Sensors,
Journal Year:
2023,
Volume and Issue:
23(19), P. 8196 - 8196
Published: Sept. 30, 2023
Induction
machines
(IMs)
play
a
critical
role
in
various
industrial
processes
but
are
susceptible
to
degenerative
failures,
such
as
broken
rotor
bars.
Effective
diagnostic
techniques
essential
addressing
these
issues.
In
this
study,
we
propose
the
utilization
of
convolutional
neural
networks
(CNNs)
for
detection
To
accomplish
this,
generated
dataset
comprising
current
samples
versus
angular
position
using
finite
element
method
magnetics
(FEMM)
software
squirrel-cage
with
28
bars,
including
scenarios
0
6
bars
at
every
possible
relative
position.
The
consists
total
16,050
per
motor.
We
evaluated
performance
six
different
CNN
architectures,
namely
Inception
V4,
NasNETMobile,
ResNET152,
SeNET154,
VGG16,
and
VGG19.
Our
automatic
classification
system
demonstrated
an
impressive
99%
accuracy
detecting
VGG19
performing
exceptionally
well.
Specifically,
exhibited
high
accuracy,
precision,
recall,
F1-Score,
values
approaching
0.994
0.998.
Notably,
crucial
activations
its
feature
maps,
particularly
after
domain-specific
training,
highlighting
effectiveness
fault
detection.
Comparing
architectures
assists
selecting
most
suitable
one
application
based
on
processing
time,
effectiveness,
training
losses.
This
research
suggests
that
deep
learning
can
detect
induction
comparable
traditional
methods
by
analyzing
signals
CNNs.
Sensors,
Journal Year:
2021,
Volume and Issue:
21(2), P. 637 - 637
Published: Jan. 18, 2021
Transcranial
magnetic
stimulation
(TMS)
excites
neurons
in
the
cortex,
and
neural
activity
can
be
simultaneously
recorded
using
electroencephalography
(EEG).
However,
TMS-evoked
EEG
potentials
(TEPs)
do
not
only
reflect
transcranial
as
they
contaminated
by
artifacts.
Over
last
two
decades,
significant
developments
amplifiers,
TMS-compatible
technology,
customized
hardware
open
source
software
have
enabled
researchers
to
develop
approaches
which
substantially
reduce
TMS-induced
In
TMS-EEG
experiments,
various
physiological
external
occurrences
been
identified
attempts
made
minimize
or
remove
them
online
techniques.
Despite
these
advances,
technological
issues
methodological
constraints
prevent
straightforward
recordings
of
early
TEPs
components.
To
best
our
knowledge,
there
is
no
review
on
both
artifacts
technologies
literature
to-date.
Our
survey
aims
provide
an
overview
research
studies
this
field
over
40
years.
We
artifacts,
their
sources
waveforms
present
state-of-the-art
front-end
characteristics.
also
propose
a
synchronization
toolbox
for
laboratories.
then
subject
preparation
frameworks
reduction
maneuvers
improving
data
acquisition
conclude
outlining
challenges
future
directions
field.
Neural Networks,
Journal Year:
2022,
Volume and Issue:
156, P. 135 - 151
Published: Sept. 30, 2022
To
develop
an
efficient
brain-computer
interface
(BCI)
system,
electroencephalography
(EEG)
measures
neuronal
activities
in
different
brain
regions
through
electrodes.
Many
EEG-based
motor
imagery
(MI)
studies
do
not
make
full
use
of
network
topology.
In
this
paper,
a
deep
learning
framework
based
on
modified
graph
convolution
neural
(M-GCN)
is
proposed,
which
temporal-frequency
processing
performed
the
data
S-transform
(MST)
to
improve
decoding
performance
original
EEG
signals
types
MI
recognition.
MST
can
be
matched
with
spatial
position
relationship
This
method
fusions
multiple
features
temporal-frequency-spatial
domain
further
recognition
performance.
By
detecting
function
characteristics
each
specific
rhythm,
generated
by
imaginary
movement
effectively
analyzed
obtain
subjects'
intention.
Finally,
patients
spinal
cord
injury
(SCI)
are
used
establish
correlation
matrix
containing
channel
information,
M-GCN
employed
decode
relation
features.
The
proposed
has
better
than
other
existing
methods.
accuracy
classifying
and
identifying
tasks
reach
87.456%.
After
10-fold
cross-validation,
average
rate
87.442%,
verifies
reliability
stability
algorithm.
Furthermore,
provides
effective
rehabilitation
training
for
SCI
partially
restore
function.
Sensors,
Journal Year:
2023,
Volume and Issue:
23(19), P. 8196 - 8196
Published: Sept. 30, 2023
Induction
machines
(IMs)
play
a
critical
role
in
various
industrial
processes
but
are
susceptible
to
degenerative
failures,
such
as
broken
rotor
bars.
Effective
diagnostic
techniques
essential
addressing
these
issues.
In
this
study,
we
propose
the
utilization
of
convolutional
neural
networks
(CNNs)
for
detection
To
accomplish
this,
generated
dataset
comprising
current
samples
versus
angular
position
using
finite
element
method
magnetics
(FEMM)
software
squirrel-cage
with
28
bars,
including
scenarios
0
6
bars
at
every
possible
relative
position.
The
consists
total
16,050
per
motor.
We
evaluated
performance
six
different
CNN
architectures,
namely
Inception
V4,
NasNETMobile,
ResNET152,
SeNET154,
VGG16,
and
VGG19.
Our
automatic
classification
system
demonstrated
an
impressive
99%
accuracy
detecting
VGG19
performing
exceptionally
well.
Specifically,
exhibited
high
accuracy,
precision,
recall,
F1-Score,
values
approaching
0.994
0.998.
Notably,
crucial
activations
its
feature
maps,
particularly
after
domain-specific
training,
highlighting
effectiveness
fault
detection.
Comparing
architectures
assists
selecting
most
suitable
one
application
based
on
processing
time,
effectiveness,
training
losses.
This
research
suggests
that
deep
learning
can
detect
induction
comparable
traditional
methods
by
analyzing
signals
CNNs.