Scientific Reports,
Journal Year:
2023,
Volume and Issue:
13(1)
Published: Oct. 9, 2023
Abstract
Since
the
World
Health
Organization
declared
COVID-19
a
pandemic
in
2020,
global
community
has
faced
ongoing
challenges
controlling
and
mitigating
transmission
of
SARS-CoV-2
virus,
as
well
its
evolving
subvariants
recombinants.
A
significant
challenge
during
not
only
been
accurate
detection
positive
cases
but
also
efficient
prediction
risks
associated
with
complications
patient
survival
probabilities.
These
tasks
entail
considerable
clinical
resource
allocation
attention.
In
this
study,
we
introduce
COVID-Net
Biochem,
versatile
explainable
framework
for
constructing
machine
learning
models.
We
apply
to
predict
likelihood
developing
Acute
Kidney
Injury
hospitalization,
utilizing
biochemical
data
transparent,
systematic
approach.
The
proposed
approach
advances
model
design
by
seamlessly
integrating
domain
expertise
explainability
tools,
enabling
decisions
be
based
on
key
biomarkers.
This
fosters
more
transparent
interpretable
decision-making
process
made
machines
specifically
medical
applications.
More
specifically,
comprises
two
phases:
first
phase,
referred
“clinician-guided
design”
dataset
is
preprocessed
using
AI
expert
input.
To
better
demonstrate
prepared
benchmark
carefully
curated
markers
clinician
assessments
kidney
injury
patients.
was
selected
from
cohort
1366
individuals
at
Stony
Brook
University.
Moreover,
designed
trained
diverse
collection
models,
encompassing
gradient-based
boosting
tree
architectures
deep
transformer
architectures,
markers.
second
called
“explainability-driven
refinement”
employs
methods
gain
deeper
understanding
each
model’s
identify
overall
impact
individual
bias
identification.
context,
used
models
constructed
previous
phase
task
analyzed
outcomes
alongside
over
8
years
experience
validity
made.
explainability-driven
insights
obtained,
conjunction
feedback,
are
then
utilized
guide
refine
training
policies
architectural
iteratively.
aims
enhance
performance
trustworthiness
final
Employing
framework,
attained
93.55%
accuracy
88.05%
predicting
complications.
have
available
through
an
open-source
platform.
Although
production-ready
solution,
study
serve
catalyst
scientists,
researchers,
citizen
scientists
develop
innovative
trustworthy
decision
support
solutions,
ultimately
assisting
clinicians
worldwide
managing
outcomes.
International Journal of Computational and Experimental Science and Engineering,
Journal Year:
2024,
Volume and Issue:
10(4)
Published: Oct. 8, 2024
COVID-19
has
affected
hundreds
of
millions
individuals,
seriously
harming
the
global
population’s
health,
welfare,
and
economy.
Furthermore,
health
facilities
are
severely
overburdened
due
to
record
number
cases,
which
makes
prompt
accurate
diagnosis
difficult.
Automatically
identifying
infected
individuals
promptly
placing
them
under
special
care
is
a
critical
step
in
reducing
burden
such
issues.
Convolutional
Neural
Networks
(CNN)
other
machine
learning
techniques
can
be
utilized
address
this
demand.
Many
existing
Deep
models,
albeit
producing
intended
outcomes,
were
developed
using
parameters,
making
unsuitable
for
use
on
devices
with
constrained
resources.
Motivated
by
fact,
novel
lightweight
deep
model
based
Efficient
Channel
Attention
(ECA)
module
SqueezeNet
architecture,
work
identify
patients
from
chest
X-ray
CT
images
initial
phases
disease.
After
proposed
was
tested
different
datasets
two,
three
four
classes,
results
show
its
better
performance
over
models.
The
outcomes
shown
that,
comparison
current
heavyweight
our
models
reduced
cost
memory
requirements
computing
resources
dramatically,
while
still
achieving
comparable
performance.
These
support
notion
that
help
diagnose
Covid-19
being
easily
implemented
low-resource
low-processing
devices.
