Zipper Pattern: An Investigation into Psychotic Criminal Detection Using EEG Signals
Diagnostics,
Journal Year:
2025,
Volume and Issue:
15(2), P. 154 - 154
Published: Jan. 11, 2025
Background:
Electroencephalography
(EEG)
signal-based
machine
learning
models
are
among
the
most
cost-effective
methods
for
information
retrieval.
In
this
context,
we
aimed
to
investigate
cortical
activities
of
psychotic
criminal
subjects
by
deploying
an
explainable
feature
engineering
(XFE)
model
using
EEG
dataset.
Methods:
study,
a
new
dataset
was
curated,
containing
signals
from
and
control
groups.
To
extract
meaningful
findings
dataset,
presented
channel-based
extraction
function
named
Zipper
Pattern
(ZPat).
The
proposed
ZPat
extracts
features
analyzing
relationships
between
channels.
selection
phase
XFE
model,
iterative
neighborhood
component
analysis
(INCA)
selector
used
choose
distinctive
features.
classification
phase,
employed
ensemble
distance-based
classifier
achieve
high
performance.
Therefore,
t-algorithm-based
k-nearest
neighbors
(tkNN)
obtain
results.
Directed
Lobish
(DLob)
symbolic
language
derive
interpretable
results
identities
selected
vectors
in
final
ZPat-based
model.
Results:
leave-one-record-out
(LORO)
10-fold
cross-validation
(CV)
were
used.
achieved
over
95%
accuracy
on
curated
Moreover,
connectome
diagram
related
detection
created
DLob-based
artificial
intelligence
(XAI)
method.
Conclusions:
regard,
both
performance
interpretability.
Thus,
contributes
engineering,
psychiatry,
neuroscience,
forensic
sciences.
is
one
pioneering
XAI
investigating
criminal/criminal
individuals.
Language: Английский
CubicPat: Investigations on the Mental Performance and Stress Detection Using EEG Signals
Uğur İnce,
No information about this author
Yunus Talu,
No information about this author
Aleyna Duz
No information about this author
et al.
Diagnostics,
Journal Year:
2025,
Volume and Issue:
15(3), P. 363 - 363
Published: Feb. 4, 2025
Background\Objectives:
Solving
the
secrets
of
brain
is
a
significant
challenge
for
researchers.
This
work
aims
to
contribute
this
area
by
presenting
new
explainable
feature
engineering
(XFE)
architecture
designed
obtain
results
related
stress
and
mental
performance
using
electroencephalography
(EEG)
signals.
Materials
Methods:
Two
EEG
datasets
were
collected
detect
stress.
To
achieve
classification
results,
XFE
model
was
developed,
incorporating
novel
extraction
function
called
Cubic
Pattern
(CubicPat),
which
generates
three-dimensional
vector
coding
channels.
Classification
obtained
cumulative
weighted
iterative
neighborhood
component
analysis
(CWINCA)
selector
t-algorithm-based
k-nearest
neighbors
(tkNN)
classifier.
Additionally,
generated
CWINCA
Directed
Lobish
(DLob).
Results:
The
CubicPat-based
demonstrated
both
interpretability.
Using
10-fold
cross-validation
(CV)
leave-one-subject-out
(LOSO)
CV,
introduced
CubicPat-driven
achieved
over
95%
75%
accuracies,
respectively,
datasets.
Conclusions:
interpretable
deploying
DLob
statistical
analysis.
Language: Английский
TATPat based explainable EEG model for neonatal seizure detection
Türker Tuncer,
No information about this author
Şengül Doğan,
No information about this author
İrem Taşçı
No information about this author
et al.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Nov. 4, 2024
The
most
cost-effective
data
collection
method
is
electroencephalography
(EEG)
to
obtain
meaningful
information
about
the
brain.
Therefore,
EEG
signal
processing
very
important
for
neuroscience
and
machine
learning
(ML).
primary
objective
of
this
research
detect
neonatal
seizures
explain
these
using
new
version
Directed
Lobish.
