BMC Medical Informatics and Decision Making,
Journal Year:
2025,
Volume and Issue:
25(1)
Published: Jan. 9, 2025
Urinary
tract
infection
(UTI)
is
a
frequent
health-threatening
condition.
Early
reliable
diagnosis
of
UTI
helps
to
prevent
misuse
or
overuse
antibiotics
and
hence
antibiotic
resistance.
The
gold
standard
for
urine
culture
which
time-consuming
also
an
error
prone
method.
In
this
regard,
complementary
methods
are
demanded.
the
recent
decade,
machine
learning
strategies
that
employ
mathematical
models
on
dataset
extract
most
informative
hidden
information
center
interest
prediction
purposes.
study,
approaches
were
used
finding
important
variables
UTI.
Several
types
machines
including
classical
deep
purpose.
Eighteen
selected
features
from
test,
blood
demographic
data
found
as
features.
Factors
extracted
such
WBC,
nitrite,
leukocyte,
clarity,
color,
blood,
bilirubin,
urobilinogen,
factors
test
like
mean
platelet
volume,
lymphocyte,
glucose,
red
cell
distribution
width,
potassium,
age,
gender
previous
use
determinative
prediction.
An
ensemble
combination
XGBoost,
decision
tree,
light
gradient
boosting
with
voting
scheme
obtained
highest
accuracy
(AUC:
88.53
(0.25),
accuracy:
85.64
(0.20)%),
according
Furthermore,
results
showed
importance
age
This
study
highlighted
potential
suggested.
approach
85.64%.
Gender
Sensors,
Journal Year:
2025,
Volume and Issue:
25(2), P. 543 - 543
Published: Jan. 18, 2025
Efficient
and
reliable
corn
(Zea
mays
L.)
yield
prediction
is
important
for
varietal
selection
by
plant
breeders
management
decision-making
growers.
Unlike
prior
studies
that
focus
mainly
on
county-level
or
controlled
laboratory-scale
areas,
this
study
targets
a
production-scale
area,
better
representing
real-world
agricultural
conditions
offering
more
practical
relevance
farmers.
Therefore,
the
objective
of
our
was
to
determine
best
combination
vegetation
indices
abiotic
factors
predicting
in
rain-fed,
identify
most
suitable
growth
stage
estimation
using
machine
learning,
effective
learning
model
estimation.
Our
used
high-resolution
(6
cm)
aerial
multispectral
imagery.
Sixty-two
different
predictors,
including
soil
properties
(sand,
silt,
clay
percentages),
slope,
spectral
bands
(red,
green,
blue,
red-edge,
NIR),
(GNDRE,
NDRE,
TGI),
color-space
indices,
wavelengths
were
derived
from
data
collected
at
seven
(V4,
V5,
V6,
V7,
V9,
V12,
V14/VT)
stages
corn.
Four
regression
algorithms
evaluated
prediction:
linear
regression,
random
forest,
extreme
gradient
boosting,
boosting
regressor.
A
total
6865
values
training
1716
validation.
Results
show
that,
forest
method,
V14/VT
had
predictions
(RMSE
0.52
Mg/ha
mean
10.19
Mg/ha),
V6
still
feasible.
We
concluded
integrating
factors,
such
as
slope
properties,
significantly
improved
accuracy.
Among
TGI,
HUE,
GNDRE
performed
better.
can
help
farmers
crop
consultants
plan
ahead
future
logistics
through
enhanced
early-season
support
farm
profitability
sustainability.
Cancers,
Journal Year:
2025,
Volume and Issue:
17(1), P. 121 - 121
Published: Jan. 2, 2025
Background/Objectives:
Brain
tumor
classification
is
a
crucial
task
in
medical
diagnostics,
as
early
and
accurate
detection
can
significantly
improve
patient
outcomes.
This
study
investigates
the
effectiveness
of
pre-trained
deep
learning
models
classifying
brain
MRI
images
into
four
categories:
Glioma,
Meningioma,
Pituitary,
No
Tumor,
aiming
to
enhance
diagnostic
process
through
automation.
Methods:
A
publicly
available
Tumor
dataset
containing
7023
was
used
this
research.
The
employs
state-of-the-art
models,
including
Xception,
MobileNetV2,
InceptionV3,
ResNet50,
VGG16,
DenseNet121,
which
are
fine-tuned
using
transfer
learning,
combination
with
advanced
preprocessing
data
augmentation
techniques.
Transfer
applied
fine-tune
optimize
accuracy
while
minimizing
computational
requirements,
ensuring
efficiency
real-world
applications.
