Cancers,
Journal Year:
2024,
Volume and Issue:
16(3), P. 629 - 629
Published: Feb. 1, 2024
The
objective
of
this
study
is
to
systematically
analyze
the
current
state
literature
regarding
novel
artificial
intelligence
(AI)
machine
learning
models
utilized
in
non-invasive
imaging
for
early
detection
nonmelanoma
skin
cancers.
Furthermore,
we
aimed
assess
their
potential
clinical
relevance
by
evaluating
accuracy,
sensitivity,
and
specificity
each
algorithm
assessing
risk
bias.
Two
reviewers
screened
MEDLINE,
Cochrane,
PubMed,
Embase
databases
peer-reviewed
studies
that
focused
on
AI-based
cancer
classification
involving
cancers
were
published
between
2018
2023.
search
terms
included
neoplasms,
nonmelanoma,
basal-cell
carcinoma,
squamous-cell
diagnostic
techniques
procedures,
intelligence,
algorithms,
computer
systems,
dermoscopy,
reflectance
confocal
microscopy,
optical
coherence
tomography.
Based
results,
only
directly
answered
review
objectives
efficacy
measures
recorded.
A
QUADAS-2
assessment
bias
was
then
conducted.
total
44
our
review;
40
utilizing
3
using
microscopy
(RCM),
1
hyperspectral
epidermal
(HEI).
average
accuracy
AI
algorithms
applied
all
modalities
combined
86.80%,
with
same
dermoscopy.
Only
one
three
applying
RCM
measured
a
result
87%.
Accuracy
not
regard
based
HEI
interpretation.
exhibited
an
overall
favorable
performance
diagnosis
via
noninvasive
techniques.
Ultimately,
further
research
needed
isolate
pooled
as
many
testing
datasets
also
include
melanoma
other
pigmented
lesions.
Diagnostics,
Journal Year:
2023,
Volume and Issue:
13(23), P. 3506 - 3506
Published: Nov. 22, 2023
Objective:
Skin
diseases
constitute
a
widespread
health
concern,
and
the
application
of
machine
learning
deep
algorithms
has
been
instrumental
in
improving
diagnostic
accuracy
treatment
effectiveness.
This
paper
aims
to
provide
comprehensive
review
existing
research
on
utilization
field
skin
disease
diagnosis,
with
particular
focus
recent
widely
used
methods
learning.
The
present
challenges
constraints
were
also
analyzed
possible
solutions
proposed.
Methods:
We
collected
works
from
literature,
sourced
distinguished
databases
including
IEEE,
Springer,
Web
Science,
PubMed,
emphasis
most
5-year
advancements.
From
extensive
corpus
available
research,
twenty-nine
articles
relevant
segmentation
dermatological
images
forty-five
about
classification
incorporated
into
this
review.
These
systematically
categorized
two
classes
based
computational
utilized:
traditional
algorithms.
An
in-depth
comparative
analysis
was
carried
out,
employed
methodologies
their
corresponding
outcomes.
Conclusions:
Present
outcomes
highlight
enhanced
effectiveness
over
techniques
diagnosis.
Nevertheless,
there
remains
significant
scope
for
improvement,
especially
associated
availability
diverse
datasets,
generalizability
models,
interpretability
models
continue
be
pressing
issues.
Moreover,
future
should
appropriately
shifted.
A
amount
is
primarily
focused
melanoma,
consequently
need
broaden
pigmented
dermatology
future.
insights
not
only
emphasize
potential
diagnosis
but
directions
that
on.
Skin
cancer
is
a
fatal
disease
that
has
become
the
leading
cause
of
death
worldwide
in
recent
years,
although
it
curable
if
diagnosed
early.
Early
skin
detection
significantly
improves
patients'
chances
survival
and
reduces
mortality.
In
this
research,
we
conduct
experiments
on
high
imbalance
dermoscopic
ISIC
2020
dataset.
The
primary
objective
study
to
develop
shallow
CNN
architecture
complete
classification
task
effectively,
requiring
fewer
computational
resources
without
compromising
accuracy.
We
have
used
pre-processing
techniques
remove
image
noise
truncation
augmentation
balance
dataset
before
fitting
into
model.
