Computers in Biology and Medicine,
Journal Year:
2023,
Volume and Issue:
163, P. 107135 - 107135
Published: June 8, 2023
Brain–computer
interfaces
are
used
for
direct
two-way
communication
between
the
human
brain
and
computer.
Brain
signals
contain
valuable
information
about
mental
state
activity
of
examined
subject.
However,
due
to
their
non-stationarity
susceptibility
various
types
interference,
processing,
analysis
interpretation
challenging.
For
these
reasons,
research
in
field
brain–computer
is
focused
on
implementation
artificial
intelligence,
especially
five
main
areas:
calibration,
noise
suppression,
communication,
condition
estimation,
motor
imagery.
The
use
algorithms
based
intelligence
machine
learning
has
proven
be
very
promising
application
domains,
ability
predict
learn
from
previous
experience.
Therefore,
within
medical
technologies
can
contribute
more
accurate
subjects,
alleviate
consequences
serious
diseases
or
improve
quality
life
disabled
patients.
Frontiers in Human Neuroscience,
Journal Year:
2021,
Volume and Issue:
15
Published: Aug. 13, 2021
In
the
last
few
decades,
Brain-Computer
Interface
(BCI)
research
has
focused
predominantly
on
clinical
applications,
notably
to
enable
severely
disabled
people
interact
with
environment.
However,
recent
studies
rely
mostly
use
of
non-invasive
electroencephalographic
(EEG)
devices,
suggesting
that
BCI
might
be
ready
used
outside
laboratories.
particular,
Industry
4.0
is
a
rapidly
evolving
sector
aims
restructure
traditional
methods
by
deploying
digital
tools
and
cyber-physical
systems.
BCI-based
solutions
are
attracting
increasing
attention
in
this
field
support
industrial
performance
optimizing
cognitive
load
operators,
facilitating
human-robot
interactions,
make
operations
critical
conditions
more
secure.
Although
these
advancements
seem
promising,
numerous
aspects
must
considered
before
developing
any
operational
solutions.
Indeed,
development
novel
applications
optimal
laboratory
raises
many
challenges.
current
study,
we
carried
out
detailed
literature
review
investigate
main
challenges
present
criteria
relevant
future
deployment
for
4.0.
Biosensors,
Journal Year:
2022,
Volume and Issue:
12(1), P. 22 - 22
Published: Jan. 3, 2022
Automatic
high-level
feature
extraction
has
become
a
possibility
with
the
advancement
of
deep
learning,
and
it
been
used
to
optimize
efficiency.
Recently,
classification
methods
for
Convolutional
Neural
Network
(CNN)-based
electroencephalography
(EEG)
motor
imagery
have
proposed,
achieved
reasonably
high
accuracy.
These
approaches,
however,
use
CNN
single
convolution
scale,
whereas
best
scale
varies
from
subject
subject.
This
limits
precision
classification.
paper
proposes
multibranch
models
address
this
issue
by
effectively
extracting
spatial
temporal
features
raw
EEG
data,
where
branches
correspond
different
filter
kernel
sizes.
The
proposed
method’s
promising
performance
is
demonstrated
experimental
results
on
two
public
datasets,
BCI
Competition
IV
2a
dataset
High
Gamma
Dataset
(HGD).
technique
show
9.61%
improvement
in
accuracy
EEGNet
(MBEEGNet)
fixed
one-branch
model,
2.95%
variable
model.
In
addition,
ShallowConvNet
(MBShallowConvNet)
improved
single-scale
network
6.84%.
outperformed
other
state-of-the-art
methods.
Engineering Applications of Artificial Intelligence,
Journal Year:
2023,
Volume and Issue:
123, P. 106205 - 106205
Published: March 31, 2023
In
the
Machine
Learning
(ML)
literature,
a
well-known
problem
is
Dataset
Shift
where,
differently
from
ML
standard
hypothesis,
data
in
training
and
test
sets
can
follow
different
probability
distributions,
leading
systems
toward
poor
generalisation
performances.
This
intensely
felt
Brain-Computer
Interface
(BCI)
context,
where
bio-signals
as
Electroencephalographic
(EEG)
are
often
used.
fact,
EEG
signals
highly
non-stationary
both
over
time
between
subjects.
To
overcome
this
problem,
several
proposed
solutions
based
on
recent
transfer
learning
approaches
such
Domain
Adaption
(DA).
cases,
however,
actual
causes
of
improvements
remain
ambiguous.
paper
focuses
impact
normalisation,
or
standardisation
strategies
applied
together
with
DA
methods.
particular,
using
\textit{SEED},
\textit{DEAP},
\textit{BCI
Competition
IV
2a}
datasets,
we
experimentally
evaluated
normalization
without
methods,
comparing
obtained
It
results
that
choice
normalisation
strategy
plays
key
role
classifier
performances
scenarios,
interestingly,
use
only
an
appropriate
schema
outperforms
technique.
iScience,
Journal Year:
2023,
Volume and Issue:
26(5), P. 106675 - 106675
Published: April 15, 2023
This
study
explores
the
use
of
a
brain-computer
interface
(BCI)
based
on
motor
imagery
(MI)
for
control
lower
limb
exoskeleton
to
aid
in
recovery
after
neural
injury.
The
BCI
was
evaluated
ten
able-bodied
subjects
and
two
patients
with
spinal
cord
injuries.
Five
underwent
virtual
reality
(VR)
training
session
accelerate
BCI.
Results
from
this
group
were
compared
five
subjects,
it
found
that
employment
shorter
by
VR
did
not
reduce
effectiveness
even
improved
some
cases.
Patients
gave
positive
feedback
about
system
able
handle
experimental
sessions
without
reaching
high
levels
physical
mental
exertion.
These
results
are
promising
inclusion
rehabilitation
programs,
future
research
should
investigate
potential
MI-based
system.
Computers in Biology and Medicine,
Journal Year:
2023,
Volume and Issue:
163, P. 107135 - 107135
Published: June 8, 2023
Brain–computer
interfaces
are
used
for
direct
two-way
communication
between
the
human
brain
and
computer.
Brain
signals
contain
valuable
information
about
mental
state
activity
of
examined
subject.
However,
due
to
their
non-stationarity
susceptibility
various
types
interference,
processing,
analysis
interpretation
challenging.
For
these
reasons,
research
in
field
brain–computer
is
focused
on
implementation
artificial
intelligence,
especially
five
main
areas:
calibration,
noise
suppression,
communication,
condition
estimation,
motor
imagery.
The
use
algorithms
based
intelligence
machine
learning
has
proven
be
very
promising
application
domains,
ability
predict
learn
from
previous
experience.
Therefore,
within
medical
technologies
can
contribute
more
accurate
subjects,
alleviate
consequences
serious
diseases
or
improve
quality
life
disabled
patients.