International Journal of Advanced Research in Computer Science,
Год журнала:
2024,
Номер
15(6), С. 28 - 36
Опубликована: Дек. 20, 2024
:
Cervical
cancer
originates
in
the
cervix
situated
between
vagina
and
bottom
end
of
uterus.
It
evolves
gradually
which
begins
with
appearance
aberrant
cells
cervical
tissue.
These
might
develop
into
migrate
more
adjacent
tissues
if
they
are
not
treated.
Therefore,
a
patient's
survival
depends
on
rapid
identification
cancer.
Various
imaging
modalities
widely
used
to
identify
nodules
as
pre-cancer
or
cells.
But
limited
results
were
determined
takes
time
needs
many
skilled
radiologists.
To
solve
this
problem,
Deep
Learning
(DL)
frameworks
have
emerged
these
decades
for
automatic
detection
categorization.
algorithms
can
detect
suspicious
early,
improving
patient
outcomes
aiding
physicians
decision-making,
thereby
reducing
fatality
risk.
This
study
provides
an
in-depth
analysis
DL
developed
recognize
categorize
from
various
modalities.
Initially,
different
categorization
systems
designed
by
researchers
based
briefly
examined.
Comparison
research
is
carried
out
comprehend
shortcomings
those
recommend
alternative
method
accurately
classifying
order
regulate
worldwide
morality
rates.
Cancers,
Год журнала:
2024,
Номер
16(22), С. 3782 - 3782
Опубликована: Ноя. 10, 2024
Cervical
cancer
significantly
impacts
global
health,
where
early
detection
is
piv-
otal
for
improving
patient
outcomes.
This
study
aims
to
enhance
the
accuracy
of
cervical
diagnosis
by
addressing
class
imbalance
through
a
novel
hybrid
deep
learning
model.
Diagnostics,
Год журнала:
2025,
Номер
15(5), С. 513 - 513
Опубликована: Фев. 20, 2025
Background/Objectives:
Accurate
and
efficient
segmentation
of
cervical
cells
is
crucial
for
the
early
detection
cancer,
enabling
timely
intervention
treatment.
Existing
models
face
challenges
with
complex
cellular
arrangements,
such
as
overlapping
indistinct
boundaries,
are
often
computationally
intensive,
which
limits
their
deployment
in
resource-constrained
settings.
Methods:
In
this
study,
we
introduce
a
lightweight
model
specifically
designed
cell
analysis.
The
employs
MobileNetV2
architecture
feature
extraction,
ensuring
minimal
parameter
count
conducive
to
real-time
processing.
To
enhance
boundary
delineation,
propose
novel
force
map
approach
that
drives
pixel
adjustments
inward
toward
centers
cells,
thus
improving
separation
densely
packed
areas.
Additionally,
integrate
extreme
point
supervision
refine
outcomes
using
annotations,
rather
than
full
pixel-wise
labels.
Results:
Our
was
rigorously
trained
evaluated
on
comprehensive
dataset
images.
It
achieved
Dice
Coefficient
0.87
Boundary
F1
Score
0.84,
performances
comparable
those
advanced
but
considerably
lower
inference
times.
optimized
operates
at
approximately
50
frames
per
second
standard
low-power
hardware.
Conclusions:
By
effectively
balancing
accuracy
computational
efficiency,
our
addresses
critical
barriers
widespread
adoption
automated
tools.
Its
ability
perform
real
time
low-cost
devices
makes
it
an
ideal
candidate
clinical
applications
low-resource
environments.
This
advancement
holds
significant
potential
enhancing
access
cancer
screening
diagnostics
worldwide,
thereby
supporting
broader
healthcare
initiatives.
Scientific Reports,
Год журнала:
2025,
Номер
15(1)
Опубликована: Март 2, 2025
Vision-language
pre-training
models
have
achieved
significant
success
in
the
field
of
medical
imaging
but
exhibited
vulnerability
to
adversarial
examples.
Although
attacks
are
harmful,
they
valuable
revealing
weaknesses
VLP
and
enhancing
their
robustness.
However,
due
under-utilization
modal
differences
consistent
features
existing
methods,
attack
effectiveness
migration
samples
not
satisfactory.
To
address
this
issue
enhance
transferability,
we
propose
multimodal
feature
heterogeneous
framework.
capability,
a
heterogenization
method
based
on
triplet
contrastive
learning,
utilizing
data
augmentation
cross-modal
global
intra-modal
global-local
mutual
information
learning.
This
further
heterogenizes
between
modalities
into
distinct
features,
thereby
improving
capability.
improve
variance
aggregation-based
multi-domain
perturbation
method,
using
text-guided
image
perturb
spatial
frequency
while
combining
previous
gradient
momentum,
achieving
better
transferability.
