In
response
to
the
escalating
challenges
posed
by
climate
change
and
industrial
inefficiency,
this
thesis
presents
a
comprehensive
investigation
aimed
at
advancing
predictive
modeling
of
global
CO2
emissions
enhancing
operational
efficiency
in
steel
manufacturing
through
Electric
Arc
Furnace
(EAF)
temperature
optimization.
Leveraging
rich
dataset
sourced
from
World
Development
Indicators
database
alongside
meticulously
curated
specific
EAF
operations,
our
study
applies
an
innovative
blend
econometric
machine
learning
techniques,
including
Pooled
Ordinary
Least
Squares
(Pooled
OLS),
Random
Effects
(RE),
Fixed
(FE),
Seasonal
Autoregressive
Integrated
Moving
Average
with
Exogenous
Variables
(SARIMAX)
models.
The
objective
is
twofold:
refine
emission
forecasts
establish
reliable
model
for
predicting
flat
bath
production,
critical
determinant
energy
product
quality.
Our
analysis
elucidates
complex
dynamics
governing
emissions,
identifying
key
factors
such
as
renewable
consumption,
GDP
per
unit
use,
total
greenhouse
gas
significant
determinants.
These
insights
not
only
contribute
academic
discourse
on
environmental
sustainability
but
also
provide
solid
foundation
policymakers
devise
more
effective
strategies
reduction.
Concurrently,
realm
manufacturing,
breaks
new
ground
harnessing
data
predict
unprecedented
accuracy.
This
advancement
holds
implications
conservation
optimization,
addressing
urgent
need
practices.
bridges
gap
between
theoretical
research
practical
application
sets
benchmark
utilization
data-driven
approaches
science
engineering.
By
offering
detailed
comparison
techniques
their
prowess,
it
guides
future
directions
underscores
potential
sophisticated
analytical
methods
tackling
some
most
pressing
challenges.
Ultimately,
role
achieving
sustainable
future,
providing
valuable
that
can
inform
both
policy
process
Energies,
Journal Year:
2024,
Volume and Issue:
17(17), P. 4379 - 4379
Published: Sept. 1, 2024
The
accurate
prediction
of
carbon
dioxide
(CO2)
emissions
in
the
building
industry
can
provide
data
support
and
theoretical
insights
for
sustainable
development.
This
study
proposes
a
hybrid
model
predicting
CO2
that
combines
multi-strategy
improved
particle
swarm
optimization
(MSPSO)
algorithm
with
long
short-term
memory
(LSTM)
model.
Firstly,
(PSO)
is
enhanced
by
combining
tent
chaotic
mapping,
mutation
least-fit
particles,
random
perturbation
strategy.
Subsequently,
performance
MSPSO
evaluated
using
set
23
internationally
recognized
test
functions.
Finally,
predictive
MSPSO-LSTM
assessed
from
Yangtze
River
Delta
region
as
case
study.
results
indicate
coefficient
determination
(R2)
reaches
0.9677,
which
more
than
10%
higher
BP,
LSTM,
CNN
non-hybrid
models
demonstrates
significant
advantages
over
PSO-LSTM,
GWO-LSTM,
WOA-LSTM
models.
Additionally,
mean
square
error
(MSE)
2445.6866
Mt,
absolute
(MAE)
4.1010
both
significantly
lower
those
Overall,
high
accuracy
industry,
offering
robust
development
industry.
Fractal and Fractional,
Journal Year:
2024,
Volume and Issue:
8(3), P. 145 - 145
Published: Feb. 29, 2024
In
recent
years,
global
attention
to
carbon
emissions
has
increased,
becoming
one
of
the
main
drivers
climate
change.
Accurate
prediction
emission
trends
in
small
and
medium-sized
countries
scientific
regulation
can
provide
theoretical
support
policy
references
for
effective
rational
use
energy
promotion
coordinated
development
energy,
environment,
economy.
This
paper
establishes
a
grey
model
using
classical
Logistic
mathematical
determined
environment
investigate
system.
At
same
time,
we
basic
principle
fractional-order
accumulation
establish
with
obtain
parameter
estimation
time-response
equation
new
by
solving
through
theory
related
operators.
The
particle
swarm
optimization
algorithm
is
used
complete
process
order
fractional
optimal
order.
Then,
applied
predict
five
medium-emission
countries:
Ethiopia,
Djibouti,
Ghana,
Belgium,
Austria.
shows
better
advantages
validity
analysis
process,
simulation
results
indicate
that
proposed
this
stronger
stability
accuracy
than
other
comparative
models,
proving
model’s
validity.
Finally,
forecast
these
years
2021–2025,
are
analyzed,
relevant
recommendations
made.
Frontiers in Energy Research,
Journal Year:
2024,
Volume and Issue:
12
Published: April 5, 2024
With
the
increasing
complexity
of
power
systems
and
proliferation
renewable
energy
sources,
task
calculating
carbon
emissions
has
become
increasingly
challenging.
To
address
these
challenges,
we
developed
a
new
method
for
predicting
emission
factors.
Bayesian
optimization
technique
graphical
convolutional
networks
with
long-
short-term
network
(BO-TGNN)
is
used
to
predict
system.
The
aims
quickly
day-ahead
system
nodes
enhanced
feature
extraction
optimized
training
hyperparameters.
effectiveness
proposed
demonstrated
through
simulation
tests
on
three
different
using
four
deep
learning
algorithms.
provides
tailored
solution
evolving
needs
reduction
efforts
significant
step
forward
in
addressing
calculations
modern
systems.
In
response
to
the
escalating
challenges
posed
by
climate
change
and
industrial
inefficiency,
this
thesis
presents
a
comprehensive
investigation
aimed
at
advancing
predictive
modeling
of
global
CO2
emissions
enhancing
operational
efficiency
in
steel
manufacturing
through
Electric
Arc
Furnace
(EAF)
temperature
optimization.
Leveraging
rich
dataset
sourced
from
World
Development
Indicators
database
alongside
meticulously
curated
specific
EAF
operations,
our
study
applies
an
innovative
blend
econometric
machine
learning
techniques,
including
Pooled
Ordinary
Least
Squares
(Pooled
OLS),
Random
Effects
(RE),
Fixed
(FE),
Seasonal
Autoregressive
Integrated
Moving
Average
with
Exogenous
Variables
(SARIMAX)
models.
The
objective
is
twofold:
refine
emission
forecasts
establish
reliable
model
for
predicting
flat
bath
production,
critical
determinant
energy
product
quality.
Our
analysis
elucidates
complex
dynamics
governing
emissions,
identifying
key
factors
such
as
renewable
consumption,
GDP
per
unit
use,
total
greenhouse
gas
significant
determinants.
These
insights
not
only
contribute
academic
discourse
on
environmental
sustainability
but
also
provide
solid
foundation
policymakers
devise
more
effective
strategies
reduction.
Concurrently,
realm
manufacturing,
breaks
new
ground
harnessing
data
predict
unprecedented
accuracy.
This
advancement
holds
implications
conservation
optimization,
addressing
urgent
need
practices.
bridges
gap
between
theoretical
research
practical
application
sets
benchmark
utilization
data-driven
approaches
science
engineering.
By
offering
detailed
comparison
techniques
their
prowess,
it
guides
future
directions
underscores
potential
sophisticated
analytical
methods
tackling
some
most
pressing
challenges.
Ultimately,
role
achieving
sustainable
future,
providing
valuable
that
can
inform
both
policy
process