This
uses
a
publicly
available
dataset
get
comparative
results.
In
order
classify
signals,
an
explainable
feature
engineering
(EFE)
model
has
been
proposed.
EFE
model,
there
are
four
essential
phases
phases:
(i)
automaton
transformer-based
extraction,
(ii)
selection
deploying
cumulative
weight-based
neighborhood
component
analysis
(CWNCA),
(iii)
Lobish
(DLob)
Causal
Connectome
Theory
(CCT)-based
result
generation
(iv)
classification
t
algorithm-based
support
vector
(tSVM).
first
phase,
we
have
used
channel
transformer
numbers
values
divided
into
three
levels
named
(1)
high,
(2)
medium
(3)
low.
By
utilizing
levels,
created
nodes
(each
node
defines
each
level).
extraction
transition
tables
extracted.
proposed
function
termed
Triple
Nodes
Automaton-based
Transition
table
Pattern
(TATPat).
contains
19
channels
9
(=
32)
connection
in
defined
automaton.
Thus,
presented
TATPat
extracts
3249
×
9)
features
from
segment.
To
choose
informative
features,
selector
which
CWNCA
applied.
cooperating
findings
DLob,
results
obtained.
last
phase
high
performance
ensemble
classifier
(tSVM)
obtained
two
validation
techniques
10-fold
cross-validation
(CV)
leave-one
subject-out
(LOSO)
CV.
generates
DLob
string
by
string,
Moreover,
attained
99.15%
76.37%
accuracy
LOSO
CVs
respectively.
According
performances,
recommended
TATPat-based
good
at
classification.
Also,
artificial
intelligence
(XAI)
since
TTPat-based
DLob.
Language: Английский
QuadTPat: Quadruple Transition Pattern-based explainable feature engineering model for stress detection using EEG signals
Veysel Yusuf Cambay,
No information about this author
İrem Taşçı,
No information about this author
Gülay TAŞCI
No information about this author
et al.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Nov. 9, 2024
The
most
cost-effective
data
collection
method
is
electroencephalography
(EEG),
which
obtains
meaningful
information
about
the
brain.
Therefore,
EEG
signal
processing
crucial
for
neuroscience
and
machine
learning
(ML).
a
new
stress
dataset
has
been
collected,
an
explainable
feature
engineering
(XFE)
model
proposed
using
Directed
Lobish
(DLob)
symbolic
language.
first
phase
of
this
research
phase,
was
gathered
from
310
participants.
This
collected
contains
two
classes:
(i)
(ii)
control.
An
XFE
presented
to
detect
automatically.
four
main
phases,
these
are
channel
transformer
quadruple
transition
pattern
(QuadTPat)-based
generation,
selection
deploying
cumulative
weighted
neighborhood
component
analysis
(CWNCA),
(iii)
results
creation
with
DLob
(iv)
classification
t
algorithm-based
k-nearest
neighbors
(tkNN)
classifier.
generates
string,
were
obtained
string.
Moreover,
attained
92.95%
73.63%
accuracy,
10-fold
leave-one
subject-out
(LOSO)
cross-validations
(CV).
According
performances,
recommended
QuadTPat-based
good
classification.
Also,
artificial
intelligence
(XAI)
since
TTPat-based
cooperating
DLob.
Language: Английский
Novel accurate classification system developed using order transition pattern feature engineering technique with physiological signals
Mehmet Ali Gelen,
No information about this author
Prabal Datta Barua,
No information about this author
İrem Taşçı
No information about this author
et al.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: May 1, 2025
This
paper
presents
a
novel,
explainable
feature
engineering
framework
for
classifying
EEG
and
ECG
signals
with
high
accuracy.
The
proposed
method
employs
the
Order
Transition
Pattern
(OTPat)
extractor.
presented
OTPat
extractor
captures
both
channel/column-based
patterns
(spatial
features)
using
all
channels
each
point
signal/row-based
(temporal
by
extracting
features
from
individual
overlapping
blocks.
extracted
are
then
refined
cumulative
weighted
iterative
neighborhood
component
analysis
(CWINCA)
selection
classified
t‑algorithm
k‑nearest
neighbors
(tkNN)
classifier.
