Depression Recognition Using Daily Wearable-Derived Physiological Data
Sensors,
Journal Year:
2025,
Volume and Issue:
25(2), P. 567 - 567
Published: Jan. 19, 2025
The
objective
identification
of
depression
using
physiological
data
has
emerged
as
a
significant
research
focus
within
the
field
psychiatry.
advancement
wearable
measurement
devices
opened
new
avenues
for
individuals
with
in
everyday-life
contexts.
Compared
to
other
methods,
wearables
offer
potential
continuous,
unobtrusive
monitoring,
which
can
capture
subtle
changes
indicative
depressive
states.
present
study
leverages
multimodal
wristband
collect
from
fifty-eight
participants
clinically
diagnosed
during
their
normal
daytime
activities
over
six
hours.
Data
collected
include
pulse
wave,
skin
conductance,
and
triaxial
acceleration.
For
comparison,
we
also
utilized
matched
healthy
controls
publicly
available
dataset,
same
equivalent
durations.
Our
aim
was
identify
through
analysis
measurements
derived
daily
life
scenarios.
We
extracted
static
features
such
mean,
variance,
skewness,
kurtosis
indicators
like
heart
rate,
acceleration,
well
autoregressive
coefficients
these
signals
reflecting
temporal
dynamics.
Utilizing
Random
Forest
algorithm,
distinguished
non-depressive
varying
classification
accuracies
on
aggregated
6
h,
2
30
min,
5
min
segments,
90.0%,
84.7%,
80.1%,
76.0%,
respectively.
results
demonstrate
feasibility
wearable-derived
recognition.
achieved
suggest
that
this
approach
could
be
integrated
into
clinical
settings
early
detection
monitoring
symptoms.
Future
work
will
explore
methods
personalized
interventions
real-time
offering
promising
avenue
enhancing
mental
health
care
integration
technology.
Language: Английский
A combination of deep learning models and type-2 fuzzy for EEG motor imagery classification through spatiotemporal-frequency features
Ensong Jiang,
No information about this author
Tangsen Huang,
No information about this author
Xiangdong Yin
No information about this author
et al.
Journal of Medical Engineering & Technology,
Journal Year:
2025,
Volume and Issue:
unknown, P. 1 - 14
Published: Feb. 14, 2025
Developing
a
robust
and
effective
technique
is
crucial
for
interpreting
user's
brainwave
signals
accurately
in
the
realm
of
biomedical
signal
processing.
The
variability
uncertainty
present
EEG
patterns
over
time,
compounded
by
noise,
pose
notable
challenges,
particularly
mental
tasks
like
motor
imagery.
Introducing
fuzzy
components
can
enhance
system's
ability
to
withstand
noisy
environments.
emergence
deep
learning
has
significantly
impacted
artificial
intelligence
data
analysis,
prompting
extensive
exploration
into
assessing
understanding
brain
signals.
This
work
introduces
hybrid
series
architecture
called
FCLNET,
which
combines
Compact-CNN
extract
frequency
spatial
features
alongside
LSTM
network
temporal
feature
extraction.
activation
functions
CNN
were
implemented
using
type-2
tackle
uncertainties.
Hyperparameters
FCLNET
model
are
tuned
Bayesian
optimisation
algorithm.
efficacy
this
approach
assessed
through
BCI
Competition
IV-2a
database
IV-1
database.
By
incorporating
employing
tuning,
proposed
indicates
good
classification
accuracy
compared
literature.
Outcomes
showcase
exceptional
achievements
model,
suggesting
that
integrating
units
other
classifiers
could
lead
advancements
imagery-based
systems.
Language: Английский
Transformer-Driven Affective State Recognition from Wearable Physiological Data in Everyday Contexts
Li Fang,
No information about this author
Dan Zhang
No information about this author
Sensors,
Journal Year:
2025,
Volume and Issue:
25(3), P. 761 - 761
Published: Jan. 27, 2025
The
rapid
advancement
in
wearable
physiological
measurement
technology
recent
years
has
brought
affective
computing
closer
to
everyday
life
scenarios.
Recognizing
states
daily
contexts
holds
significant
potential
for
applications
human–computer
interaction
and
psychiatry.
