2022 International Conference on Innovative Computing, Intelligent Communication and Smart Electrical Systems (ICSES),
Journal Year:
2023,
Volume and Issue:
unknown, P. 1 - 6
Published: Dec. 14, 2023
This
study
digs
into
the
ever-changing
environment
of
Neural
Architecture
Search
(NAS)
and
Atom
(Automated
Machine
Learning)
for
purpose
deep
learning
model
optimization.
We
take
a
methodical
look
at
these
methods
to
see
whether
they
can
really
bring
about
sea
change
in
way
AI
is
created
used.
Our
studies
are
based
on
comprehensive
process
that
covers
issue
statements,
data
cleaning,
NAS
algorithm
selection,
optimization
goals,
training,
ethical
concerns.
offer
simulated
experimental
findings
demonstrate
effectiveness
techniques,
focusing
dramatic
improvements
performance
time
savings
from
automation.
Importantly,
our
research
highlights
need
justice,
accountability,
openness
context
automated
results
have
important
implications
field
artificial
intelligence
society
general,
which
we
explain
as
part
conclusion.
conclude
by
outlining
potential
avenues
further
study,
such
use
transfer
learning,
scalability,
hybrid
self-adaptive
algorithms.
A
thorough
introduction
NAS,
this
provides
valuable
ideas
may
promote
growth,
accessibility,
responsibility
AI.
Healthcare Analytics,
Journal Year:
2024,
Volume and Issue:
5, P. 100316 - 100316
Published: March 21, 2024
Timely
identification
of
lung
nodules,
which
are
precursors
to
cancer,
and
their
evaluation
can
significantly
reduce
the
incidence
rate.
Computed
Tomography
(CT)
is
primary
technique
used
for
cancer
screening
due
its
high
resolution.
Identifying
white,
spherical
shadows
as
nodules
in
CT
images
essential
accurately
detecting
cancer.
Convolutional
Neural
Network
(CNN)-based
methods
have
performed
better
than
traditional
techniques
various
medical
image
applications.
However,
challenges
still
need
be
addressed
insufficient
annotated
datasets,
significant
intra-class
variations,
substantial
inter-class
similarities,
hinder
practical
use.
Manually
labeling
position
on
slices
critical
distinguishing
between
benign
malignant
cases,
but
it
an
unreliable
time-consuming
process.
Insufficient
data
class
imbalance
factors
that
may
result
overfitting
below-par
performance.
The
paper
presents
a
novel
Deep
Learning
(DL)
framework
detect
classify
input
images.
It
introduces
3D-VNet
architecture
accurate
segmentation
pulmonary
3D-ResNet
designed
classification.
model
achieves
Dice
Similarity
Coefficient
(DSC)
99.34%
LUNA16
dataset
while
reducing
false
positives
0.4%.
classification
shows
performance
metrics
with
accuracy,
sensitivity,
specificity
99.2%,
98.8%,
99.6%,
respectively.
network
outperforms
previous
by
calibrating
sizes
shapes
excellent
robustness.
model's
show
suggested
method
current
approaches
regarding
specificity,
sensitivity
F1-Score.
PLoS ONE,
Journal Year:
2024,
Volume and Issue:
19(11), P. e0311080 - e0311080
Published: Nov. 15, 2024
Accurate
segmentation
of
lung
lesions
in
CT-scan
images
is
essential
to
diagnose
cancer.
The
challenges
nodule
diagnosis
arise
due
their
small
size
and
diverse
nature.
We
designed
a
transformer-based
model
EDTNet
(Encoder
Decoder
Transformer
Network)
for
PNS
(Pulmonary
Nodule
Segmentation).
Traditional
CNN-based
encoders
decoders
are
hindered
by
inability
capture
long-range
spatial
dependencies,
leading
suboptimal
performance
complex
object
tasks.
To
address
the
limitation,
we
leverage
an
enhanced
attention-based
Vision
(ViT)
as
encoder
decoder
EDTNet.
integrates
two
successive
transformer
blocks,
patch-expanding
layer,
down-sampling
layers,
up-sampling
layers
improve
capabilities.
In
addition,
ESLA
(Enhanced
aware
local
attention)
EGLA
global
blocks
added
provide
attention
features.
