Journal of Imaging,
Journal Year:
2024,
Volume and Issue:
10(12), P. 311 - 311
Published: Dec. 6, 2024
Microscopic
image
segmentation
(MIS)
is
a
fundamental
task
in
medical
imaging
and
biological
research,
essential
for
precise
analysis
of
cellular
structures
tissues.
Despite
its
importance,
the
process
encounters
significant
challenges,
including
variability
conditions,
complex
structures,
artefacts
(e.g.,
noise),
which
can
compromise
accuracy
traditional
methods.
The
emergence
deep
learning
(DL)
has
catalyzed
substantial
advancements
addressing
these
issues.
This
systematic
literature
review
(SLR)
provides
comprehensive
overview
state-of-the-art
DL
methods
developed
over
past
six
years
microscopic
images.
We
critically
analyze
key
contributions,
emphasizing
how
specifically
tackle
challenges
cell,
nucleus,
tissue
segmentation.
Additionally,
we
evaluate
datasets
performance
metrics
employed
studies.
By
synthesizing
current
identifying
gaps
existing
approaches,
this
not
only
highlights
transformative
potential
enhancing
diagnostic
research
efficiency
but
also
suggests
directions
future
research.
findings
study
have
implications
improving
methodologies
applications,
ultimately
fostering
better
patient
outcomes
advancing
scientific
understanding.
Neural Computing and Applications,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 7, 2025
Abstract
Cephalometric
analysis
is
essential
for
the
diagnosis
and
treatment
planning
of
orthodontics.
In
lateral
cephalograms,
however,
manual
detection
anatomical
landmarks
a
time-consuming
procedure.
Deep
learning
solutions
hold
potential
to
address
time
constraints
associated
with
certain
tasks;
concerns
regarding
their
performances
have
been
observed.
To
this
critical
issue,
we
propose
an
end-to-end
cascaded
deep
framework
(Self-CephaloNet)
task,
which
demonstrates
benchmark
performance
over
ISBI
2015
dataset
in
predicting
19
cephalometric
landmarks.
Due
adaptive
nodal
capabilities,
Self-ONN
(self-operational
neural
networks)
superior
complex
feature
spaces
conventional
convolutional
networks.
leverage
attribute,
introduce
novel
self-bottleneck
HRNetV2
(high-resolution
network)
backbone,
has
exhibited
on
our
landmark
task.
Our
first-stage
result
surpasses
previous
studies,
showcasing
efficacy
singular
model,
achieves
remarkable
70.95%
success
rate
detecting
within
2-mm
range
Test1
Test2
datasets
are
part
dataset.
Moreover,
second
stage
significantly
improves
overall
performance,
yielding
impressive
82.25%
average
above
same
distance.
Furthermore,
external
validation
conducted
using
PKU
cephalogram
model
commendable
75.95%
range.
Diagnostics,
Journal Year:
2025,
Volume and Issue:
15(9), P. 1120 - 1120
Published: April 28, 2025
Background/Objectives:
Accurate
and
efficient
segmentation
of
cell
nuclei
in
biomedical
images
is
critical
for
a
wide
range
clinical
research
applications,
including
cancer
diagnostics,
histopathological
analysis,
therapeutic
monitoring.
Although
U-Net
its
variants
have
achieved
notable
success
medical
image
segmentation,
challenges
persist
balancing
accuracy
with
computational
efficiency,
especially
when
dealing
large-scale
datasets
resource-limited
settings.
This
study
aims
to
develop
lightweight
scalable
U-Net-based
architecture
that
enhances
performance
while
substantially
reducing
overhead.
Methods:
We
propose
novel
evolving
integrates
multi-scale
feature
extraction,
depthwise
separable
convolutions,
residual
connections,
attention
mechanisms
improve
robustness
across
diverse
imaging
conditions.
Additionally,
we
incorporate
channel
reduction
expansion
strategies
inspired
by
ShuffleNet
minimize
model
parameters
without
sacrificing
precision.
The
was
extensively
validated
using
the
2018
Data
Science
Bowl
dataset.
Results:
Experimental
evaluation
demonstrates
proposed
achieves
Dice
Similarity
Coefficient
(DSC)
0.95
an
0.94,
surpassing
state-of-the-art
benchmarks.
effectively
delineates
complex
overlapping
structures
high
fidelity,
maintaining
efficiency
suitable
real-time
applications.
Conclusions:
variant
offers
adaptable
solution
tasks.
Its
strong
both
highlights
potential
deployment
diagnostics
biological
research,
paving
way
resource-conscious
solutions.
Artificial Intelligence Review,
Journal Year:
2024,
Volume and Issue:
57(12)
Published: Oct. 21, 2024
Abstract
Artificial
intelligence
(AI)
and
other
disruptive
technologies
can
potentially
improve
healthcare
across
various
disciplines.
Its
subclasses,
artificial
neural
networks,
deep
learning,
machine
excel
in
extracting
insights
from
large
datasets
improving
predictive
models
to
boost
their
utility
accuracy.
Though
research
this
area
is
still
its
early
phases,
it
holds
enormous
potential
for
the
diagnosis,
prognosis,
treatment
of
urological
diseases,
such
as
bladder
cancer.
The
long-used
nomograms
classic
forecasting
approaches
are
being
reconsidered
considering
AI’s
capabilities.
This
review
emphasizes
coming
integration
into
settings
while
critically
examining
most
recent
significant
literature
on
subject.
study
seeks
define
status
AI
future,
with
a
special
emphasis
how
transform
cancer
diagnosis
treatment.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Jan. 2, 2025
Cervical
cancer
is
one
of
the
deadliest
cancers
that
pose
a
significant
threat
to
women's
health.
Early
detection
and
treatment
are
commonly
used
methods
prevent
cervical
cancer.
