Predicting CO2 Emissions with Advanced Deep Learning Models and a Hybrid Greylag Goose Optimization Algorithm
Amel Ali Alhussan,
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Mohamed A. S. Metwally,
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S. K. Towfek
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et al.
Mathematics,
Journal Year:
2025,
Volume and Issue:
13(9), P. 1481 - 1481
Published: April 30, 2025
Global
carbon
dioxide
(CO2)
emissions
are
increasing
and
present
substantial
environmental
sustainability
challenges,
requiring
the
development
of
accurate
predictive
models.
Due
to
non-linear
temporal
nature
data,
traditional
machine
learning
methods—which
work
well
when
data
structured—struggle
provide
effective
predictions.
In
this
paper,
we
propose
a
general
framework
that
combines
advanced
deep
models
(such
as
GRU,
Bidirectional
GRU
(BIGRU),
Stacked
Attention-based
BIGRU)
with
novel
hybridized
optimization
algorithm,
GGBERO,
which
is
combination
Greylag
Goose
Optimization
(GGO)
Al-Biruni
Earth
Radius
(BER).
First,
experiments
showed
ensemble
such
CatBoost
Gradient
Boosting
addressed
static
features
effectively,
while
time-dependent
patterns
proved
more
challenging
predict.
Transitioning
recurrent
neural
network
architectures,
mainly
BIGRU,
enabled
modeling
sequential
dependence
on
data.
The
empirical
results
show
GGBERO-optimized
BIGRU
model
produced
Mean
Squared
Error
(MSE)
1.0
×
10−5,
best
tested
approach.
Statistical
methods
like
Wilcoxon
Signed
Rank
Test
ANOVA
were
employed
validate
framework’s
effectiveness
in
improving
evaluation,
confirming
significance
robustness
improvements
due
framework.
addition
accuracy
CO2
forecasting,
integrated
approach
delivers
interpretable
explanations
significant
factors
emissions,
aiding
policymakers
researchers
focused
climate
change
mitigation
data-driven
decision-making.
Language: Английский
Monkeypox diagnosis based on probabilistic K-nearest neighbors (PKNN) algorithm
Ahmed I. Saleh,
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Shaimaa A. Hussien
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Computers in Biology and Medicine,
Journal Year:
2025,
Volume and Issue:
186, P. 109676 - 109676
Published: Jan. 23, 2025
Language: Английский
Multi-source physical information driven deep learning in intelligent education: Unleashing the potential of deep neural networks in complex educational evaluation
Zhizhong Xing,
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Ying Yang,
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Li Tan
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et al.
AIP Advances,
Journal Year:
2025,
Volume and Issue:
15(2)
Published: Feb. 1, 2025
With
the
urgent
global
demand
for
sustainable
development,
intelligent
education
driven
by
multi-source
physical
information
has
attracted
widespread
attention
as
an
innovative
educational
model.
However,
in
context
of
dual
carbon,
achieving
and
efficient
development
faces
many
difficulties,
one
important
challenges
is
how
to
effectively
evaluate
students.
The
application
deep
neural
networks
evaluation
direction
digitization.
Currently,
there
need
conduct
research
on
value
empowering
with
networks.
We
first
studied
principles
characteristics
network
technology
evaluation;
second,
three
major
advantages
were
pointed
out:
objectivity
evaluating
diversified
data,
accuracy
perception
information,
mining
data
finally,
key
faced
clarified
from
perspectives
environment,
theoretical
knowledge,
interpretability.
This
provides
new
ideas
methods
lays
foundation
breaking
through
traditional
era
carbon
development.
Language: Английский
Enhancing Monkeypox Detection With Efficientnet-B5 And Image Augmentation Fusion Technique
Abdelrahman Omar Yusuf,
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ABUBAKAR SADIQ ABDULLAHI,
No information about this author
M. Isah
No information about this author
et al.
International Journal of Scientific Research in Science and Technology,
Journal Year:
2024,
Volume and Issue:
11(6), P. 646 - 661
Published: Dec. 12, 2024
The
recent
surge
of
monkeypox
infections
worldwide
has
underscored
the
need
for
rapid,
accurate
diagnostic
tools,
particularly
in
regions
with
limited
access
to
laboratory-based
tests.
This
study
employs
deep
learning,
utilizing
a
pre-trained
efficientNet-B5
model
through
transfer
classify
from
digital
skin
lesion
images.
Data
was
compiled
Kaggle,
web
scraping,
and
hospital
records,
covering
both
similar
conditions
such
as
chickenpox,
measles
smallpox.
dataset
preprocessed
using
advanced
augmentation
fusion
techniques,
enhancing
image
diversity
maintaining
features
critical
model's
efficacy.
achieved
impressive
results,
demonstrating
99.47%
accuracy,
99.19%
precision
recall
99.72
monkeypox.
These
findings
suggest
that
model,
supported
by
fusion,
can
serve
reliable
tool
detecting
monkeypox,
providing
scalable
solution
early
identification
public
health
intervention
resource-constrained
settings.
Language: Английский