Highlights in Science Engineering and Technology,
Journal Year:
2024,
Volume and Issue:
123, P. 625 - 630
Published: Dec. 24, 2024
Using
machine
learning
to
process
lung
medical
images
can
greatly
improve
hospital
efficiency
and
save
costs.
With
the
increase
in
number
of
patients,
demand
for
pneumonia
pathologic
recognition
systems
is
increasing.
Therefore,
organic
combination
two
great
significance
reduce
pressure
on
health
systems.
This
paper
presents
a
deep-learning
method
identify
predict
pneumonia.
Convolutional
Neural
Networks,
ResNet,
DenseNet
as
well
improved
integrated
models,
known
normal
were
used
training
sets
determine
whether
present.
The
results
showed
that
original
CNN
ResNet
network
had
best
effect,
F1-score
reached
0.88.
this
these
neural
networks.
Finally,
model
0.89,
which
was
able
more
accurately.
provides
new
idea
selecting,
integrating,
applying
field.
International Journal of Advanced Research in Science Communication and Technology,
Journal Year:
2025,
Volume and Issue:
unknown, P. 52 - 63
Published: April 2, 2025
The
rapid
accumulation
of
fluid
in
the
lungs
is
hallmark
fatal
illness
known
as
pneumonia.
Therefore,
it
crucial
to
get
a
diagnosis
and
medication
soon
possible
order
stop
condition
from
getting
worse.
In
diagnose
pneumonia,
chest
X-rays
(CXR)
are
typically
used.
This
study
assesses
efficacy
ResNet50
other
pre-trained
DL
models
classifying
X-ray
images
evidence
proposed
model
achieves
an
accuracy
93.06%,
precision
88.97%,
recall
96.78%,
F1-score
92.71%,
surpassing
MobileNet,
EfficientNetB0,
Xception
across
all
performance
metrics.
has
been
further
tested
shown
be
reliable
effective
differentiating
between
normal
pneumonia
patients
utilizing
ROC
curve
analysis,
accuracy-loss
trends,
confusion
matrix.
highlights
superiority
automated
detection,
offering
promising
tool
for
early
clinical
decision
support.
results
highlight
how
deep
learning-based
methods
have
ability
improve
radiological
evaluations,
which
turn
can
decrease
diagnostic
mistakes
increase
patient
outcomes.
research
contributes
developing
AI-driven
medical
imaging
solutions,
facilitating
more
accurate
scalable
detection
real-world
healthcare
settings
Journal of Machine and Computing,
Journal Year:
2025,
Volume and Issue:
unknown, P. 1152 - 1159
Published: April 5, 2025
In
order
to
effectively
treat
pneumonia,
which
is
still
a
major
worldwide
health
problem,
rapid
and
precise
diagnosis
essential.
This
paper
introduces
an
ensemble
strategy
improve
pneumonia
identification
using
chest
X-ray
images
(CXM),
utilising
developments
in
deep
learning.
We
propose
Ensemble
Deep
Neural
Networks
(EDNN),
comprising
cascaded
ShuffleNet
Support
Vector
Machines
(SVM),
harness
diverse
features
classification
performance.
The
method
combines
the
strengths
of
multiple
models,
mitigating
individual
weaknesses
enhancing
overall
diagnostic
accuracy.
Implementation
carried
out
Python,
proposed
approach
achieves
impressive
accuracy
97.89%
on
benchmark
datasets.
Through
extensive
experimentation
validation
datasets,
our
demonstrates
superior
performance
compared
models
existing
state-of-the-art
methods.
Additionally,
we
provide
insights
into
interpretability
predictions,
transparency
trustworthiness
automated
detection
systems.
framework
holds
promise
for
robust
reliable
clinical
settings,
facilitating
timely
interventions
improving
patient
outcomes.
Life,
Journal Year:
2025,
Volume and Issue:
15(5), P. 745 - 745
Published: May 6, 2025
The
integration
of
artificial
intelligence
and
personalized
medicine
is
transforming
HIV
management
by
enhancing
diagnostics,
treatment
optimization,
disease
monitoring.