Results:
Among
tested
Xception
emerged
top
performer,
achieving
weighted
98.73%
F1
score
95.29%,
demonstrating
exceptional
generalization
capabilities.
These
proved
particularly
effective
addressing
class
imbalances
delivering
consistent
performance
across
various
evaluation
metrics,
thus
their
suitability
for
clinical
adoption.
However,
challenges
persist
improving
recall
Glioma
Meningioma
categories,
black-box
nature
requires
further
attention
interpretability
trust
settings.
Conclusions:
findings
underscore
transformative
potential
imaging,
offering
pathway
toward
more
reliable,
scalable,
efficient
tools.
Future
research
will
focus
on
expanding
diversity,
model
explainability,
validating
settings
support
widespread
adoption
AI-driven
systems
healthcare
ensure
integration
workflows.
Nowadays,
advanced
building
envelopes
not
only
need
to
meet
traditional
design
requirements
but
also
address
emerging
demands,
such
as
achieving
low-carbon
transition
of
buildings
and
mitigating
the
urban
heat
island
(UHI)
effect.
Given
intricacy
indoor
conditions
complexity
variables,
approaches
can
hardly
keep
pace
with
evolving
demands.
Therefore,
integrating
Artificial
Intelligence
(AI)
into
envelope
is
trending
in
recent
years.
This
paper
provides
a
holistic
review
research
on
machine
learning
(ML)
design.
Popular
ML
algorithms,
data
input
requirements,
output
generation
are
first
elucidated,
aiming
shed
light
selection
appropriate
algorithms
for
specific
datasets
achieve
optimal
outcomes.
ML-involved
studies
related
types
(e.g.,
building-integrated
photovoltaic
(BIPV),
green
roofs,
PCM-integrated
walls,
glazing
systems,
etc.)
discussed.
The
further
highlights
capabilities
AI
technologies
predicting
parameters
material
properties,
environmental
impact)
optimizing
criteria
minimizing
energy
consumption),
from
micro-scope
(i.e.,
microenvironment)
macro-scope
impact
heat).
work
anticipated
yield
valuable
insights
promoting
AI-driven
solutions
tackle
both
conventional
challenges
sustainable
development.
Atmosphere,
Journal Year:
2025,
Volume and Issue:
16(2), P. 127 - 127
Published: Jan. 24, 2025
Breathing
in
fine
particulate
matter
of
diameter
less
than
2.5
µm
(PM2.5)
greatly
increases
an
individual’s
risk
cardiovascular
and
respiratory
diseases.
As
climate
change
progresses,
extreme
weather
events,
including
wildfires,
are
expected
to
increase,
exacerbating
air
pollution.
However,
models
often
struggle
capture
pollution
events
due
the
rarity
high
PM2.5
levels
training
datasets.
To
address
this,
we
implemented
cluster-based
undersampling
trained
Transformer
improve
event
prediction
using
various
cutoff
thresholds
(12.1
µg/m3
35.5
µg/m3)
partial
sampling
ratios
(10/90,
20/80,
30/70,
40/60,
50/50).
Our
results
demonstrate
that
threshold,
paired
with
a
20/80
ratio,
achieved
best
performance,
RMSE
2.080,
MAE
1.386,
R2
0.914,
particularly
excelling
forecasting
events.
Overall,
on
augmented
data
significantly
outperformed
those
original
data,
highlighting
importance
resampling
techniques
improving
quality
accuracy,
especially
for
high-pollution
scenarios.
These
findings
provide
critical
insights
into
optimizing
models,
enabling
more
reliable
predictions
By
advancing
ability
forecast
levels,
this
study
contributes
development
informed
public
health
environmental
policies
mitigate
impacts
pollution,
advanced
technology
building
better
digital
twins.
International Journal of Low-Carbon Technologies,
Journal Year:
2025,
Volume and Issue:
20, P. 223 - 233
Published: Jan. 1, 2025
Abstract
Reducing
energy-related
CO2
emissions
is
vital
for
global
climate
targets,
with
Net
Zero
Energy
Buildings
(NZEBs)
playing
a
key
role.
This
study
evaluates
PVSOL
software’s
accuracy
in
simulating
rooftop
photovoltaic
(PV)
system
an
NZEB
Kocaeli,
Turkey.
A
machine
learning
model
enhanced
result
reliability
using
local
weather
data.
The
system’s
first-year
performance
ratio
was
81.9%,
close
to
the
theoretical
84.53%.