Infectious Medicine,
Journal Year:
2024,
Volume and Issue:
3(1), P. 100095 - 100095
Published: Feb. 21, 2024
The
COVID-19
pandemic
has
created
unprecedented
challenges
worldwide.
Artificial
intelligence
(AI)
technologies
hold
tremendous
potential
for
tackling
key
aspects
of
management
and
response.
In
the
present
review,
we
discuss
possibilities
AI
technology
in
addressing
global
posed
by
pandemic.
First,
outline
multiple
impacts
current
on
public
health,
economy,
society.
Next,
focus
innovative
applications
advanced
areas
such
as
prediction,
detection,
control,
drug
discovery
treatment.
Specifically,
AI-based
predictive
analytics
models
can
use
clinical,
epidemiological,
omics
data
to
forecast
disease
spread
patient
outcomes.
Additionally,
deep
neural
networks
enable
rapid
diagnosis
through
medical
imaging.
Intelligent
systems
support
risk
assessment,
decision-making,
social
sensing,
thereby
improving
epidemic
control
health
policies.
Furthermore,
high-throughput
virtual
screening
enables
accelerate
identification
therapeutic
candidates
opportunities
repurposing.
Finally,
future
research
directions
combating
COVID-19,
emphasizing
importance
interdisciplinary
collaboration.
Though
promising,
barriers
related
model
generalization,
quality,
infrastructure
readiness,
ethical
risks
must
be
addressed
fully
translate
these
innovations
into
real-world
impacts.
Multidisciplinary
collaboration
engaging
diverse
expertise
stakeholders
is
imperative
developing
robust,
responsible,
human-centered
solutions
against
emergencies.
Journal Of Big Data,
Journal Year:
2024,
Volume and Issue:
11(1)
Published: Jan. 10, 2024
Abstract
Chest
diseases,
especially
COVID-19,
have
quickly
spread
throughout
the
world
and
caused
many
deaths.
Finding
a
rapid
accurate
diagnostic
tool
was
indispensable
to
combating
these
diseases.
Therefore,
scientists
thought
of
combining
chest
X-ray
(CXR)
images
with
deep
learning
techniques
rapidly
detect
people
infected
COVID-19
or
any
other
disease.
Image
segmentation
as
preprocessing
step
has
an
essential
role
in
improving
performance
techniques,
it
could
separate
most
relevant
features
better
train
techniques.
several
approaches
were
proposed
tackle
image
problem
accurately.
Among
methods,
multilevel
thresholding-based
methods
won
significant
interest
due
their
simplicity,
accuracy,
relatively
low
storage
requirements.
However,
increasing
threshold
levels,
traditional
failed
achieve
segmented
reasonable
amount
time.
researchers
recently
used
metaheuristic
algorithms
this
problem,
but
existing
still
suffer
from
slow
convergence
speed
stagnation
into
local
minima
number
levels
increases.
study
presents
alternative
technique
based
on
enhanced
version
Kepler
optimization
algorithm
(KOA),
namely
IKOA,
segment
CXR
at
small,
medium,
high
levels.
Ten
are
assess
IKOA
ten
(T-5,
T-7,
T-8,
T-10,
T-12,
T-15,
T-18,
T-20,
T-25,
T-30).
To
observe
its
effectiveness,
is
compared
terms
indicators.
The
experimental
outcomes
disclose
superiority
over
all
algorithms.
Furthermore,
IKOA-based
eight
different
newly
CNN
model
called
CNN-IKOA
find
out
effectiveness
step.
Five
indicators,
overall
precision,
recall,
F1-score,
specificity,
CNN-IKOA’s
effectiveness.
CNN-IKOA,
according
outcomes,
outstanding
for
where
reach
94.88%
96.57%
95.40%
recall.
Neural Computing and Applications,
Journal Year:
2024,
Volume and Issue:
36(16), P. 9023 - 9052
Published: April 1, 2024
Abstract
Coffee
bean
production
can
encounter
challenges
due
to
fluctuations
in
global
coffee
prices,
impacting
the
economic
stability
of
some
countries
that
heavily
depend
on
production.