The
use
pathological
image
analysis
techniques
for
automatic
interpretation
cells
in
slides
prominent
area
research
field
digital
medicine.
According
Bethesda
System,
cytology
necessitates
further
classification
precancerous
lesions
based
on
positive
interpretations.
However,
clinical
definitions
among
different
categories
lesion
complex
often
characterized
by
fuzzy
boundaries.
In
addition,
pathologists
can
deduce
criteria
judgment
leading
potential
confusion
during
data
labeling.
Noisy
labels
due
this
reason
great
challenge
supervised
learning.
To
address
problem
caused
noisy
labels,
we
propose
method
label
credibility
correction
cell
images
network.
Firstly,
contrastive
learning
network
extract
discriminative
features
from
obtain
more
similar
intra-class
sample
features.
Subsequently,
these
fed
into
an
unsupervised
clustering,
resulting
class
labels.
Then
corresponded
true
separate
confusable
typical
samples.
Through
similarity
comparison
between
cluster
samples
statistical
feature
centers
each
class,
carried
out
group
Finally,
multi-class
trained
using
synergistic
grouping
method.
order
enhance
stability
model,
momentum
incorporated
loss.
Experimental
validation
conducted
dataset
comprising
approximately
60,000
multiple
hospitals,
showcasing
effectiveness
our
proposed
approach.
achieves
2-class
task
accuracy
0.9241
5-class
0.8598.
Our
better
performance
than
existing
networks
International Journal of Imaging Systems and Technology,
Journal Year:
2025,
Volume and Issue:
35(1)
Published: Jan. 1, 2025
ABSTRACT
In
our
research,
we
introduce
a
sophisticated
“two‐stage”
or
cascade
model
designed
to
enhance
the
precision
of
lung
nodule
analysis.
This
innovative
approach
integrates
two
crucial
processes:
detection
and
segmentation.
initial
stage,
specialized
object
algorithm
efficiently
scans
medical
images
identify
potential
areas
interest,
specifically
focusing
on
nodules.
plays
role
in
minimizing
segmentation
area,
particularly
context
imaging,
where
structures
exhibit
heterogeneity.
helps
focus
process
only
relevant
areas,
reducing
unnecessary
computation
errors.
Subsequently,
second
stage
employs
advanced
algorithms
precisely
delineate
boundaries
identified
nodules,
providing
detailed
accurate
contours.
The
combination
not
enhances
overall
accuracy
cancer
but
also
minimizes
false
positives,
streamlines
workflow
for
radiologists,
provides
more
comprehensive
understanding
abnormalities.
Additionally,
it
improves
efficiency
segmentation,
especially
cases
complexity
heterogeneity
structure
make
task
challenging.
proposed
method
has
been
tested
LIDC‐IDRI
dataset,
demonstrating
favorable
results
both
steps,
with
81.3%
mAP
83.54%
DSC,
respectively.
These
serve
as
evidence
that
effectively
Deleted Journal,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 27, 2025
This
study
explores
a
transfer
learning
approach
with
vision
transformers
(ViTs)
and
convolutional
neural
networks
(CNNs)
for
classifying
retinal
diseases,
specifically
diabetic
retinopathy,
glaucoma,
cataracts,
from
ophthalmoscopy
images.
Using
balanced
subset
of
4217
images
ophthalmology-specific
pretrained
ViT
backbones,
this
method
demonstrates
significant
improvements
in
classification
accuracy,
offering
potential
broader
applications
medical
imaging.
Glaucoma,
cataracts
are
common
eye
diseases
that
can
cause
loss
if
not
treated.
These
must
be
identified
the
early
stages
to
prevent
damage
progression.
paper
focuses
on
accurate
identification
analysis
disparate
including
using
Deep
(DL)
has
been
widely
used
image
recognition
detection
treatment
diseases.
In
study,
ResNet50,
DenseNet121,
Inception-ResNetV2,
six
variations
employed,
their
performance
diagnosing
such
as
retinopathy
is
evaluated.
particular,
article
uses
transformer
model
an
automated
diagnose
highlighting
accuracy
pre-trained
deep
(DTL)
structures.
The
updated
ViT#5
augmented-regularized
(AugReg
ViT-L/16_224)
rate
0.00002
outperforms
state-of-the-art
techniques,
obtaining
data-based
score
98.1%
publicly
accessible
dataset,
which
includes
most
categories,
other
convolutional-based
models
terms
precision,
recall,
F1
score.
research
contributes
significantly
analysis,
demonstrating
AI
enhancing
precision
disease
diagnoses
advocating
integration
artificial
intelligence
diagnostics.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Feb. 22, 2025
Abstract
Pathologists
have
depended
on
their
visual
experience
to
assess
tissue
structures
in
smear
images,
which
was
time-consuming,
error-prone,
and
inconsistent.
Deep
learning,
particularly
Convolutional
Neural
Networks
(CNNs),
offers
the
ability
automate
this
procedure
by
recognizing
patterns
images.
However,
training
these
models
necessitates
huge
amounts
of
labeled
data,
can
be
difficult
come
due
skill
required
for
annotation
unavailability
rare
diseases.
This
work
introduces
a
new
semi-supervised
method
structure
semantic
segmentation
histopathological
The
study
presents
CNN
based
teacher
model
that
generates
pseudo-labels
train
student
model,
aiming
overcome
drawbacks
conventional
supervised
learning
approaches.
Self-supervised
is
used
improve
model’s
performance
smaller
datasets.
Consistency
regularization
integrated
efficiently
data.
Further,
uses
Monte
Carlo
dropout
estimate
uncertainty
proposed
model.
demonstrated
promising
results
achieving
an
mIoU
score
0.64
public
dataset,
highlighting
its
potential
accuracy
image
analysis.