YOLOSAMIC: A Hybrid Approach to Skin Cancer Segmentation with the Segment Anything Model and YOLOv8
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.
Language: Английский
Review of Non-Invasive Imaging Technologies for Cutaneous Melanoma
Luke Horton,
No information about this author
Joseph W. Fakhoury,
No information about this author
Rayyan Manwar
No information about this author
et al.
Biosensors,
Journal Year:
2025,
Volume and Issue:
15(5), P. 297 - 297
Published: May 7, 2025
Imaging
technologies
are
constantly
being
developed
to
improve
not
only
melanoma
diagnosis,
but
also
staging,
treatment
planning,
and
disease
progression.
We
start
with
a
description
of
how
is
characterized
using
histology,
then
continue
by
discussing
nearly
two
dozen
different
technologies,
including
systems
currently
used
in
medical
practice
those
development.
For
each
technology,
we
describe
its
method
operation,
it
or
would
be
projected
most
commonly
diagnosing
managing
melanoma,
for
current
use,
identify
at
least
one
manufacturer.
provide
table
the
biomarkers
identified
main
limitations
associated
technology
conclude
offering
suggestions
on
specific
characteristics
that
might
best
enhance
technology’s
potential
widespread
clinical
adoption.
Language: Английский
Deep Learning for Melanoma Detection: A Deep Learning Approach to Differentiating Malignant Melanoma from Benign Melanocytic Nevi
Cancers,
Journal Year:
2024,
Volume and Issue:
17(1), P. 28 - 28
Published: Dec. 25, 2024
Background/Objectives:
Melanoma,
an
aggressive
form
of
skin
cancer,
accounts
for
a
significant
proportion
skin-cancer-related
deaths
worldwide.
Early
and
accurate
differentiation
between
melanoma
benign
melanocytic
nevi
is
critical
improving
survival
rates
but
remains
challenging
because
diagnostic
variability.
Convolutional
neural
networks
(CNNs)
have
shown
promise
in
automating
detection
with
accuracy
comparable
to
expert
dermatologists.
This
study
evaluates
compares
the
performance
four
CNN
architectures—DenseNet121,
ResNet50V2,
NASNetMobile,
MobileNetV2—for
binary
classification
dermoscopic
images.
Methods:
A
dataset
8825
images
from
DermNet
was
standardized
divided
into
training
(80%),
validation
(10%),
testing
(10%)
subsets.
Image
augmentation
techniques
were
applied
enhance
model
generalizability.
The
architectures
pre-trained
on
ImageNet
customized
classification.
Models
trained
using
Adam
optimizer
evaluated
based
accuracy,
area
under
receiver
operating
characteristic
curve
(AUC-ROC),
inference
time,
size.
statistical
significance
differences
assessed
McNemar’s
test.
Results:
DenseNet121
achieved
highest
(92.30%)
AUC
0.951,
while
ResNet50V2
recorded
(0.957).
MobileNetV2
combined
efficiency
competitive
performance,
achieving
92.19%
smallest
size
(9.89
MB),
fastest
time
(23.46
ms).
despite
its
compact
size,
had
slower
(108.67
ms),
slightly
lower
(90.94%).
Performance
among
models
statistically
(p
<
0.0001).
Conclusions:
demonstrated
superior
provided
most
efficient
solution
deployment
resource-constrained
settings.
CNNs
show
substantial
potential
clinical
mobile
applications.
Language: Английский