Multiple
performance
measurement
metrics
were
utilized
establish
overall
performance.
Our
proposed
model
yields
remarkable
test
accuracy
98.81%.
compare
our
models'
with
different
transfer
learning
(TL)
models
assess
faster
convergence
rate.
demonstrated
its
robustness
by
outperforming
other
TL
terms
within
short
processing
time.
It
reasonable
assume
system
will
reliably
aid
dermatologists
diagnosing
patients
early
increasing
rates.
Diagnostics,
Journal Year:
2023,
Volume and Issue:
14(1), P. 89 - 89
Published: Dec. 30, 2023
Skin
cancer
poses
a
significant
healthcare
challenge,
requiring
precise
and
prompt
diagnosis
for
effective
treatment.
While
recent
advances
in
deep
learning
have
dramatically
improved
medical
image
analysis,
including
skin
classification,
ensemble
methods
offer
pathway
further
enhancing
diagnostic
accuracy.
This
study
introduces
cutting-edge
approach
employing
the
Max
Voting
Ensemble
Technique
robust
classification
on
ISIC
2018:
Task
1-2
dataset.
We
incorporate
range
of
cutting-edge,
pre-trained
neural
networks,
MobileNetV2,
AlexNet,
VGG16,
ResNet50,
DenseNet201,
DenseNet121,
InceptionV3,
ResNet50V2,
InceptionResNetV2,
Xception.
These
models
been
extensively
trained
datasets,
achieving
individual
accuracies
ranging
from
77.20%
to
91.90%.
Our
method
leverages
synergistic
capabilities
these
by
combining
their
complementary
features
elevate
performance
further.
In
our
approach,
input
images
undergo
preprocessing
model
compatibility.
The
integrates
with
architectures
weights
preserved.
For
each
lesion
under
examination,
every
produces
prediction.
are
subsequently
aggregated
using
max
voting
technique
yield
final
majority-voted
class
serving
as
conclusive
Through
comprehensive
testing
diverse
dataset,
outperformed
models,
attaining
an
accuracy
93.18%
AUC
score
0.9320,
thus
demonstrating
superior
reliability
evaluated
effectiveness
proposed
HAM10000
dataset
ensure
its
generalizability.
delivers
robust,
reliable,
tool
cancer.
By
utilizing
power
advanced
we
aim
assist
professionals
timely
accurate
diagnoses,
ultimately
reducing
mortality
rates
patient
outcomes.
Cancers,
Journal Year:
2024,
Volume and Issue:
16(3), P. 629 - 629
Published: Feb. 1, 2024
The
objective
of
this
study
is
to
systematically
analyze
the
current
state
literature
regarding
novel
artificial
intelligence
(AI)
machine
learning
models
utilized
in
non-invasive
imaging
for
early
detection
nonmelanoma
skin
cancers.
Furthermore,
we
aimed
assess
their
potential
clinical
relevance
by
evaluating
accuracy,
sensitivity,
and
specificity
each
algorithm
assessing
risk
bias.
Two
reviewers
screened
MEDLINE,
Cochrane,
PubMed,
Embase
databases
peer-reviewed
studies
that
focused
on
AI-based
cancer
classification
involving
cancers
were
published
between
2018
2023.
search
terms
included
neoplasms,
nonmelanoma,
basal-cell
carcinoma,
squamous-cell
diagnostic
techniques
procedures,
intelligence,
algorithms,
computer
systems,
dermoscopy,
reflectance
confocal
microscopy,
optical
coherence
tomography.
Based
results,
only
directly
answered
review
objectives
efficacy
measures
recorded.
A
QUADAS-2
assessment
bias
was
then
conducted.
total
44
our
review;
40
utilizing
3
using
microscopy
(RCM),
1
hyperspectral
epidermal
(HEI).
average
accuracy
AI
algorithms
applied
all
modalities
combined
86.80%,
with
same
dermoscopy.
Only
one
three
applying
RCM
measured
a
result
87%.
Accuracy
not
regard
based
HEI
interpretation.
exhibited
an
overall
favorable
performance
diagnosis
via
noninvasive
techniques.
Ultimately,
further
research
needed
isolate
pooled
as
many
testing
datasets
also
include
melanoma
other
pigmented
lesions.