DropletCoin DropletCoin: Pioneering Sustainable AI and Emerging Technologies through Blockchain Innovation
Tyrone Moodley
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Published: Jan. 5, 2025
DropletCoin
represents
an
innovative
fusion
of
blockchain
technology
and
renewable
energy
solutions,
targeting
the
substantial
demands
AI
emerging
technologies.
This
paper
presents
UMD
v3.0
IoT
device,
designed
for
logging
solar
production,
its
seamless
integration
with
Dandelion
Blockchain
efficient
data
capture
processing.
By
utilizing
tokenized
credits
IoT-based
monitoring,
enables
decentralized,
carbon-neutral
computing
networks.
Findings
reveal
a
30%
reduction
in
costs
40%
decrease
carbon
emissions
smart
city
applications.
Language: Английский
Predicting the Temperature of a Permanent Magnet Synchronous Motor: A Comparative Study of Artificial Neural Network Algorithms
Technologies,
Journal Year:
2025,
Volume and Issue:
13(3), P. 120 - 120
Published: March 17, 2025
The
accurate
prediction
of
temperature
in
Permanent
Magnet
Synchronous
Motors
(PMSMs)
has
always
been
essential
for
monitoring
performance
and
enabling
predictive
maintenance
the
industrial
sector.
This
study
examines
efficiency
a
set
artificial
neural
network
(ANN)
models,
namely
Multilayer
Perceptron
(MLP),
Long
Short-Term
Memory
(LSTM),
Recurrent
Neural
Network
(RNN),
Convolutional
(CNN),
predicting
Temperature.
A
comparative
evaluation
is
conducted
using
common
indicators,
including
root
mean
square
error
(RMSE),
absolute
(MAE),
coefficient
determination
(R2),
to
assess
accuracy
each
model.
intent
identify
most
favorable
model
that
balances
high
with
low
computational
cost.
Language: Английский
Faults Detection and Diagnosis of a Large-Scale PV System by Analyzing Power Losses and Electric Indicators Computed Using Random Forest and KNN-Based Prediction Models
Energies,
Journal Year:
2025,
Volume and Issue:
18(10), P. 2482 - 2482
Published: May 12, 2025
Accurate
and
reliable
fault
detection
in
photovoltaic
(PV)
systems
is
essential
for
optimizing
their
performance
durability.
This
paper
introduces
a
novel
approach
diagnosis
large-scale
PV
systems,
utilizing
power
loss
analysis
predictive
models
based
on
Random
Forest
(RF)
K-Nearest
Neighbors
(KNN)
algorithms.
The
proposed
methodology
establishes
baseline
model
of
the
system’s
healthy
behavior
under
normal
operating
conditions,
enabling
real-time
deviations
between
expected
actual
performance.
Faults
such
as
string
disconnections,
module
short-circuits,
shading
effects
have
been
identified
using
two
key
indicators:
current
error
(Ec)
voltage
(Ev).
By
focusing
losses
indicator,
this
method
provides
high-accuracy
without
requiring
extensive
labeled
data,
significant
advantage
where
data
acquisition
can
be
challenging.
Additionally,
contribution
work
identification
correction
faulty
sensors,
specifically
pyranometer
misalignment,
which
leads
to
inaccurate
irradiation
measurements
disrupts
diagnosis.
ensures
input
models,
RF
achieved
an
R2
0.99657
prediction
0.99459
prediction,
while
KNN
reached
0.99674
estimation,
improving
both
accuracy
overall
outlined
was
experimentally
validated
real-world
from
500
kWp
grid-connected
system
Ain
El
Melh,
Algeria.
results
demonstrate
that
innovative
offers
efficient,
scalable
solution
detection,
enhancing
reliability
large
reducing
maintenance
costs.
Language: Английский
Enhanced Fault Detection in Photovoltaic Panels Using CNN-Based Classification with PyQt5 Implementation
Sensors,
Journal Year:
2024,
Volume and Issue:
24(22), P. 7407 - 7407
Published: Nov. 20, 2024
Solar
photovoltaic
systems
have
increasingly
become
essential
for
harvesting
renewable
energy.
However,
as
these
grow
in
prevalence,
the
issue
of
end
life
modules
is
also
increasing.
Regular
maintenance
and
inspection
are
vital
to
extend
lifespan
systems,
minimize
energy
losses,
protect
environment.
This
paper
presents
an
innovative
explainable
AI
model
detecting
anomalies
solar
panels
using
enhanced
convolutional
neural
network
(CNN)
VGG16
architecture.
The
effectively
identifies
physical
electrical
changes,
such
dust
bird
droppings,
implemented
PyQt5
Python
tool
create
a
user-friendly
interface
that
facilitates
decision-making
users.
Key
processes
included
dataset
balancing
through
oversampling
data
augmentation
expand
dataset.
achieved
impressive
performance
metrics:
91.46%
accuracy,
98.29%
specificity,
F1
score
91.67%.
Overall,
it
enhances
power
generation
efficiency
prolongs
while
minimizing
environmental
risks.
Language: Английский