Advances
in
machine
learning,
deep
neural
networks,
multi-omics
data
analysis
enable
precise
prognostication,
tailored
antiretroviral
therapy,
early
detection
drug
resistance.
AI-driven
models
analyze
vast
genomic,
proteomic,
clinical
datasets
to
refine
strategies,
predict
progression,
pre-empt
therapy
failures.
Additionally,
AI-powered
diagnostic
tools,
including
learning
imaging
natural
language
processing,
improve
screening
accuracy,
particularly
resource-limited
settings.
Despite
these
innovations,
challenges
such
as
privacy,
algorithmic
bias,
the
need
for
validation
remain.
Successful
AI
into
care
requires
robust
regulatory
frameworks,
interdisciplinary
collaboration,
equitable
technology
access.
This
review
explores
both
potential
limitations
management,
emphasizing
ethical
implementation
expanded
research
maximize
its
impact.
approaches
hold
great
promise
a
more
personalized,
efficient,
effective
future
care.
iRadiology,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 11, 2025
ABSTRACT
Background
The
integration
of
artificial
intelligence
(AI)
in
radiology
has
opened
new
possibilities
for
diagnostic
accuracy,
with
large
language
models
(LLMs)
showing
potential
supporting
clinical
decision‐making.
While
proprietary
like
ChatGPT
have
gained
attention,
open‐source
alternatives
such
as
Meta
LLaMa
3.1
remain
underexplored.
This
study
aims
to
evaluate
the
accuracy
thoracic
imaging
and
discuss
broader
implications
versus
AI
healthcare.
Methods
(8B
parameter
version)
was
tested
on
126
multiple‐choice
questions
selected
from
Thoracic
Imaging:
A
Core
Review
by
Hobbs
et
al.
These
required
no
image
interpretation.
model’s
answers
were
validated
two
board‐certified
radiologists.
Accuracy
assessed
overall
across
subgroups,
including
intensive
care,
pathology,
anatomy.
Additionally,
a
narrative
review
introduces
three
widely
used
platforms
imaging:
DeepLesion,
ChexNet,
3D
Slicer.
Results
achieved
an
61.1%.
It
performed
well
care
(90.0%)
terms
signs
(83.3%)
but
showed
variability
lower
normal
anatomy
basic
(40.0%).
Subgroup
analysis
revealed
strengths
infectious
pneumonia
pleural
disease,
notable
weaknesses
lung
cancer
vascular
pathology.
Conclusion
demonstrates
promise
NLP
tool
diagnostics,
though
its
performance
highlights
need
refinement
domain‐specific
training.
Open‐source
offer
transparency
accessibility,
while
deliver
consistency.
Both
hold
value,
depending
context
resource
availability.
Bioengineering,
Journal Year:
2024,
Volume and Issue:
11(4), P. 316 - 316
Published: March 26, 2024
Chest
X-ray
(CXR)
examination
serves
as
a
widely
employed
clinical
test
in
medical
diagnostics.
Many
studied
have
tried
to
apply
artificial
intelligence
(AI)
programs
analyze
CXR
images.
Despite
numerous
positive
outcomes,
assessing
the
applicability
of
AI
models
for
comprehensive
diagnostic
support
remains
formidable
challenge.
We
observed
that,
even
when
exhibit
high
accuracy
on
one
dataset,
their
performance
may
deteriorate
tested
another.
To
address
this
issue,
we
propose
incorporating
variational
information
bottleneck
(VIB)
at
patch
level
enhance
generalizability
models.
The
VIB
introduces
probabilistic
model
aimed
approximating
posterior
distribution
latent
variables
given
input
data,
thereby
enhancing
model’s
generalization
capabilities
unseen
data.
Unlike
conventional
approaches
that
flatten
features
and
use
re-parameterization
trick
sample
new
feature,
our
method
applies
2D
feature
maps.
This
design
allows
only
important
pixels
respond,
will
select
patches
an
image.
Moreover,
proposed
patch-level
seamlessly
integrates
with
various
convolutional
neural
networks,
offering
versatile
solution
improve
performance.
Experimental
results
illustrate
enhanced
standard
experiment
settings.
In
addition,
shows
robust
improvement
training
testing
different
datasets.