Middle East Journal of Science,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 18, 2024
This
study
investigates
the
effectiveness
of
MobileNetV2
transfer
learning
method
and
a
deep
based
Convolutional
Neural
Network
(CNN)
model
in
categorization
malignant
benign
skin
lesions
cancer
diagnosis.
Since
is
disease
that
can
be
cured
with
early
detection
but
fatal
if
delayed,
accurate
diagnosis
great
importance.
The
was
trained
architecture
performed
classification
task
high
accuracy
on
images
lesions.
Metrics
such
as
accuracy,
recall,
precision
F1
score
obtained
during
training
validation
processes
support
performance
model.
92.97%,
Recall
92.71%,
Precision
94.70%
93.47%.
results
show
CNN-based
reliable
effective
tool
for
diagnosis,
small
fluctuations
phase
require
further
data
hyperparameter
optimization
to
improve
generalization
ability
demonstrates
models
enhanced
offer
powerful
solution
medical
image
problems
have
potential
contribute
development
systems
healthcare
field.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Jan. 7, 2025
In
the
present
scenario,
cancerous
tumours
are
common
in
humans
due
to
major
changes
nearby
environments.
Skin
cancer
is
a
considerable
disease
detected
among
people.
This
uncontrolled
evolution
of
atypical
skin
cells.
It
occurs
when
DNA
injury
cells,
or
genetic
defect,
leads
an
increase
quickly
and
establishes
malignant
tumors.
However,
rare
instances,
many
types
occur
from
tempted
by
infrared
light
affecting
worldwide
health
problem,
so
accurate
appropriate
diagnosis
needed
for
efficient
treatment.
Current
developments
medical
technology,
like
smart
recognition
analysis
utilizing
machine
learning
(ML)
deep
(DL)
techniques,
have
transformed
treatment
these
conditions.
These
approaches
will
be
highly
effective
biomedical
imaging.
study
develops
Multi-scale
Feature
Fusion
Deep
Convolutional
Neural
Networks
on
Cancerous
Tumor
Detection
Classification
(MFFDCNN-CTDC)
model.
The
main
aim
MFFDCNN-CTDC
model
detect
classify
using
To
eliminate
unwanted
noise,
method
initially
utilizes
sobel
filter
(SF)
image
preprocessing
stage.
For
segmentation
process,
Unet3+
employed,
providing
precise
localization
tumour
regions.
Next,
incorporates
multi-scale
feature
fusion
combining
ResNet50
EfficientNet
architectures,
capitalizing
their
complementary
strengths
extraction
varying
depths
scales
input
images.
convolutional
autoencoder
(CAE)
utilized
classification
method.
Finally,
parameter
tuning
process
performed
through
hybrid
fireworks
whale
optimization
algorithm
(FWWOA)
enhance
performance
CAE
A
wide
range
experiments
authorize
approach.
experimental
validation
approach
exhibited
superior
accuracy
value
98.78%
99.02%
over
existing
techniques
under
ISIC
2017
HAM10000
datasets.
Engineering Technology & Applied Science Research,
Journal Year:
2024,
Volume and Issue:
14(1), P. 12734 - 12739
Published: Feb. 8, 2024
The
application
of
Computer
Vision
(CV)
and
image
processing
in
the
medical
sector
is
great
significance,
especially
recognition
skin
cancer
using
dermoscopic
images.
Dermoscopy
denotes
a
non-invasive
imaging
system
that
offers
clear
visuals
cancers,
allowing
dermatologists
to
analyze
identify
various
features
crucial
for
lesion
assessment.
Over
past
few
years,
there
has
been
an
increasing
fascination
with
Deep
Learning
(DL)
applications
recognition,
particular
focus
on
impressive
results
achieved
by
Neural
Networks
(DNNs).
DL
approaches,
predominantly
CNNs,
have
exhibited
immense
potential
automating
classification
detection
cancers.
This
study
presents
Automated
Skin
Cancer
Detection
Classification
method
Cat
Swarm
Optimization
(ASCDC-CSODL).
main
objective
ASCDC-CSODL
enforce
model
recognize
classify
tumors
In
ASCDC-CSODL,
Bilateral
Filtering
(BF)
applied
noise
elimination
U-Net
employed
segmentation
process.
Moreover,
exploits
MobileNet
feature
extraction
Gated
Recurrent
Unit
(GRU)
approach
used
cancer.
Finally,
CSO
algorithm
alters
hyperparameter
values
GRU.
A
wide-ranging
simulation
was
performed
evaluate
performance
model,
demonstrating
significantly
improved
over
other
approaches.
Diagnostics,
Journal Year:
2024,
Volume and Issue:
14(4), P. 454 - 454
Published: Feb. 19, 2024
In
recent
years,
there
has
been
growing
interest
in
the
use
of
computer-assisted
technology
for
early
detection
skin
cancer
through
analysis
dermatoscopic
images.
However,
accuracy
illustrated
behind
state-of-the-art
approaches
depends
on
several
factors,
such
as
quality
images
and
interpretation
results
by
medical
experts.