Addressing
the
challenge
of
long-term,
multi-modal
data
settings,
this
study
introduces
a
Transformer-based
algorithm
state
recognition,
designed
fully
exploit
temporal
characteristics
signals
interrelationships
between
different
modalities.
Utilizing
DAPPER
dataset,
which
comprises
continuous
5-day
wrist-worn
recordings
heart
rate,
skin
conductance,
tri-axial
acceleration
from
88
subjects,
our
model
achieved
an
average
binary
classification
accuracy
71.5%
self-reported
positive
or
negative
sampled
at
random
moments
during
collection,
60.29%
61.55%
five-class
based
on
valence
arousal
scores.
results
demonstrate
feasibility
applying
recognition
contexts.
Language: Английский
Speech-based emotion recognition using a hybrid RNN-CNN network
Signal Image and Video Processing,
Journal Year:
2024,
Volume and Issue:
19(2)
Published: Dec. 12, 2024
Language: Английский
EEG classification of resting state and arithmetic cognitive workload using functional connectivity of different frequency bands and machine learning techniques
Min Dong,
No information about this author
Lei Li,
No information about this author
Haozhi Yan
No information about this author
et al.
Smart Science,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 12
Published: Aug. 18, 2024
This
study
aimed
to
perform
a
comparative
of
the
functional
connectivity
different
frequency
bands
for
identification
resting
and
arithmetic
cognitive
workload
EEG
using
machine
learning
techniques.
Functional
was
calculated
from
preprocessed
EEGs
both
rest
task
states
in
5
sub-bands:
alpha
(8–13
Hz),
theta
(4–8
delta
(1–4
gamma
(30–45
beta
(13–30
Hz).
done
through
Weighted
Phase
Lag
Index
(WPLI).
After
that,
PCA
applied
feature
vectors
decrease
dimensionality
space.
Eventually,
normalized
chosen
features
were
used
as
input
learning-based
classification
models,
performance
assessed
leave-one-subject
cross-validation
(LOSOCV)
algorithm.
Experimental
results
showed
that
on
basis
delta,
theta,
alpha,
beta,
90.27%,
77.78%,
62.50%,
76.39%,
respectively.
The
obtained
models
technique
are
successfully
detect
mental
rest-
task-EEG.
In
summary,
is
potent
tool
comprehending
neural
has
significant
applications
various
fields.
Language: Английский
Automated recognition of mental cognitive workload through nonlinear EEG analysis
Zheng Zhi-hong,
No information about this author
Lin Weng
No information about this author
Web Intelligence,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 18
Published: Sept. 30, 2024
Nowadays,
with
the
remarkable
advancements
in
detection
instruments
and
artificial
intelligence,
there
has
been
extensive
utilization
of
human
mental
state
monitoring
various
domains.
Few
studies
have
explored
how
nonlinear
analysis
methods
can
detect
cognitive
workload
despite
complex
nature
EEG
signals
signal
processing
techniques.
In
addition,
fuzziness
conditions
makes
need
to
use
fuzzy
engineering
tools
tangible
this
field.
Therefore,
investigation
aimed
develop
a
decision
support
algorithm
improve
previous
efforts
for
classification
task
resting
through
machine
learning
algorithms.
Various
features
were
calculated
from
all
19
channels:
Hurst
exponent,
Lempel–Ziv
complexity,
detrended
fluctuation
analysis,
Higuchi
fractal
dimension,
Katz
permutation
entropy,
singular
value
decomposition
Petrosian
sample
Lyapunov
exponent.
During
step,
newly
developed
EPC-FC
(Expert
per
Class
Fuzzy
Classifier)
is
introduced,
utilizing
an
ensemble
framework
specialized
sub-classifiers
identifying
particular
condition.
By
training
negative
correlation
(NCL)
approach,
designed
be
exceptionally
adaptable.
Additionally,
separation
within
each
class
provides
versatility
clarity
system’s
design.
The
proposed
approach
based
on
systems
analyses
was
applied
data
recognition,
which
excellent
accuracy
98.50%
F1-score
98.56%
much
higher
than
findings
Also,
obtained
results
indicate
that
classifier
maintains
consistently
high
exceeding
90%
across
levels
SNRs.
proved
potential
states
brain,
consistent
data.
Other
approaches
should
considered
future
current
results.
Language: Английский