Cancer Investigation,
Journal Year:
2024,
Volume and Issue:
42(10), P. 801 - 814
Published: Nov. 10, 2024
Skin
cancer
(SC)
is
one
of
the
three
most
common
cancers
worldwide.
Melanoma
has
deadliest
potential
to
spread
other
parts
body
among
all
SCs.
For
SC
treatments
be
effective,
early
detection
essential.
The
high
degree
similarity
between
tumor
and
non-tumors
makes
diagnosis
difficult
even
for
experienced
doctors.
To
address
this
issue,
authors
have
developed
a
novel
Deep
Learning
(DL)
system
capable
automatically
classifying
skin
lesions
into
seven
groups:
actinic
keratosis
(AKIEC),
melanoma
(MEL),
benign
(BKL),
melanocytic
Nevi
(NV),
basal
cell
carcinoma
(BCC),
dermatofibroma
(DF),
vascular
(VASC)
lesions.
Authors
introduced
Multi-Grained
Enhanced
Cascaded
Forest
(Mg-EDCF)
as
DL
model.
In
model,
first,
researchers
utilized
subsampled
multigrained
scanning
(Mg-sc)
acquire
micro
features.
Second,
employed
two
types
Random
(RF)
create
input
Finally,
(EDCF)
was
classification.
HAM10000
dataset
used
implementing,
training,
evaluating
proposed
Transfer
(TL)
models
such
ResNet,
AlexNet,
VGG16.
During
validation
training
stages,
performance
four
networks
evaluated
by
comparing
their
accuracy
loss.
method
outperformed
competing
with
an
average
score
98.19%.
Our
methodology
validated
against
existing
state-of-the-art
algorithms
from
recent
publications,
resulting
in
consistently
greater
accuracies
than
those
classifiers.
BMC Cancer,
Journal Year:
2025,
Volume and Issue:
25(1)
Published: Jan. 13, 2025
Melanoma
is
a
highly
aggressive
skin
cancer,
where
early
and
accurate
diagnosis
crucial
to
improve
patient
outcomes.
Dermoscopy,
non-invasive
imaging
technique,
aids
in
melanoma
detection
but
can
be
limited
by
subjective
interpretation.
Recently,
machine
learning
deep
techniques
have
shown
promise
enhancing
diagnostic
precision
automating
the
analysis
of
dermoscopy
images.
This
systematic
review
examines
recent
advancements
(ML)
(DL)
applications
for
prognosis
using
We
conducted
thorough
search
across
multiple
databases,
ultimately
reviewing
34
studies
published
between
2016
2024.
The
covers
range
model
architectures,
including
DenseNet
ResNet,
discusses
datasets,
methodologies,
evaluation
metrics
used
validate
performance.
Our
results
highlight
that
certain
such
as
DCNN
demonstrated
outstanding
performance,
achieving
over
95%
accuracy
on
HAM10000,
ISIC
other
datasets
from
provides
insights
into
strengths,
limitations,
future
research
directions
methods
prognosis.
It
emphasizes
challenges
related
data
diversity,
interpretability,
computational
resource
requirements.
underscores
potential
transform
through
improved
efficiency.
Future
should
focus
creating
accessible,
large
interpretability
increase
clinical
applicability.
By
addressing
these
areas,
models
could
play
central
role
advancing
care.
BMC Medical Informatics and Decision Making,
Journal Year:
2025,
Volume and Issue:
25(1)
Published: Jan. 31, 2025
Abstract
This
paper
introduces
SkinWiseNet
(SWNet),
a
deep
convolutional
neural
network
designed
for
the
detection
and
automatic
classification
of
potentially
malignant
skin
cancer
conditions.
SWNet
optimizes
feature
extraction
through
multiple
pathways,
emphasizing
width
augmentation
to
enhance
efficiency.
The
proposed
model
addresses
potential
biases
associated
with
conditions,
particularly
in
individuals
darker
tones
or
excessive
hair,
by
incorporating
fusion
assimilate
insights
from
diverse
datasets.
Extensive
experiments
were
conducted
using
publicly
accessible
datasets
evaluate
SWNet’s
effectiveness.This
study
utilized
four
datasets-Mnist-HAM10000,
ISIC2019,
ISIC2020,
Melanoma
Skin
Cancer-comprising
images
categorized
into
benign
classes.
Explainable
Artificial
Intelligence
(XAI)
techniques,
specifically
Grad-CAM,
employed
interpretability
model’s
decisions.
