The
ability
to
control
a
behavioral
task
or
stimulate
neural
activity
based
on
animal
behavior
in
real-time
is
an
important
tool
for
experimental
neuroscientists.
Ideally,
such
tools
are
noninvasive,
low-latency,
and
provide
interfaces
trigger
external
hardware
posture.
Recent
advances
pose
estimation
with
deep
learning
allows
researchers
train
networks
accurately
quantify
wide
variety
of
behaviors.
Here,
we
new
<monospace>DeepLabCut-Live!</monospace>
package
that
achieves
low-latency
(within
15
ms,
>100
FPS),
additional
forward-prediction
module
zero-latency
feedback,
dynamic-cropping
mode
higher
inference
speeds.
We
also
three
options
using
this
ease:
(1)
stand-alone
GUI
(called
<monospace>DLC-Live!
GUI</monospace>),
integration
into
(2)
<monospace>Bonsai,</monospace>
(3)
<monospace>AutoPilot</monospace>.
Lastly,
benchmarked
performance
range
systems
so
experimentalists
can
easily
decide
what
required
their
needs.
Nature Methods,
Journal Year:
2022,
Volume and Issue:
19(4), P. 486 - 495
Published: April 1, 2022
The
desire
to
understand
how
the
brain
generates
and
patterns
behavior
has
driven
rapid
methodological
innovation
in
tools
quantify
natural
animal
behavior.
While
advances
deep
learning
computer
vision
have
enabled
markerless
pose
estimation
individual
animals,
extending
these
multiple
animals
presents
unique
challenges
for
studies
of
social
behaviors
or
their
environments.
Here
we
present
Social
LEAP
Estimates
Animal
Poses
(SLEAP),
a
machine
system
multi-animal
tracking.
This
enables
versatile
workflows
data
labeling,
model
training
inference
on
previously
unseen
data.
SLEAP
features
an
accessible
graphical
user
interface,
standardized
model,
reproducible
configuration
system,
over
30
architectures,
two
approaches
part
grouping
identity
We
applied
seven
datasets
across
flies,
bees,
mice
gerbils
systematically
evaluate
each
approach
architecture,
compare
it
with
other
existing
approaches.
achieves
greater
accuracy
speeds
more
than
800
frames
per
second,
latencies
less
3.5
ms
at
full
1,024
×
image
resolution.
makes
usable
real-time
applications,
which
demonstrate
by
controlling
one
basis
tracking
detection
interactions
another
animal.
Nature Communications,
Journal Year:
2022,
Volume and Issue:
13(1)
Published: Feb. 9, 2022
Data
acquisition
in
animal
ecology
is
rapidly
accelerating
due
to
inexpensive
and
accessible
sensors
such
as
smartphones,
drones,
satellites,
audio
recorders
bio-logging
devices.
These
new
technologies
the
data
they
generate
hold
great
potential
for
large-scale
environmental
monitoring
understanding,
but
are
limited
by
current
processing
approaches
which
inefficient
how
ingest,
digest,
distill
into
relevant
information.
We
argue
that
machine
learning,
especially
deep
learning
approaches,
can
meet
this
analytic
challenge
enhance
our
capacity,
conservation
of
wildlife
species.
Incorporating
ecological
workflows
could
improve
inputs
population
behavior
models
eventually
lead
integrated
hybrid
modeling
tools,
with
acting
constraints
latter
providing
data-supported
insights.
In
essence,
combining
domain
knowledge,
ecologists
capitalize
on
abundance
generated
modern
sensor
order
reliably
estimate
abundances,
study
mitigate
human/wildlife
conflicts.
To
succeed,
approach
will
require
close
collaboration
cross-disciplinary
education
between
computer
science
communities
ensure
quality
train
a
generation
scientists
conservation.
Nature Methods,
Journal Year:
2022,
Volume and Issue:
19(4), P. 496 - 504
Published: April 1, 2022
Abstract
Estimating
the
pose
of
multiple
animals
is
a
challenging
computer
vision
problem:
frequent
interactions
cause
occlusions
and
complicate
association
detected
keypoints
to
correct
individuals,
as
well
having
highly
similar
looking
that
interact
more
closely
than
in
typical
multi-human
scenarios.
To
take
up
this
challenge,
we
build
on
DeepLabCut,
an
open-source
estimation
toolbox,
provide
high-performance
animal
assembly
tracking—features
required
for
multi-animal
Furthermore,
integrate
ability
predict
animal’s
identity
assist
tracking
(in
case
occlusions).
We
illustrate
power
framework
with
four
datasets
varying
complexity,
which
release
serve
benchmark
future
algorithm
development.
bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2020,
Volume and Issue:
unknown
Published: April 20, 2020
Abstract
Aberrant
social
behavior
is
a
core
feature
of
many
neuropsychiatric
disorders,
yet
the
study
complex
in
freely
moving
rodents
relatively
infrequently
incorporated
into
preclinical
models.
