Natural Language Processing in medicine and ophthalmology: A review for the 21st-century clinician
William Rojas‐Carabali,
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Rajdeep Agrawal,
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Laura Gutiérrez-Sinisterra
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et al.
Asia-Pacific Journal of Ophthalmology,
Journal Year:
2024,
Volume and Issue:
13(4), P. 100084 - 100084
Published: July 1, 2024
Natural
Language
Processing
(NLP)
is
a
subfield
of
artificial
intelligence
that
focuses
on
the
interaction
between
computers
and
human
language,
enabling
to
understand,
generate,
derive
meaning
from
language.
NLP's
potential
applications
in
medical
field
are
extensive
vary
extracting
data
Electronic
Health
Records
-one
its
most
well-known
frequently
exploited
uses-
investigating
relationships
among
genetics,
biomarkers,
drugs,
diseases
for
proposal
new
medications.
NLP
can
be
useful
clinical
decision
support,
patient
monitoring,
or
image
analysis.
Despite
vast
potential,
real-world
application
still
limited
due
various
challenges
constraints,
evolution
predominantly
continues
within
research
domain.
However,
with
increasingly
widespread
use
NLP,
particularly
availability
large
language
models,
such
as
ChatGPT,
it
crucial
professionals
aware
status,
uses,
limitations
these
technologies.
Language: Английский
EEG Sinyallerini Kullanarak 2D Konvolüsyonel Sinir Ağları ile Epilepsi Hastalığının Çok Sınıflı Tespiti
Yiğithan Geniş,
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Eda Akman Aydın
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Journal of Polytechnic,
Journal Year:
2025,
Volume and Issue:
unknown, P. 1 - 1
Published: April 12, 2025
Elektroensefalogram
(EEG)
epilepsi
hastalığının
teşhisi
için
önemli
bir
sinyaldir.
Transfer
öğrenme,
veri
boyutlarının
model
eğitimi
yeterli
olmadığı
durumlarda,
önceden
eğitilmiş
ağırlıklarının
yeni
problemlerde
kullanılmasını
sağlayan
tekniktir.
Bu
çalışmada,
transfer
öğrenme
modelleri
sağlıklı
gözü
açık,
kapalı,
nöbet
anında
olmayan
hastadan
epileptojenik
bölgenin
karşısından
kaydedilmiş,
bölgeden
kaydedilmiş
ve
anındaki
EEG
sinyal
örneklerinin
sınıflandırılması
amacıyla
kullanılmıştır.
Sinyallerin,
2D
CNN
modelinde
kullanılmak
üzere
zaman-frekans
gösterimini
elde
edebilmek
Sürekli
Dalgacık
Dönüşümü
(CWT)
ile
skalogram
görüntüleri
edilerek
konvolüsyonel
sinir
ağı
(CNN)
giriş
olarak
Çalışmanın
sonuçları
GoogleNet
modelinin
CWT
gösterimi
kullanılarak
teşhisinde
en
başarılı
olduğunu,
önerilen
yöntemin
beş
duruma
ait
sinyallerini
%95.33
doğrulukla
ayırt
edebildiğini
göstermektedir.
Multi-scale convolutional transformer network for motor imagery brain-computer interface
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: April 15, 2025
Abstract
Brain-computer
interface
(BCI)
systems
allow
users
to
communicate
with
external
devices
by
translating
neural
signals
into
real-time
commands.
Convolutional
networks
(CNNs)
have
been
effectively
utilized
for
decoding
motor
imagery
electroencephalography
(MI-EEG)
in
BCIs.
However,
traditional
CNN-based
methods
face
challenges
such
as
individual
variability
EEG
and
the
limited
receptive
fields
of
CNNs.
This
study
presents
Multi-Scale
Transformer
(MSCFormer)
model
that
integrates
multiple
CNN
branches
multi-scale
feature
extraction
a
module
capture
global
dependencies,
followed
fully
connected
layer
classification.
The
multi-branch
structure
addresses
signals,
enhancing
model’s
generalization
capabilities,
while
encoder
strengthens
integration
improves
performance.
Extensive
experiments
on
BCI
IV-2a
IV-2b
datasets
show
MSCFormer
achieves
average
accuracies
82.95%
(BCI
IV-2a)
88.00%
IV-2b),
kappa
values
0.7726
0.7599
five-fold
cross-validation,
surpassing
several
state-of-the-art
methods.
These
results
highlight
MSCFormer’s
robustness
accuracy,
underscoring
its
potential
EEG-based
applications.
code
has
released
https://github.com/snailpt/MSCFormer
.
Language: Английский
Electroencephalogram (EEG) classification using a bio-inspired deep oscillatory neural network
Sayan Ghosh,
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Vigneswaran Chandrasekaran,
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NR Rohan
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et al.
Biomedical Signal Processing and Control,
Journal Year:
2024,
Volume and Issue:
103, P. 107379 - 107379
Published: Dec. 26, 2024
Language: Английский
A review of epilepsy detection and prediction methods based on EEG signal processing and deep learning
Xizhen Zhang,
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Xiaoli Zhang,
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Qiong Huang
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et al.
Frontiers in Neuroscience,
Journal Year:
2024,
Volume and Issue:
18
Published: Nov. 15, 2024
Epilepsy
is
a
chronic
neurological
disorder
that
poses
significant
challenges
to
patients
and
their
families.
Effective
detection
prediction
of
epilepsy
can
facilitate
patient
recovery,
reduce
family
burden,
streamline
healthcare
processes.
Therefore,
it
essential
propose
deep
learning
method
for
efficient
epileptic
electroencephalography
(EEG)
signals.
This
paper
reviews
several
key
aspects
EEG
signal
processing,
focusing
on
prediction.
It
covers
publicly
available
datasets,
preprocessing
techniques,
feature
extraction
methods,
learning-based
networks
used
in
these
tasks.
The
literature
categorized
based
independence,
distinguishing
between
patient-independent
non-patient-independent
studies.
Additionally,
the
evaluation
methods
are
classified
into
general
classification
indicators
specific
criteria,
with
findings
organized
according
cycles
reported
various
review
reveals
important
insights.
Despite
availability
public
they
often
lack
diversity
types
collected
under
controlled
conditions
may
not
reflect
real-world
scenarios.
As
result,
tend
be
limited
fully
represent
practical
conditions.
Feature
network
designs
frequently
emphasize
fusion
mechanisms,
recent
advances
Convolutional
Neural
Networks
(CNNs)
Recurrent
(RNNs)
showing
promising
results,
suggesting
new
models
warrant
further
exploration.
Studies
using
data
generally
produce
better
results
than
those
relying
data.
Metrics
typically
perform
though
future
research
should
focus
latter
more
accurate
evaluation.
kept
1
h,
most
studies
concentrating
intervals
30
min
or
less.
Language: Английский