The
primary
objective
is
evaluate
how
effectively
various
pre-trained
models
predict
types
using
advanced
deep
learning
techniques.
selection
an
optimal
model
crucial,
given
growing
popularity
specialty
and
necessity
for
precise
classification.
We
conducted
a
comprehensive
comparison
several
models,
including
AlexNet,
LeNet,
HRNet,
Google
Net,
Mobile
V2
ResNet
(50),
VGG,
Efficient,
Darknet,
DenseNet,
utilizing
coffee-type
dataset.
By
leveraging
transfer
fine-tuning,
we
assess
generalization
capabilities
classification
task.
Our
findings
emphasize
substantial
impact
choice
model's
performance,
with
certain
demonstrating
higher
accuracy
faster
convergence
than
conventional
alternatives.
This
study
offers
thorough
evaluation
architectural
regarding
their
effectiveness
Through
result
metrics,
sensitivity
(1.0000),
specificity
(0.9917),
precision
(0.9924),
negative
predictive
value
F1
score
(0.9962),
our
analysis
provides
nuanced
insights
into
intricate
landscape
models.
Journal of Applied Biomedicine,
Journal Year:
2023,
Volume and Issue:
43(3), P. 528 - 550
Published: June 26, 2023
Around
the
world,
several
lung
diseases
such
as
pneumonia,
cardiomegaly,
and
tuberculosis
(TB)
contribute
to
severe
illness,
hospitalization
or
even
death,
particularly
for
elderly
medically
vulnerable
patients.
In
last
few
decades,
new
types
of
lung-related
have
taken
lives
millions
people,
COVID-19
has
almost
6.27
million
lives.
To
fight
against
diseases,
timely
correct
diagnosis
with
appropriate
treatment
is
crucial
in
current
pandemic.
this
study,
an
intelligent
recognition
system
seven
been
proposed
based
on
machine
learning
(ML)
techniques
aid
medical
experts.
Chest
X-ray
(CXR)
images
were
collected
from
publicly
available
databases.
A
lightweight
convolutional
neural
network
(CNN)
used
extract
characteristic
features
raw
pixel
values
CXR
images.
The
best
feature
subset
identified
using
Pearson
Correlation
Coefficient
(PCC).
Finally,
extreme
(ELM)
perform
classification
task
assist
faster
reduced
computational
complexity.
CNN-PCC-ELM
model
achieved
accuracy
96.22%
Area
Under
Curve
(AUC)
99.48%
eight
class
classification.
outcomes
demonstrated
better
performance
than
existing
state-of-the-art
(SOTA)
models
case
COVID-19,
detection
both
binary
multiclass
classifications.
For
classification,
precision,
recall
fi-score
ROC
are
100%,
99%,
100%
99.99%
respectively
demonstrating
its
robustness.
Therefore,
overshadowed
pioneering
accurately
differentiate
other
that
can
physicians
treating
patient
effectively.
Applied Intelligence,
Journal Year:
2024,
Volume and Issue:
54(6), P. 4756 - 4780
Published: March 1, 2024
Abstract
The
global
spread
of
epidemic
lung
diseases,
including
COVID-19,
underscores
the
need
for
efficient
diagnostic
methods.
Addressing
this,
we
developed
and
tested
a
computer-aided,
lightweight
Convolutional
Neural
Network
(CNN)
rapid
accurate
identification
diseases
from
29,131
aggregated
Chest
X-ray
(CXR)
images
representing
seven
disease
categories.
Employing
five-fold
cross-validation
method
to
ensure
robustness
our
results,
CNN
model,
optimized
heterogeneous
embedded
devices,
demonstrated
superior
performance.
It
achieved
98.56%
accuracy,
outperforming
established
networks
like
ResNet50,
NASNetMobile,
Xception,
MobileNetV2,
DenseNet121,
ViT-B/16
across
precision,
recall,
F1-score,
AUC
metrics.
Notably,
model
requires
significantly
less
computational
power
only
55
minutes
average
training
time
per
fold,
making
it
highly
suitable
resource-constrained
environments.
This
study
contributes
developing
efficient,
in
medical
image
analysis,
underscoring
their
potential
enhance
point-of-care
processes.