435
600
USD
investment
expected
be
recovered
11.42
years,
while
predicts
14.9
years.
findings
confirm
PVSOL’s
PV
systems,
emphasizing
their
effectiveness
reduction
and
energy
transition
efforts.
Infectious Diseases of Poverty,
Journal Year:
2025,
Volume and Issue:
14(1)
Published: Feb. 4, 2025
Distinguishing
between
non-severe
and
severe
dengue
is
crucial
for
timely
intervention
reducing
morbidity
mortality.
World
Health
Organization
(WHO)-recommended
warning
signs
offer
a
practical
approach
clinicians
but
have
limited
sensitivity
specificity.
This
study
aims
to
evaluate
machine
learning
(ML)
model
performance
compared
WHO-recommended
in
predicting
among
laboratory-confirmed
cases
Puerto
Rico.
We
analyzed
data
from
Rico's
Sentinel
Enhanced
Dengue
Surveillance
System
(May
2012-August
2024),
using
40
clinical,
demographic,
laboratory
variables.
Nine
ML
models,
including
Decision
Trees,
K-Nearest
Neighbors,
Naïve
Bayes,
Support
Vector
Machines,
Artificial
Neural
Networks,
AdaBoost,
CatBoost,
LightGBM,
XGBoost,
were
trained
fivefold
cross-validation
evaluated
with
area
under
the
receiver
operating
characteristic
curve
(AUC-ROC),
sensitivity,
A
subanalysis
excluded
hemoconcentration
leukopenia
assess
resource-limited
settings.
An
AUC-ROC
value
of
0.5
indicates
no
discriminative
power,
while
values
closer
1.0
reflect
better
performance.
Among
1708
cases,
24.3%
classified
as
severe.
Gradient
boosting
algorithms
achieved
highest
predictive
performance,
an
97.1%
(95%
CI:
96.0-98.3%)
CatBoost
full
40-variable
feature
set.
Feature
importance
analysis
identified
(≥
20%
increase
during
illness
or
≥
above
baseline
age
sex),
(white
blood
cell
count
<
4000/mm3),
timing
presentation
at
4-6
days
post-symptom
onset
key
predictors.
When
excluding
leukopenia,
was
96.7%
95.5-98.0%),
demonstrating
minimal
reduction
Individual
like
abdominal
pain
restlessness
had
sensitivities
79.0%
64.6%,
lower
specificities
48.4%
59.1%,
respectively.
Combining
3
improved
specificity
(80.9%)
maintaining
moderate
(78.6%),
resulting
74.0%.
especially
gradient
algorithms,
outperformed
traditional
dengue.
Integrating
these
models
into
clinical
decision-support
tools
could
help
identify
high-risk
patients,
guiding
interventions
hospitalization,
monitoring,
administration
intravenous
fluids.
The
confirmed
models'
applicability
settings,
where
access
may
be
limited.
Applied Sciences,
Journal Year:
2025,
Volume and Issue:
15(6), P. 2977 - 2977
Published: March 10, 2025
Encrypted
network
traffic
classification
remains
a
critical
component
in
security
monitoring.
However,
existing
approaches
face
two
fundamental
limitations:
(1)
conventional
methods
rely
on
manual
feature
engineering
and
are
inadequate
handling
high-dimensional
features;
(2)
they
lack
the
capability
to
capture
dynamic
temporal
patterns.
This
paper
introduces
TransECA-Net,
novel
hybrid
deep
learning
architecture
that
addresses
these
limitations
through
key
innovations.
First,
we
integrate
ECA-Net
modules
with
CNN
enable
automated
extraction
efficient
dimension
reduction
via
channel
selection.
Second,
incorporate
Transformer
encoder
model
global
dependencies
multi-head
self-attention,
supplemented
by
residual
connections
for
optimal
gradient
flow.
Extensive
experiments
ISCX
VPN-nonVPN
dataset
demonstrate
superiority
of
our
approach.
TransECA-Net
achieved
an
average
accuracy
98.25%
classifying
12
types
encrypted
traffic,
outperforming
classical
baseline
models
such
as
1D-CNN,
+
LSTM,
TFE-GNN
6.2–14.8%.
Additionally,
it
demonstrated
37.44–48.84%
improvement
convergence
speed
during
training
process.
Our
proposed
framework
presents
new
paradigm
disentanglement
representation
learning.
enables
cybersecurity
systems
achieve
fine-grained
service
identification
(e.g.,
98.9%
VPN
detection)
real-time
responsiveness
(48.8%
faster
than
methods),
providing
technical
support
combating
emerging
cybercrimes
monitoring
illegal
transactions
darknet
networks
contributing
significantly
adaptive
systems.