Finally,
two
symbolic
languages,
Directed
Lobish
(DLob)
Cardioish,
generate
interpretable
results
in
form
of
cortical
cardiac
connectome
diagrams.
OTPat-based
XFE
model
achieves
over
95%
accuracy
on
several
datasets
reaches
86.07%
an
8‑class
artifact
dataset.
These
demonstrate
performance
clear
interpretability,
highlighting
model's
potential
robust
biomedical
signal
classification.
Language: Английский
An explainable EEG epilepsy detection model using friend pattern
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: May 15, 2025
Language: Английский
TPat: Transition pattern feature extraction based Parkinson’s disorder detection using FNIRS signals
Applied Acoustics,
Journal Year:
2024,
Volume and Issue:
228, P. 110307 - 110307
Published: Sept. 27, 2024
Language: Английский
Automated EEG-based language detection using directed quantum pattern technique
Şengül Doğan,
No information about this author
Türker Tuncer,
No information about this author
Prabal Datta Barua
No information about this author
et al.
Applied Soft Computing,
Journal Year:
2024,
Volume and Issue:
167, P. 112301 - 112301
Published: Oct. 5, 2024
Language: Английский
Minimum and Maximum Pattern-Based Self-Organized Feature Engineering: Fibromyalgia Detection Using Electrocardiogram Signals
Veysel Yusuf Cambay,
No information about this author
Abdul Hafeez‐Baig,
No information about this author
Emrah Aydemir
No information about this author
et al.
Diagnostics,
Journal Year:
2024,
Volume and Issue:
14(23), P. 2708 - 2708
Published: Nov. 30, 2024
The
primary
objective
of
this
research
is
to
propose
a
new,
simple,
and
effective
feature
extraction
function
investigate
its
classification
ability
using
electrocardiogram
(ECG)
signals.
Language: Английский
ChMinMaxPat: Investigations on Violence and Stress Detection Using EEG Signals
Diagnostics,
Journal Year:
2024,
Volume and Issue:
14(23), P. 2666 - 2666
Published: Nov. 26, 2024
Background
and
Objectives:
Electroencephalography
(EEG)
signals,
often
termed
the
letters
of
brain,
are
one
most
cost-effective
methods
for
gathering
valuable
information
about
brain
activity.
This
study
presents
a
new
explainable
feature
engineering
(XFE)
model
designed
to
classify
EEG
data
violence
detection.
The
primary
objective
is
assess
classification
capability
proposed
XFE
model,
which
uses
next-generation
extractor,
obtain
interpretable
findings
EEG-based
stress
Materials
Methods:
In
this
research,
two
distinct
signal
datasets
were
used
results.
recommended
utilizes
channel-based
minimum
maximum
pattern
(ChMinMaxPat)
extraction
function,
generates
15
vectors
from
data.
Cumulative
weight-based
neighborhood
component
analysis
(CWNCA)
employed
select
informative
features
these
vectors.
Classification
performed
by
applying
an
iterative
ensemble
t-algorithm-based
k-nearest
neighbors
(tkNN)
classifier
each
vector.
Information
fusion
achieved
through
majority
voting
(IMV),
consolidates
tkNN
Finally,
Directed
Lobish
(DLob)
symbolic
language
outputs
leveraging
identities
selected
features.
Together,
classifier,
IMV-based
fusion,
DLob-based
transform
into
self-organizing
(SOXFE)
framework.
Results:
ChMinMaxPat-based
over
70%
accuracy
on
both
with
leave-one-record-out
(LORO)
cross-validation
(CV)
90%
10-fold
CV.
For
dataset,
DLob
strings
generated,
providing
based
representations.
Conclusions:
SOXFE
demonstrates
high
interpretability
in
detecting
signals.
contributes
neuroscience
enabling
classification,
underscoring
potential
importance
clinical
forensic
applications.
Language: Английский