Extensive
experiments
demonstrate
MFHA's
advantage
transferable
with
an
average
improvement
16.05%,
outstanding
performance
large
language
like
MiniGPT4
LLaVA.
The
work
did
has
been
open-sourced
GitHub:
https://github.com/doyoudooo/MFHA
.
Diagnostics,
Год журнала:
2025,
Номер
15(3), С. 364 - 364
Опубликована: Фев. 4, 2025
Background:
Reinforcement
learning
(RL)
represents
a
significant
advancement
in
artificial
intelligence
(AI),
particularly
for
complex
sequential
decision-making
challenges.
Its
capability
to
iteratively
refine
decisions
makes
it
ideal
applications
medicine,
such
as
the
detection
of
cervical
cancer;
major
cause
mortality
among
women
globally.
The
Pap
smear
test,
crucial
diagnostic
tool
cancer,
benefits
from
enhancements
AI,
facilitating
development
automated
systems
that
improve
screening
effectiveness.
This
research
introduces
RL-Cervix.Net,
hybrid
model
integrating
RL
with
convolutional
neural
network
(CNN)
technologies,
aimed
at
elevating
precision
and
efficiency
cancer
screenings.
Methods:
RL-Cervix.Net
combines
robust
ResNet-50
architecture
reinforcement
module
tailored
unique
challenges
cytological
image
analysis.
was
trained
validated
using
three
extensive
public
datasets
ensure
its
effectiveness
under
realistic
conditions.
A
novel
application
dynamic
feature
refinement
adjustment
based
on
reward
functions
employed
optimize
capabilities
model.
Results:
innovative
integration
into
CNN
framework
allowed
achieve
an
unprecedented
classification
accuracy
99.98%
identifying
atypical
cells
indicative
lesions.
demonstrated
superior
interpretability
compared
existing
methods,
addressing
variability
complexities
inherent
images.
Conclusions:
marks
breakthrough
AI
medical
diagnostics,
early
cancer.
By
significantly
improving
efficiency,
has
potential
enhance
patient
outcomes
through
earlier
more
precise
identification
disease,
ultimately
contributing
reduced
rates
improved
healthcare
delivery.
Algorithms,
Год журнала:
2025,
Номер
18(2), С. 96 - 96
Опубликована: Фев. 8, 2025
Computer
vision
and
artificial
intelligence
have
revolutionized
the
field
of
pathological
image
analysis,
enabling
faster
more
accurate
diagnostic
classification.
Deep
learning
architectures
like
convolutional
neural
networks
(CNNs),
shown
superior
performance
in
tasks
such
as
classification,
segmentation,
object
detection
pathology.
has
significantly
improved
accuracy
disease
diagnosis
healthcare.
By
leveraging
advanced
algorithms
machine
techniques,
computer
systems
can
analyze
medical
images
with
high
precision,
often
matching
or
even
surpassing
human
expert
performance.
In
pathology,
deep
models
been
trained
on
large
datasets
annotated
pathology
to
perform
cancer
diagnosis,
grading,
prognostication.
While
approaches
show
great
promise
challenges
remain,
including
issues
related
model
interpretability,
reliability,
generalization
across
diverse
patient
populations
imaging
settings.
Scientific Reports,
Год журнала:
2025,
Номер
15(1)
Опубликована: Март 10, 2025
Existing
deep
learning
methods
have
achieved
significant
success
in
medical
image
segmentation.
However,
this
largely
relies
on
stacking
advanced
modules
and
architectures,
which
has
created
a
path
dependency.
This
dependency
is
unsustainable,
as
it
leads
to
increasingly
larger
model
parameters
higher
deployment
costs.
To
break
dependency,
we
introduce
reinforcement
enhance
segmentation
performance.
current
face
challenges
such
high
training
cost,
independent
iterative
processes,
uncertainty
of
masks.
Consequently,
propose
Pixel-level
Deep
Reinforcement
Learning
with
pixel-by-pixel
Mask
Generation
(PixelDRL-MG)
for
more
accurate
robust
PixelDRL-MG
adopts
dynamic
update
policy,
directly
segmenting
the
regions
interest
without
requiring
user
interaction
or
coarse
We
Asynchronous
Advantage
Actor-Critic
(PA3C)
strategy
treat
each
pixel
an
agent
whose
state
(foreground
background)
iteratively
updated
through
direct
actions.
Our
experiments
two
commonly
used
datasets
demonstrate
that
achieves
superior
performances
than
state-of-the-art
baselines
(especially
boundaries)
using
significantly
fewer
parameters.
also
conducted
detailed
ablation
studies
understanding
facilitate
practical
application.
Additionally,
performs
well
low-resource
settings
(i.e.,
50-shot
100-shot),
making
ideal
choice
real-world
scenarios.