Comparative
analysis
was
performed
three
pre-existing
learning
networks-EfficientNet,
MobileNet,
Darknet.
results
demonstrate
superiority,
achieving
an
accuracy
99.86%
F1
score
99.95%,
underscoring
its
efficacy
gradient
propagation
capture
across
various
levels.
research
highlights
significant
advancing
classification,
providing
robust
tool
accurate
early
diagnosis.
integration
enhances
mitigates
hair
tones.
outcomes
this
contribute
improved
patient
healthcare
practices,
showcasing
exceptional
capabilities
classification.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Feb. 20, 2025
Skin
cancer
is
widespread
and
can
be
potentially
fatal.
According
to
the
World
Health
Organisation
(WHO),
it
has
been
identified
as
a
leading
cause
of
mortality.
It
essential
detect
skin
early
so
that
effective
treatment
provided
at
an
initial
stage.
In
this
study,
widely-used
HAM10000
dataset,
containing
high-resolution
images
various
lesions,
employed
train
evaluate.
Our
methodology
for
dataset
involves
balancing
imbalanced
by
augmenting
followed
splitting
into
train,
test
validation
set,
preprocessing
images,
training
individual
models
Xception,
InceptionResNetV2
MobileNetV2,
then
combining
their
outputs
using
fuzzy
logic
generate
final
prediction.
We
examined
performance
ensemble
standard
metrics
like
classification
accuracy,
confusion
matrix,
etc.
achieved
impressive
accuracy
95.14%
result
demonstrates
effectiveness
our
approach
in
accurately
identifying
lesions.
To
further
assess
efficiency
model,
additional
tests
have
performed
on
DermaMNIST
from
MedMNISTv2
collection.
The
model
performs
well
transcends
benchmark
76.8%,
achieving
78.25%.
Thus
efficient
classification,
showcasing
its
potential
clinical
applications.
Journal of Machine and Computing,
Journal Year:
2025,
Volume and Issue:
unknown, P. 140 - 153
Published: Jan. 3, 2025
The
rapid
increase
in
population
density
has
posed
significant
challenges
to
medical
sciences
the
auto-detection
of
various
diseases.
Intelligent
systems
play
a
crucial
role
assisting
professionals
with
early
disease
detection
and
providing
consistent
treatment,
ultimately
reducing
mortality
rates.
Skin-related
diseases,
particularly
those
that
can
become
severe
if
not
detected
early,
require
timely
identification
expedite
diagnosis
improve
patient
outcomes.
This
paper
proposes
transfer
learning-based
ensemble
deep
learning
model
for
diagnosing
dermatological
conditions
at
an
stage.
Data
augmentation
techniques
were
employed
number
samples
create
diverse
data
pattern
within
dataset.
study
applied
ResNet50,
InceptionV3,
DenseNet121
models,
leading
development
weighted
average
model.
system
was
trained
tested
using
International
Skin
Imaging
Collaboration
(ISIC)
proposed
demonstrated
superior
performance,
achieving
98.5%
accuracy,
97.50%
Kappa,
97.67%
MCC
(Matthews
Correlation
Coefficient),
98.50%
F1
score.
outperformed
existing
state-of-the-art
models
classification
provides
valuable
support
dermatologists
specialists
detection.
Compared
previous
research,
offers
high
accuracy
lower
computational
complexity,
addressing
challenge
skin-related
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Jan. 7, 2025
Accurate
acne
severity
grading
is
crucial
for
effective
clinical
treatment
and
timely
follow-up
management.
Although
some
artificial
intelligence
methods
have
been
developed
to
automate
the
process
of
grading,
diversity
image
capture
sources
various
application
scenarios
can
affect
their
performance.
Therefore,
it's
necessary
design
special
evaluate
them
systematically
before
introducing
into
practice.
To
develop
a
deep
learning-based
algorithm
that
could
accurately
accomplish
lesion
detection
simultaneously
in
different
healthcare
scenarios.
We
collected
2,157
facial
images
from
two
public
three
self-built
datasets
model
development
evaluation.
An
called
AcneDGNet
was
constructed
with
feature
extraction
module,
module
module.
Its
performance
evaluated
both
online
offline
Experimental
results
on
largest
most
diverse
evaluation
revealed
overall
achieved
accuracies
89.5%
89.8%
For
visits
scenarios,
accuracy
detecting
changing
trends
reached
87.8%,
total
counting
error
1.91
±
3.28
all
lesions.
Additionally,
prospective
demonstrated
not
only
much
more
accurate
than
junior
dermatologists
but
also
comparable
senior
dermatologists.
