IEEE Transactions on Neural Systems and Rehabilitation Engineering,
Год журнала:
2025,
Номер
33, С. 1061 - 1070
Опубликована: Янв. 1, 2025
The
last
decade
has
witnessed
a
notable
surge
in
deep
learning
applications
for
electroencephalography
(EEG)
data
analysis,
showing
promising
improvements
over
conventional
statistical
techniques.
However,
models
can
underperform
if
trained
with
bad
processed
data.
Preprocessing
is
crucial
EEG
yet
there
no
consensus
on
the
optimal
strategies
scenarios,
leading
to
uncertainty
about
extent
of
preprocessing
required
results.
This
study
first
thoroughly
investigate
effects
applications,
drafting
guidelines
future
research.
It
evaluates
varying
levels,
from
raw
and
minimally
filtered
complex
pipelines
automated
artifact
removal
algorithms.
Six
classification
tasks
(eye
blinking,
motor
imagery,
Parkinson's,
Alzheimer's
disease,
sleep
deprivation,
episode
psychosis)
four
established
architectures
were
considered
evaluation.
analysis
4800
revealed
differences
between
at
intra-task
level
each
model
inter-task
largest
model.
Models
consistently
performed
poorly,
always
ranking
average
scores.
In
addition,
seem
benefit
more
minimal
without
handling
methods.
These
findings
suggest
that
artifacts
may
affect
performance
generalizability
neural
networks.
Defining
reference
models
for
population
variation,
and
the
ability
to
study
individual
deviations
is
essential
understanding
inter-individual
variability
its
relation
onset
progression
of
medical
conditions.
In
this
work,
we
assembled
a
cohort
neuroimaging
data
from
82
sites
(N=58,836;
ages
2-100)
used
normative
modeling
characterize
lifespan
trajectories
cortical
thickness
subcortical
volume.
Models
are
validated
against
manually
quality
checked
subset
(N=24,354)
provide
an
interface
transferring
new
sources.
We
showcase
clinical
value
by
applying
transdiagnostic
psychiatric
sample
(N=1985),
showing
they
can
be
quantify
underlying
multiple
disorders
whilst
also
refining
case-control
inferences.
These
will
augmented
with
additional
samples
imaging
modalities
as
become
available.
This
provides
common
platform
bind
results
different
studies
ultimately
paves
way
personalized
decision-making.
This
report
is
the
second
part
of
a
comprehensive
two-part
series
aimed
at
reviewing
an
extensive
and
diverse
toolkit
novel
methods
to
explore
brain
health
function.
While
first
focused
on
neurophotonic
tools
mostly
applicable
animal
studies,
here,
we
highlight
optical
spectroscopy
imaging
relevant
noninvasive
human
studies.
We
outline
current
state-of-the-art
technologies
software
advances,
most
recent
impact
these
neuroscience
clinical
applications,
identify
areas
where
innovation
needed,
provide
outlook
for
future
directions.
NeuroImage,
Год журнала:
2022,
Номер
263, С. 119623 - 119623
Опубликована: Сен. 12, 2022
Empirical
observations
of
how
labs
conduct
research
indicate
that
the
adoption
rate
open
practices
for
transparent,
reproducible,
and
collaborative
science
remains
in
its
infancy.
This
is
at
odds
with
overwhelming
evidence
necessity
these
their
benefits
individual
researchers,
scientific
progress,
society
general.
To
date,
information
required
implementing
throughout
different
steps
a
project
scattered
among
many
sources.
Even
experienced
researchers
topic
find
it
hard
to
navigate
ecosystem
tools
make
sustainable
choices.
Here,
we
provide
an
integrated
overview
community-developed
resources
can
support
collaborative,
open,
replicable,
robust
generalizable
neuroimaging
entire
cycle
from
inception
publication
across
modalities.
We
review
supporting
study
planning,
data
acquisition,
management,
processing
analysis,
dissemination.
An
online
version
this
resource
be
found
https://oreoni.github.io.
believe
will
prove
helpful
institutions
successful
move
towards
reproducible
eventually
take
active
role
future
development.
Multimodal
neuroimaging
grants
a
powerful
window
into
the
structure
and
function
of
human
brain
at
multiple
scales.
Recent
methodological
conceptual
advances
have
enabled
investigations
interplay
between
large-scale
spatial
trends
(also
referred
to
as
gradients)
in
microstructure
connectivity,
offering
an
integrative
framework
study
multiscale
organization.
Here,
we
share
multimodal
MRI
dataset
for
Microstructure-Informed
Connectomics
(MICA-MICs)
acquired
50
healthy
adults
(23
women;
29.54
±
5.62
years)
who
underwent
high-resolution
T1-weighted
MRI,
myelin-sensitive
quantitative
T1
relaxometry,
diffusion-weighted
resting-state
functional
3
Tesla.
In
addition
raw
anonymized
data,
this
release
includes
brain-wide
connectomes
derived
from
(i)
imaging,
(ii)
diffusion
tractography,
(iii)
covariance
analysis,
(iv)
geodesic
cortical
distance,
gathered
across
parcellation
Alongside,
gradients
estimated
each
modality
scale.
Our
will
facilitate
future
research
examining
coupling
microstructure,
function.
MICA-MICs
is
available
on
Canadian
Open
Neuroscience
Platform
data
portal
(
https://portal.conp.ca
)
Science
Framework
https://osf.io/j532r/
).
