This
study
presents
a
customized
model
built
in
Python
by
employing
TensorFlow
and
sci-kit-learn,
paving
the
way
for
use
of
machine
learning
cloud
computing
medical
image
analysis.
Tests
with
statistical
data
validate
its
superior
diagnostic
accuracy
when
compared
to
traditional
models.
Our
method
shows
measurable
improvements
workflow
efficiency
as
well
clinical
decision-making,
even
looking
past
technical
metrics.
Potential
gains
are
indicated
computing's
smooth
integration
into
current
workflows.
Even
these
achievements,
there
is
always
room
improvement
optimization.
Improving
interpretability
alongside
investigating
federated
better
privacy
among
recommendations.
By
recognizing
changing
healthcare
landscape
together
opening
door
responsible
significant
technology
adoption,
this
research
offers
revolutionary
solution.
Frontiers in Medicine,
Journal Year:
2024,
Volume and Issue:
10
Published: Jan. 29, 2024
Introduction
Oral
Squamous
Cell
Carcinoma
(OSCC)
poses
a
significant
challenge
in
oncology
due
to
the
absence
of
precise
diagnostic
tools,
leading
delays
identifying
condition.
Current
methods
for
OSCC
have
limitations
accuracy
and
efficiency,
highlighting
need
more
reliable
approaches.
This
study
aims
explore
discriminative
potential
histopathological
images
oral
epithelium
OSCC.
By
utilizing
database
containing
1224
from
230
patients,
captured
at
varying
magnifications
publicly
available,
customized
deep
learning
model
based
on
EfficientNetB3
was
developed.
The
model’s
objective
differentiate
between
normal
tissues
by
employing
advanced
techniques
such
as
data
augmentation,
regularization,
optimization.
Methods
research
utilized
imaging
Cancer
analysis,
incorporating
patients.
These
images,
taken
various
magnifications,
formed
basis
training
specialized
built
upon
architecture.
underwent
distinguish
tissues,
sophisticated
methodologies
including
regularization
techniques,
optimization
strategies.
Results
achieved
success,
showcasing
remarkable
99%
when
tested
dataset.
high
underscores
efficacy
effectively
discerning
tissues.
Furthermore,
exhibited
impressive
precision,
recall,
F1-score
metrics,
reinforcing
its
robust
tool
Discussion
demonstrates
promising
models
address
challenges
associated
with
ability
achieve
rate
test
dataset
signifies
considerable
leap
forward
earlier
accurate
detection
Leveraging
machine
learning,
augmentation
optimization,
has
shown
results
improving
patient
outcomes
through
timely
identification
Cancer Medicine,
Journal Year:
2024,
Volume and Issue:
13(1)
Published: Jan. 1, 2024
Abstract
Introduction
Oral
squamous
cell
carcinoma
(OSCC)
presents
a
significant
global
health
challenge.
The
integration
of
artificial
intelligence
(AI)
and
computer
vision
holds
promise
for
the
early
detection
OSCC
through
analysis
digitized
oral
photographs.
This
literature
review
explores
landscape
AI‐driven
automatic
detection,
assessing
both
performance
limitations
current
state
art.
Materials
Methods
An
electronic
search
using
several
data
base
was
conducted,
systematic
performed
in
accordance
with
PRISMA
guidelines
(CRD42023441416).
Results
Several
studies
have
demonstrated
remarkable
results
this
task,
consistently
achieving
sensitivity
rates
exceeding
85%
accuracy
surpassing
90%,
often
encompassing
around
1000
images.
scrutinizes
these
studies,
shedding
light
on
their
methodologies,
including
use
recent
machine
learning
pattern
recognition
approaches
coupled
different
supervision
strategies.
However,
comparing
from
papers
is
challenging
due
to
variations
datasets
used.
Discussion
Considering
findings,
underscores
urgent
need
more
robust
reliable
field
detection.
Furthermore,
it
highlights
potential
advanced
techniques
such
as
multi‐task
learning,
attention
mechanisms,
ensemble
crucial
tools
enhancing
Conclusion
These
insights
collectively
emphasize
transformative
impact
diagnosis,
significantly
improve
patient
outcomes
healthcare
practices.
Frontiers in Oral Health,
Journal Year:
2025,
Volume and Issue:
6
Published: March 10, 2025
Oral
cavity
cancer
is
associated
with
high
morbidity
and
mortality,
particularly
advanced
stage
diagnosis.
cancer,
typically
squamous
cell
carcinoma
(OSCC),
often
preceded
by
oral
potentially
malignant
disorders
(OPMDs),
which
comprise
eleven
variable
risks
for
transformation.
While
OPMDs
are
clinical
diagnoses,
conventional
exam
followed
biopsy
histopathological
analysis
the
gold
standard
diagnosis
of
OSCC.
There
vast
heterogeneity
in
presentation
OPMDs,
possible
visual
similarities
to
early-stage
OSCC
or
even
various
benign
mucosal
abnormalities.
The
diagnostic
challenge
OSCC/OPMDs
compounded
non-specialist
primary
care
setting.
has
been
significant
research
interest
technology
assist
OSCC/OPMDs.
Artificial
intelligence
(AI),
enables
machine
performance
human
tasks,
already
shown
promise
several
domains
medical
diagnostics.
Computer
vision,
field
AI
dedicated
data,
over
past
decade
applied
photographs
Various
methodological
concerns
limitations
may
be
encountered
literature
on
OSCC/OPMD
image
analysis.
This
narrative
review
delineates
current
landscape
photograph
navigates
limitations,
issues,
workflow
implications
this
field,
providing
context
future
considerations.