This
likely
contributes
to
limited
translational
impact.
A
major
bottleneck
for
adoption
socially
complex,
ethology-rich,
procedures
are
technical
limitations
consistently
annotating
detailed
behavioral
repertoires
rodent
behavior.
Manual
annotation
subjective,
prone
observer
drift,
and
extremely
time-intensive.
Commercial
approaches
expensive
inferior
manual
annotation.
Open-source
alternatives
often
require
significant
investments
specialized
hardware
computational
programming
knowledge.
By
combining
recent
advances
convolutional
neural
networks
pose-estimation
with
further
machine
learning
analysis,
primed
inclusion
under
umbrella
neuroethology.
Here
we
present
an
open-source
package
graphical
interface
workflow
(Simple
Behavioral
Analysis,
SimBA)
that
uses
create
supervised
predictive
classifiers
behavior,
millisecond
resolution
accuracies
can
out-perform
human
observers.
SimBA
does
not
video
acquisition
nor
extensive
background.
Standard
descriptive
statistical
along
region
interest
annotation,
provided
addition
classifier
generation.
To
increase
ease-of-use
behavioural
neuroscientists,
designed
accessible
menus
pre-processing
videos,
training
datasets,
selecting
advanced
options,
robust
validation
functions
flexible
visualizations
tools.
allows
transparency,
explainability
tunability
prior
to,
during,
experimental
use.
We
demonstrate
this
approach
both
mice
rats
by
classifying
behaviors
commonly
central
brain
function
motivation.
Finally,
provide
library
poseestimation
weights
resident-intruder
rats.
All
code
data,
together
tutorials
documentation,
available
on
GitHub
repository
.
Graphical
abstract
(GUI)
creating
(a)
Pre-process
videos
supports
common
(e.g.,
cropping,
clipping,
sampling,
format
conversion,
etc.)
be
performed
either
single
or
as
batch.
(b)
Managing
data
classification
projects
Pose-estimation
tracking
DeepLabCut
DeepPoseKit
imported
created
managed
within
user
interface,
results
projects.
also
userdrawn
region-of-interests
(ROIs)
statistics
animal
movements,
features
(c)
Create
classifiers,
perform
classifications,
analyze
has
tools
correcting
inaccuracies
when
multiple
subjects
frame,
events
from
optimizing
hyperparameters
discrimination
thresholds.
number
checkpoints
logs
included
increased
Both
summary
at
end
analysis.
accepts
annotations
generated
elsewhere
(such
through
JWatcher)
(d)
Visualize
several
options
visualizing
movements
ROI
analyzing
durations
frequencies
classified
behaviors.
See
comprehensive
documentation
tutorials.
Nature Communications,
Journal Year:
2021,
Volume and Issue:
12(1)
Published: Aug. 31, 2021
Abstract
Studying
naturalistic
animal
behavior
remains
a
difficult
objective.
Recent
machine
learning
advances
have
enabled
limb
localization;
however,
extracting
behaviors
requires
ascertaining
the
spatiotemporal
patterns
of
these
positions.
To
provide
link
from
poses
to
actions
and
their
kinematics,
we
developed
B-SOiD
-
an
open-source,
unsupervised
algorithm
that
identifies
without
user
bias.
By
training
classifier
on
pose
pattern
statistics
clustered
using
new
methods,
our
approach
achieves
greatly
improved
processing
speed
ability
generalize
across
subjects
or
labs.
Using
frameshift
alignment
paradigm,
overcomes
previous
temporal
resolution
barriers.
only
single,
off-the-shelf
camera,
provides
categories
sub-action
for
trained
kinematic
measures
individual
trajectories
in
any
model.
These
behavioral
are
but
critical
obtain,
particularly
study
rodent
other
models
pain,
OCD,
movement
disorders.
Nature Communications,
Journal Year:
2020,
Volume and Issue:
11(1)
Published: Sept. 11, 2020
Abstract
The
rhesus
macaque
is
an
important
model
species
in
several
branches
of
science,
including
neuroscience,
psychology,
ethology,
and
medicine.
utility
the
would
be
greatly
enhanced
by
ability
to
precisely
measure
behavior
freely
moving
conditions.
Existing
approaches
do
not
provide
sufficient
tracking.
Here,
we
describe
OpenMonkeyStudio,
a
deep
learning-based
markerless
motion
capture
system
for
estimating
3D
pose
macaques
large
unconstrained
environments.
Our
makes
use
62
machine
vision
cameras
that
encircle
open
2.45
m
×
2.75
enclosure.
resulting
multiview
image
streams
allow
data
augmentation
via
3D-reconstruction
annotated
images
train
robust
view-invariant
neural
network.
This
view
invariance
represents
advance
over
previous
2D
tracking
approaches,
allows
fully
automatic
inference
on
natural
motion.
We
show
OpenMonkeyStudio
can
used
accurately
recognize
actions
track
social
interactions.