Understanding
object
representations
requires
a
broad,
comprehensive
sampling
of
the
objects
in
our
visual
world
with
dense
measurements
brain
activity
and
behavior.
Here,
we
present
THINGS-data,
multimodal
collection
large-scale
neuroimaging
behavioral
datasets
humans,
comprising
densely
sampled
functional
MRI
magnetoencephalographic
recordings,
as
well
4.70
million
similarity
judgments
response
to
thousands
photographic
images
for
up
1,854
concepts.
THINGS-data
is
unique
its
breadth
richly
annotated
objects,
allowing
testing
countless
hypotheses
at
scale
while
assessing
reproducibility
previous
findings.
Beyond
insights
promised
by
each
individual
dataset,
multimodality
allows
combining
much
broader
view
into
processing
than
previously
possible.
Our
analyses
demonstrate
high
quality
provide
five
examples
hypothesis-driven
data-driven
applications.
constitutes
core
public
release
THINGS
initiative
(https://things-initiative.org)
bridging
gap
between
disciplines
advancement
cognitive
neuroscience.
Brain,
Год журнала:
2023,
Номер
146(6), С. 2248 - 2258
Опубликована: Янв. 8, 2023
Over
the
past
10
years,
drive
to
improve
outcomes
from
epilepsy
surgery
has
stimulated
widespread
interest
in
methods
quantitatively
guide
intracranial
EEG
(iEEG).
Many
patients
fail
achieve
seizure
freedom,
part
due
challenges
subjective
iEEG
interpretation.
To
address
this
clinical
need,
quantitative
analytics
have
been
developed
using
a
variety
of
approaches,
spanning
studies
seizures,
interictal
periods,
and
their
transitions,
encompass
range
techniques
including
electrographic
signal
analysis,
dynamical
systems
modeling,
machine
learning
graph
theory.
Unfortunately,
many
generalize
new
data
are
sensitive
differences
pathology
electrode
placement.
Here,
we
critically
review
selected
literature
on
computational
identifying
epileptogenic
zone
iEEG.
We
highlight
shared
methodological
common
field
propose
ways
that
they
can
be
addressed.
One
fundamental
pitfall
is
lack
open-source,
high-quality
data,
which
specifically
by
sharing
centralized
high-quality,
well-annotated,
multicentre
dataset
consisting
>100
support
larger
more
rigorous
studies.
Ultimately,
provide
road
map
help
these
tools
reach
trials
hope
lives
future
patients.
Nature Methods,
Год журнала:
2024,
Номер
21(5), С. 809 - 813
Опубликована: Апрель 11, 2024
Neuroscience
is
advancing
standardization
and
tool
development
to
support
rigor
transparency.
Consequently,
data
pipeline
complexity
has
increased,
hindering
FAIR
(findable,
accessible,
interoperable
reusable)
access.
brainlife.io
was
developed
democratize
neuroimaging
research.
The
platform
provides
standardization,
management,
visualization
processing
automatically
tracks
the
provenance
history
of
thousands
objects.
Here,
described
evaluated
for
validity,
reliability,
reproducibility,
replicability
scientific
utility
using
four
modalities
3,200
participants.
Abstract
Large
annotated
datasets
are
required
for
training
deep
learning
models,
but
in
medical
imaging
data
sharing
is
often
complicated
due
to
ethics,
anonymization
and
protection
legislation.
Generative
AI
such
as
generative
adversarial
networks
(GANs)
diffusion
can
today
produce
very
realistic
synthetic
images,
potentially
facilitate
sharing.
However,
order
share
images
it
must
first
be
demonstrated
that
they
used
different
with
acceptable
performance.
Here,
we
therefore
comprehensively
evaluate
four
GANs
(progressive
GAN,
StyleGAN
1–3)
a
model
the
task
of
brain
tumor
segmentation
(using
two
networks,
U-Net
Swin
transformer).
Our
results
show
trained
on
reach
Dice
scores
80%–90%
when
real
memorization
problem
models
if
original
dataset
too
small.
conclusion
viable
option
further
work
required.
The
generated
shared
AIDA
hub.
Frontiers in Neuroscience,
Год журнала:
2022,
Номер
16
Опубликована: Март 8, 2022
Resting-state
functional
magnetic
resonance
imaging
(rs-fMRI),
which
measures
the
spontaneous
fluctuations
in
blood
oxygen
level-dependent
(BOLD)
signal,
is
increasingly
utilized
for
investigation
of
brain's
physiological
and
pathological
activity.
Rodents,
as
a
typical
animal
model
neuroscience,
play
an
important
role
studies
that
examine
neuronal
processes
underpin
BOLD
signal
connectivity
results.
Translating
this
knowledge
from
rodents
to
humans
requires
basic
similarities
differences
across
species
terms
both
resulting
connectivity.
This
review
begins
by
examining
anatomical
features,
acquisition
parameters,
preprocessing
techniques,
factors
contribute
Homologous
networks
are
compared
species,
aspects
such
topography
global
relationship
between
structural
examined.
Time-varying
features
connectivity,
obtained
sliding
windowed
approaches,
quasi-periodic
patterns,
coactivation
species.
Applications
demonstrating
use
rs-fMRI
translational
tool
cross-species
analysis
discussed,
with
emphasis
on
neurological
psychiatric
disorders.
Finally,
open
questions
presented
encapsulate
future
direction
field.