This
systematic
review
aims
to
critically
assess
efficacy
challenges
this
research
field
order
explain
usability
limitations
highlight
potential
future
lines
work
scientific
clinical
community.
study,
was
carried
out
over
45
contemporary
studies
extracted
from
databases
Web
Science
Scopus.
Several
computer
vision
techniques
related
image
video
processing
diagnosis
were
identified.
context,
focus
process
included
algorithms
employed,
result
accuracy,
validation
metrics.
Thus,
yielded
significant
advancements
using
deep
learning
machine
algorithms.
Lastly,
establishes
a
foundation
research,
highlighting
contributions
opportunities
improve
effectiveness
learning.
Technology and Health Care,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 2, 2025
Among
the
many
cancers
that
people
face
today,
skin
cancer
is
among
deadliest
and
most
dangerous.
As
a
result,
improving
patients’
chances
of
survival
requires
to
be
identified
classified
early.
Therefore,
it
critical
assist
radiologists
in
detecting
through
development
Computer
Aided
Diagnosis
(CAD)
techniques.
The
diagnostic
procedure
currently
makes
heavy
use
Deep
Learning
(DL)
techniques
for
disease
identification.
In
addition,
lesion
extraction
improved
classification
performance
are
achieved
Region
Growing
(RG)
based
segmentation.
At
outset
this
study,
noise
reduced
using
an
Adaptive
Wiener
Filter
(AWF),
hair
removed
Maximum
Gradient
Intensity
(MGI).
Then,
best
RG,
which
result
integrating
RG
with
Modified
Honey
Badger
Optimiser
(MHBO),
does
Finally,
several
forms
DL
model
MobileSkinNetV2.
experiments
were
conducted
on
ISIC
dataset
results
show
accuracy
precision
99.01%
98.6%,
respectively.
comparison
existing
models,
experimental
proposed
performs
competitively,
great
news
dermatologists
treating
cancer.
Bioengineering,
Journal Year:
2025,
Volume and Issue:
12(3), P. 282 - 282
Published: March 12, 2025
The
rising
prevalence
of
skin
lesions
places
a
heavy
burden
on
global
health
resources
and
necessitates
an
early
precise
diagnosis
for
successful
treatment.
diagnostic
potential
recent
multi-modal
lesion
detection
algorithms
is
limited
because
they
ignore
dynamic
interactions
information
sharing
across
modalities
at
various
feature
scales.
To
address
this,
we
propose
deep
learning
framework,
Multi-Modal
Skin-Imaging-based
Information-Switching
Network
(MDSIS-Net),
end-to-end
recognition.
MDSIS-Net
extracts
intra-modality
features
using
transfer
in
multi-scale
fully
shared
convolutional
neural
network
introduces
innovative
information-switching
module.
A
cross-attention
mechanism
dynamically
calibrates
integrates
to
improve
inter-modality
associations
representation
this
tested
clinical
disfiguring
dermatosis
data
the
public
Derm7pt
melanoma
dataset.
Visually
Intelligent
System
Image
Analysis
(VISIA)
captures
five
modalities:
spots,
red
marks,
ultraviolet
(UV)
porphyrins,
brown
spots
dermatosis.
model
performs
better
than
existing
approaches
with
mAP
0.967,
accuracy
0.960,
precision
0.935,
recall
f1-score
0.947.
Using
dermoscopic
pictures
from
dataset,
outperforms
current
benchmarks
melanoma,
0.877,
0.907,
0.911,
0.815,
0.851.
model’s
interpretability
proven
by
Grad-CAM
heatmaps
correlating
focus
areas.
In
conclusion,
our
enhances
identification
capturing
relationship
fine-grained
details
images,
improving
both
interpretability.
This
work
advances
decision
making
lays
foundation
future
developments
Deleted Journal,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 1, 2024
The
increasing
prevalence
of
skin
diseases
necessitates
accurate
and
efficient
diagnostic
tools.
This
research
introduces
a
novel
disease
classification
model
leveraging
advanced
deep
learning
techniques.
proposed
architecture
combines
the
MobileNet-V2
backbone,
Squeeze-and-Excitation
(SE)
blocks,
Atrous
Spatial
Pyramid
Pooling
(ASPP),
Channel
Attention
Mechanism.
was
trained
on
four
diverse
datasets
such
as
PH2
dataset,
Skin
Cancer
MNIST:
HAM10000
DermNet.
ISIC
dataset.
Data
preprocessing
techniques,
including
image
resizing,
normalization,
played
crucial
role
in
optimizing
performance.
In
this
paper,
backbone
is
implemented
to
extract
hierarchical
features
from
preprocessed
dermoscopic
images.
multi-scale
contextual
information
fused
by
ASPP
for
generating
feature
map.
attention
mechanisms
contributed
significantly,
enhancing
extraction
ability
inter-channel
relationships
discriminative
power
features.
Finally,
output
map
converted
into
probability
distribution
through
softmax
function.
outperformed
several
baseline
models,
traditional
machine
approaches,
emphasizing
its
superiority
with
98.6%
overall
accuracy.
Its
competitive
performance
state-of-the-art
methods
positions
it
valuable
tool
assisting
dermatologists
early
classification.
study
also
identified
limitations
suggested
avenues
future
research,
model's
potential
practical
implementation
field
dermatology.