In
this
work,
we
propose
a
novel
approach
for
identifying
schizophrenia
using
an
entropy
difference
(ED)-
based
electroencephalogram
(EEG)
channel
selection
algorithm.
At
the
core
of
our
is
ED-based
algorithm,
which
selects
most
significant
EEG
channels
that
contain
discriminative
information
detection
values.
This
process
not
only
but
also
reduces
computational
complexity
detection.
After
selecting
channels,
decompose
selected
signals
into
subbands
discrete
wavelet
transform
(DWT).
Furthermore,
extract
symmetrically-weighted
local
binary
patterns
to
capture
subband
variations.
The
features
are
then
subjected
support
vector
machine
(SVM)
differentiate
individuals
with
on
their
signals.
proposed
achieves
classification
accuracy
100%
when
from
one
used,
outperforming
existing
approaches
in
Also,
outperforms
entropy-based
Diagnostics,
Journal Year:
2025,
Volume and Issue:
15(4), P. 434 - 434
Published: Feb. 11, 2025
Artificial
intelligence
(AI)
has
emerged
as
a
transformative
force
in
psychiatry,
improving
diagnostic
precision,
treatment
personalization,
and
early
intervention
through
advanced
data
analysis
techniques.
This
review
explores
recent
advancements
AI
applications
within
focusing
on
EEG
ECG
analysis,
speech
natural
language
processing
(NLP),
blood
biomarker
integration,
social
media
utilization.
EEG-based
models
have
significantly
enhanced
the
detection
of
disorders
such
depression
schizophrenia
spectral
connectivity
analyses.
ECG-based
approaches
provided
insights
into
emotional
regulation
stress-related
conditions
using
heart
rate
variability.
Speech
frameworks,
leveraging
large
(LLMs),
improved
cognitive
impairments
psychiatric
symptoms
nuanced
linguistic
feature
extraction.
Meanwhile,
analyses
deepened
our
understanding
molecular
underpinnings
mental
health
disorders,
analytics
demonstrated
potential
for
real-time
surveillance.
Despite
these
advancements,
challenges
heterogeneity,
interpretability,
ethical
considerations
remain
barriers
to
widespread
clinical
adoption.
Future
research
must
prioritize
development
explainable
models,
regulatory
compliance,
integration
diverse
datasets
maximize
impact
care.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: May 2, 2025
Mental
disorders
represent
a
critical
global
health
challenge
that
affects
millions
around
the
world
and
significantly
disrupts
daily
life.
Early
accurate
detection
is
paramount
for
timely
intervention,
which
can
lead
to
improved
treatment
outcomes.
Electroencephalography
(EEG)
provides
non-invasive
means
observing
brain
activity,
making
it
useful
tool
detecting
potential
mental
disorders.
Recently,
deep
learning
techniques
have
gained
prominence
their
ability
analyze
complex
datasets,
such
as
electroencephalography
recordings.
In
this
study,
we
introduce
novel
deep-learning
architecture
classification
of
post-traumatic
stress
disorder,
depression,
or
anxiety,
using
data.
Our
proposed
model,
multichannel
convolutional
transformer,
integrates
strengths
both
neural
networks
transformers.
Before
feeding
model
low-level
features,
input
pre-processed
common
spatial
pattern
filter,
signal
space
projection
wavelet
denoising
filter.
Then
EEG
signals
are
transformed
continuous
transform
obtain
time-frequency
representation.
The
layers
tokenize
by
our
pre-processing
pipeline,
while
Transformer
encoder
effectively
captures
long-range
temporal
dependencies
across
sequences.
This
specifically
tailored
process
data
has
been
preprocessed
transform,
technique
representation,
thereby
enhancing
extraction
relevant
features
classification.
We
evaluated
performance
on
three
datasets:
Psychiatric
Dataset,
MODMA
dataset,
Psychological
Assessment
dataset.
achieved
accuracies
87.40%
89.84%
92.28%
approach
outperforms
every
concurrent
approaches
datasets
used,
without
showing
any
sign
over-fitting.
These
results
underscore
in
delivering
reliable
disorder
through
analysis,
paving
way
advancements
early
diagnosis
strategies.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: May 12, 2025
Epilepsy
is
a
neurological
disorder
characterized
by
recurrent
seizures
caused
excessive
electrical
discharges
in
brain
cells,
posing
significant
diagnostic
and
therapeutic
challenges.
Dynamic
network
analysis
via
electroencephalography
(EEG)
has
emerged
as
powerful
tool
for
capturing
transient
functional
connectivity
changes,
offering
advantages
over
static
networks.
In
this
study,
we
propose
Temporal-Spatial
Graph
Attention
Network
(DTS-GAN)
to
address
the
limitations
of
fixed-topology
graph
models
analysing
time-varying
By
integrating
signal
processing
with
hybrid
deep
learning
framework,
DTS-GAN
collaboratively
extracts
spatiotemporal
features
through
two
key
modules:
an
LSTM-based
temporal
encoder
model
long-term
dependencies
EEG
sequences,
dynamic
attention
probabilistic
Gaussian
connectivity,
enabling
adaptive
interactions
across
electrode
nodes.
Experiments
on
TUSZ
dataset
demonstrate
that
achieves
89-91%
accuracy
weighted
F1-score
87-91%
classifying
seven
seizure
types,
significantly
outperforming
baseline
models.
The
multi-head
mechanism
generation
strategy
effectively
resolve
variability
connectivity.
These
results
highlight
potential
providing
precise
automated
detection,
serving
robust
clinical
analysis.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: May 19, 2025
Dementia
spectrum
disorders,
characterized
by
progressive
cognitive
decline,
pose
a
significant
global
health
burden.
Early
screening
and
diagnosis
are
essential
for
timely
accurate
treatment,
improving
patient
outcomes
quality
of
life.
This
study
investigated
dynamic
features
resting-state
electroencephalography
(EEG)
functional
connectivity
to
identify
characteristic
patterns
dementia
subtypes,
such
as
Alzheimer's
disease
(AD)
frontotemporal
(FD),
evaluate
their
potential
biomarkers.
We
extracted
distinctive
statistical
features,
including
mean,
variance,
skewness,
Shannon
entropy,
from
brain
measures,
revealing
common
alterations
in
dementia,
specifically
generalized
disruption
Alpha-band
connectivity.
Distinctive
characteristics
were
found,
Delta-band
hyperconnectivity
with
increased
complexity
AD
disrupted
phase-based
Theta,
Beta,
Gamma
bands
FD.
also
employed
convolutional
neural
network
model,
enhanced
these
differentiate
between
subtypes.
Our
classification
models
achieved
multiclass
accuracy
93.6%
across
AD,
FD,
healthy
control
groups.
Furthermore,
the
model
demonstrated
97.8%
96.7%
differentiating
FD
controls,
respectively,
97.4%
classifying
pairwise
classification.
These
establish
high-performance
deep
learning
framework
utilizing
EEG
biomarkers,
offering
promising
approach
early
disorders
using
EEG.
findings
suggest
that
analyzing
dynamics
during
tasks
could
offer
more
valuable
information
diagnosis,
assessing
severity,
potentially
identifying
personalized
neurological
deficits.