Cureus,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 6, 2025
Oral
squamous
cell
carcinoma
(OSCC)
is
a
serious
worldwide
health
issue.
Early
OSCC
identification
by
the
analysis
of
digital
oral
photos
possible
with
combination
artificial
intelligence
(AI)
and
computer
vision.
The
purpose
this
systematic
review
was
to
evaluate
current
evidence
on
role
AI
in
diagnosis
OSCC,
focusing
diagnostic
performance,
methodologies
employed,
potential
limitations
applications
context.
We
followed
Preferred
Reporting
Items
for
Systematic
Reviews
Meta-Analyses
(PRISMA)
guidelines
search
relevant
studies
across
PubMed,
Scopus,
Web
Science,
Cumulative
Index
Nursing
Allied
Health
Literature
(CINAHL).
In
these
databases,
we
found
286
studies,
which
were
first
screened
duplicates
then
assessed
inclusion
exclusion
criteria.
Only
11
most
included
study.
These
also
risk
bias
using
Quality
Assessment
Diagnostic
Accuracy
Studies
2
(QUADAS-2)
tool.
Numerous
have
shown
impressive
results
job,
frequently
covering
about
1000
regularly
reaching
sensitivity
rates
above
85%
accuracy
90%.
examines
research
detail,
providing
insight
into
their
methods,
include
application
contemporary
machine
learning
pattern
recognition
techniques
conjunction
various
supervision
techniques.
However,
because
datasets
are
utilized
different
articles,
it
can
be
difficult
compare
results.
light
results,
study
emphasizes
how
urgently
area
detection
needs
more
solid
trustworthy
datasets.
Additionally,
sophisticated
methods
like
ensemble
learning,
multi-task
attention
mechanisms
used
as
essential
instruments
improve
photos.
Together,
observations
highlight
AI-driven
early
greatly
enhance
patient
outcomes
medical
procedures.
Frontiers in Oral Health,
Journal Year:
2024,
Volume and Issue:
5
Published: Nov. 6, 2024
Objective
Oral
cancer
is
a
widespread
global
health
problem
characterised
by
high
mortality
rates,
wherein
early
detection
critical
for
better
survival
outcomes
and
quality
of
life.
While
visual
examination
the
primary
method
detecting
oral
cancer,
it
may
not
be
practical
in
remote
areas.
AI
algorithms
have
shown
some
promise
from
medical
images,
but
their
effectiveness
remains
Naïve.
This
systematic
review
aims
to
provide
an
extensive
assessment
existing
evidence
about
diagnostic
accuracy
AI-driven
approaches
potentially
malignant
disorders
(OPMDs)
using
imaging.
Methods
Adhering
PRISMA
guidelines,
scrutinised
literature
PubMed,
Scopus,
IEEE
databases,
with
specific
focus
on
evaluating
performance
architectures
across
diverse
imaging
modalities
these
conditions.
Results
The
models,
measured
sensitivity
specificity,
was
assessed
hierarchical
summary
receiver
operating
characteristic
(SROC)
curve,
heterogeneity
quantified
through
I
2
statistic.
To
account
inter-study
variability,
random
effects
model
utilized.
We
screened
296
articles,
included
55
studies
qualitative
synthesis,
selected
18
meta-analysis.
Studies
efficacy
AI-based
methods
reveal
0.87
specificity
0.81.
odds
ratio
(DOR)
131.63
indicates
likelihood
accurate
diagnosis
OPMDs.
SROC
curve
(AUC)
0.9758
exceptional
such
models.
research
showed
that
deep
learning
(DL)
architectures,
especially
CNNs
(convolutional
neural
networks),
were
best
at
finding
OPMDs
cancer.
Histopathological
images
exhibited
greatest
detections.
Conclusion
These
findings
suggest
potential
function
as
reliable
tools
offering
significant
advantages,
particularly
resource-constrained
settings.
Systematic
Review
Registration
https://www.crd.york.ac.uk/
,
PROSPERO
(CRD42023476706).
Advances in medical diagnosis, treatment, and care (AMDTC) book series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 113 - 132
Published: Feb. 14, 2025
This
chapter
presents
an
automated
biomedical
image
classification
system,
HBDL-FBTA
(Hybrid
Bio-inspired
Deep
Learning
with
Fusion
Brain
Tumor
Analysis),
focused
on
brain
tumors—abnormal
cell
growths
in
the
or
surrounding
tissues
that
require
early,
accurate
detection
for
effective
treatment.
The
employs
pre-processing
to
enhance
quality,
Swin-UNet-based
segmentation
precise
region
delineation,
and
fusion-based
feature
extraction
robust
acquisition.
It
uses
Humpback
Whale
Optimization
Simulated
Annealing
(HSSA)
parameter
tuning
a
Gated
Recurrent
Unit
(GRU)
reliable
classification.
Simulations
benchmark
datasets,
including
BraTS2017,
demonstrate
superior
performance,
achieving
accuracies
of
94.51%
ISIC
2017
95.38%
2020
datasets.
Future
work
will
focus
evaluating
computational
complexity
large-scale
integrating
multi-modal
imaging
data,
developing
interpretable
deep
learning
models
clinical
adoption
reliability.
Technology and Health Care,
Journal Year:
2024,
Volume and Issue:
32, P. 465 - 475
Published: May 14, 2024
Oral
cancer
is
a
malignant
tumor
that
usually
occurs
within
the
tissues
of
mouth.
This
type
mainly
includes
tumors
in
lining
mouth,
tongue,
lips,
buccal
mucosa
and
gums.
on
rise
globally,
especially
some
specific
risk
groups.
The
early
stage
oral
asymptomatic,
while
late
may
present
with
ulcers,
lumps,
bleeding,
etc.