Furthermore,
skip
connections
introduced
facilitate
symmetrical
interaction
between
corresponding
enabling
retrieval
intricate
details
output.
compared
with
several
models
on
DS1
DS2,
including
Unet,
ResUNet++,
U-NET
3+,
DeepLabV3+,
SegNet,
Trans-Unet,
Swin-UNet,
demonstrates
superior
quantitative
visual
results.
On
DS1,
achieved
96.27%,
95.81%,
96.15%
precision,
IoU
(Intersection
over
Union),
DSC
(Sorensen–Dice
coefficient).
Moreover,
has
demonstrated
sensitivity,
SDC
98.84%,
96.06%
97.85%
DS2.
Discover Oncology,
Journal Year:
2025,
Volume and Issue:
16(1)
Published: April 15, 2025
This
study
aims
to
develop
and
evaluate
an
advanced
deep
learning
framework
for
the
detection,
classification,
localization
of
lung
tumors
in
computed
tomography
(CT)
scan
images.
The
research
utilized
a
dataset
1608
CT
images,
including
623
cancerous
985
non-cancerous
cases,
all
carefully
labeled
accurate
tumor
classification
(benign
or
malignant),
localization.
preprocessing
involved
optimizing
window
settings,
adjusting
slice
thickness,
applying
data
augmentation
techniques
enhance
model's
robustness
generalizability.
proposed
model
incorporated
innovative
components
such
as
transformer-based
attention
layers,
adaptive
anchor-free
mechanisms,
improved
feature
pyramid
network.
These
features
enabled
efficiently
handle
tasks.
was
split
into
70%
training,
15%
validation,
testing.
A
multi-task
loss
function
used
balance
three
objectives
optimize
performance.
Evaluation
metrics
included
mean
average
precision
(mAP),
intersection
over
union
(IoU),
accuracy,
precision,
recall.
demonstrated
outstanding
performance,
achieving
mAP
96.26%,
IoU
95.76%,
98.11%,
recall
98.83%
on
test
dataset.
It
outperformed
existing
models,
You
Only
Look
Once
(YOLO)v9
YOLOv10,
with
YOLOv10
95.23%
YOLOv9
95.70%.
showed
faster
convergence,
better
stability,
superior
detection
capabilities,
particularly
localizing
smaller
tumors.
Its
significantly
diagnostic
accuracy
operational
efficiency.
offers
robust
scalable
solution
cancer
providing
real-time
inference,
learning,
high
accuracy.
holds
significant
potential
clinical
integration
improve
outcomes
patient
care.
Biomedical Physics & Engineering Express,
Journal Year:
2024,
Volume and Issue:
10(4), P. 045005 - 045005
Published: April 25, 2024
Abstract
The
intricate
nature
of
lung
cancer
treatment
poses
considerable
challenges
upon
diagnosis.
Early
detection
plays
a
pivotal
role
in
mitigating
its
escalating
global
mortality
rates.
Consequently,
there
are
pressing
demands
for
robust
and
dependable
early
diagnostic
systems.
However,
the
technological
limitations
complexity
disease
make
it
challenging
to
implement
an
efficient
screening
system.
AI-based
CT
image
analysis
techniques
showing
significant
contributions
development
computer-assisted
(CAD)
systems
screening.
Various
existing
research
groups
working
on
implementing
assessing
classifying
cancer.
different
structures
inside
is
high
comprehension
information
inherited
by
them
more
complex
even
after
applying
advanced
feature
extraction
selection
techniques.
Traditional
classical
may
struggle
capture
interdependencies
between
features.
They
get
stuck
local
optima
sometimes
require
additional
exploration
strategies.
also
with
combinatorial
optimization
problems
when
applied
prominent
space.
This
paper
proposed
methodology
overcome
using
Vision
Transformer
(FexViT)
Feature
Quantum
Computing
based
Quadratic
unconstrained
binary
(QC-FSelQUBO)
technique.
algorithm
shows
better
performance
compared
other
showed
as
evaluated
necessary
output
measures,
such
accuracy,
Area
under
roc
(receiver
operating
characteristics)
curve,
precision,
sensitivity,
specificity,
obtained
94.28%,
99.10%,
96.17%,
90.16%
97.46%.
further
advancement
CAD
essential
meet
demand
reliable
diagnosis
cancer,
which
can
be
addressed
leading
quantum
computation
growing
technology
ahead.