 1, 2025
Recently,
Bangladesh
experienced
a
system
loss
of
11.11%,
leading
to
significant
power
cuts,
largely
due
faults
in
transmission
lines.
This
paper
proposes
the
XGBoost
machine
learning
method
for
classifying
electric
line
faults.
The
study
compares
multiple
approaches,
including
ensemble
methods
(decision
tree,
random
forest,
XGBoost,
CatBoost,
and
LightGBM)
multilayer
perceptron
neural
network
(MLPNN),
under
various
conditions.
is
modeled
using
Simulink
algorithms.
In
IEEE
3‐bus
system,
all
types
achieve
approximately
99%
accuracy
imbalanced
noisy
data
states,
respectively,
except
CatBoost
decision
classification
line,
ground,
ground
faults,
no
fault.
However,
although
gain
accuracy,
assessing
performance
results
indicates
that
model
most
effective
fault
among
tested,
as
it
showed
best
state’s
contributing
development
more
reliable
efficient
detection
methodologies
networks.
IEEE Journal of Photovoltaics,
Journal Year:
2024,
Volume and Issue:
15(2), P. 320 - 331
Published: Sept. 5, 2024
Photovoltaic
(PV)
industries
are
susceptible
to
manufacturing
defects
within
their
solar
cells.
To
accurately
evaluate
the
efficacy
of
PV
modules,
identification
is
imperative.
Conventional
industrial
defect
inspections
predominantly
rely
on
highly
skilled
inspectors
conducting
manual
assessments,
leading
sporadic
and
subjective
outcomes.
Deep-learning-based
fault
detection
in
or
cells
has
emerged
as
a
primary
research
area
due
its
superior
efficiency
applicability.
Hence,
this
study
introduces
SegFormer-based
framework
automate
visual
inspection
process
complete
with
pseudocolorization.
The
proposed
effectively
classifies
into
five
categories:
crack
defects,
front
grid
interconnect
contact
corrosion
bright
disconnect.
Moreover,
comparative
analysis
performed
between
SegFormer
model
state-of-the-art
algorithms,
such
Deeplab
v3,
UNET,
v3+,
PAN,
PSPNet,
feature
pyramid
network
(FPN).
experimental
results
reveal
that
achieves
encouraging
performance,
pixelwise
accuracy
96.24%,
weighted
F1-score
96.22%,
an
unweighted
81.96%,
mean
intersection
over
union
56.54%,
outperforming
other
existing
methods.