These
findings
indicated
effectively
assist
patients
diagnosis
management
acne,
Mathematics,
Journal Year:
2025,
Volume and Issue:
13(3), P. 536 - 536
Published: Feb. 6, 2025
This
study
introduces
a
novel
approach
to
modeling
cancer
tumor
dynamics
within
fractional
framework,
emphasizing
the
critical
role
of
net
killing
rate
in
determining
growth
or
decay.
We
explore
generalized
model
where
is
considered
across
three
domains:
time-dependent,
position-dependent,
and
concentration-dependent.
The
primary
objective
derive
an
analytical
solution
for
time-fractional
models
using
Residual
Power
Series
Method
(RPSM),
technique
not
previously
applied
this
conformable
context.
Traditional
methods
solving
fractional-order
differential
face
challenges
such
as
perturbations,
complex
simplifications,
discretization
issues,
restrictive
assumptions.
In
contrast,
RPSM
overcomes
these
limitations
by
offering
robust
that
reduces
both
complexity
computational
effort.
method
provides
exact
solutions
through
convergence
series
reliable
numerical
approximations
when
needed,
making
it
versatile
tool
simulating
models.
Graphical
representations
approximate
illustrate
method’s
effectiveness
applicability.
findings
highlight
RPSM’s
potential
advance
treatment
strategies
providing
more
precise
understanding
work
contributes
theoretical
practical
advancements
research
lays
groundwork
accurate
efficient
dynamics,
ultimately
aiding
development
optimal
strategies.
Diagnostics,
Journal Year:
2025,
Volume and Issue:
15(4), P. 479 - 479
Published: Feb. 16, 2025
Background/Objective:
The
rising
global
incidence
of
skin
cancer
emphasizes
the
urgent
need
for
reliable
and
accurate
diagnostic
tools
to
aid
early
intervention.
This
study
introduces
YOLOSAMIC
(YOLO
SAM
in
Cancer
Imaging),
a
fully
automated
segmentation
framework
that
integrates
YOLOv8
lesion
detection,
Segment
Anything
Model
(SAM)-Box
precise
segmentation.
objective
is
develop
system
handles
complex
characteristics
without
requiring
manual
Methods:
A
hybrid
database
comprising
3463
public
765
private
dermoscopy
images
was
built
enhance
model
generalizability.
employed
localize
lesions
through
bounding
box
while
SAM-Box
refined
process.
trained
evaluated
under
four
scenarios
assess
its
robustness.
Additionally,
an
ablation
examined
impact
grayscale
conversion,
image
blur,
pruning
on
performance.
Results:
demonstrated
high
accuracy,
achieving
Dice
Jaccard
scores
0.9399
0.9112
0.8990
0.8445
dataset.
Conclusions:
proposed
provides
robust,
solution
segmentation,
eliminating
annotation.
Integrating
enhances
precision,
making
it
valuable
decision-support
tool
dermatologists.
Frontiers in Big Data,
Journal Year:
2025,
Volume and Issue:
8
Published: Feb. 19, 2025
Skin
diseases
significantly
impact
individuals'
health
and
mental
wellbeing.
However,
their
classification
remains
challenging
due
to
complex
lesion
characteristics,
overlapping
symptoms,
limited
annotated
datasets.
Traditional
convolutional
neural
networks
(CNNs)
often
struggle
with
generalization,
leading
suboptimal
performance.
To
address
these
challenges,
this
study
proposes
a
Hybrid
Deep
Transfer
Learning
Method
(HDTLM)
that
integrates
DenseNet121
EfficientNetB0
for
improved
skin
disease
prediction.
The
proposed
hybrid
model
leverages
DenseNet121's
dense
connectivity
capturing
intricate
patterns
EfficientNetB0's
computational
efficiency
scalability.
A
dataset
comprising
19
conditions
19,171
images
was
used
training
validation.
evaluated
using
multiple
performance
metrics,
including
accuracy,
precision,
recall,
F1-score.
Additionally,
comparative
analysis
conducted
against
state-of-the-art
models
such
as
DenseNet121,
EfficientNetB0,
VGG19,
MobileNetV2,
AlexNet.
HDTLM
achieved
accuracy
of
98.18%
validation
97.57%.
It
consistently
outperformed
baseline
models,
achieving
precision
0.95,
recall
0.96,
F1-score
an
overall
98.18%.
results
demonstrate
the
model's
superior
ability
generalize
across
diverse
categories.
findings
underscore
effectiveness
in
enhancing
classification,
particularly
scenarios
significant
domain
shifts
labeled
data.
By
integrating
complementary
strengths
provides
robust
scalable
solution
automated
dermatological
diagnostics.