Methods in Ecology and Evolution,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 26, 2024
Abstract
Artificial
intelligence
(AI)
has
revolutionised
the
process
of
identifying
species
and
individuals
in
audio
recordings
camera
trap
images.
However,
despite
developments
sensor
technology,
machine
learning
statistical
methods,
a
general
AI‐assisted
data‐to‐inference
pipeline
yet
to
emerge.
We
argue
that
this
is,
part,
due
lack
clarity
around
several
decisions
existing
workflows,
including:
choice
classifier
used
(e.g.
semi‐
vs.
fully
automated);
how
confidence
scores
are
interpreted;
availability
selection
appropriate
methods
for
drawing
ecological
inferences.
Here,
we
attempt
conceptualise
workflow
associated
with
automated
tools
ecology.
motivate
perspective
using
our
experiences
occupancy
modelling
monitoring
data
collected
through
passive
acoustic
trapping,
priority
areas
future
developments.
offer
an
accessible
guide
support
community
navigating
capitalising
on
rapid
technological
methodological
advances.
describe
different
error
types
arise
from
both
sensor‐based
classifiers
themselves;
handled
at
each
stage
workflow;
finally,
implications
opportunities
deciding
step
pipeline.
recommend
‘black
box’
like
neural
network
classification
algorithms
should
be
embraced
ecology,
but
widespread
uptake
requires
more
formal
integration
AI
into
inference
workflows.
Like
broadly,
however,
successful
development
new
pipelines
is
multidisciplinary
endeavour
input
everyone
invested
collecting,
processing,
analysing
data.
bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 9, 2024
Abstract
The
recovery
of
predator
populations
can
negatively
impact
other
species
conservation
concern,
leading
to
conflicts.
Evidence-based
solutions
are
needed
resolve
such
conflicts
without
sacrificing
hard-won
gains
for
recovering
species.
Well-designed,
large-scale
field
experiments
provide
the
most
rigorous
evidence
justify
new
forms
intervention,
but
they
notoriously
hard
implement.
Further,
monitoring
scarce
negative
impacts
is
challenging,
calling
indirect
and
non-invasive
methods.
Uncertainties
remain
about
whether
observational
adequately
reflects
true
processes
interest.
Having
conducted
a
well-designed,
large-scale,
diversionary
feeding
experiment
that
reduced
artificial
nest
depredation,
we
evaluated
this
translated
capercaillie
productivity
in
same
area.
Using
camera
traps
aimed
at
dust
baths,
non-invasively
monitored
hen
over
3
years
30
1km
2
grid
cells
under
randomised
control
(un-fed)
treatment
(fed)
design.
Diversionary
significantly
increased
probability
detected
would
have
brood.
did
not
change
brooding
season,
indicating
hens
brood
had
failed
due
depredation
rather
than
predation
chicks.
detecting
with
was
0.85
(0.65-0.94)
fed
locations,
more
double
unfed
which
0.37
(CI
0.2-0.57).
average
size
time,
differ
between
sites.
This
line
natural
mortality
occurring
independently
feeding.
Importantly,
chance
having
areas
predicted
leads
substantial
increase
overall
–
expected
number
chicks
per
end
sampling
season.
just
0.82
(0.35
1.29)
sites
1.90
(1.24
2.55)
study
provides
compelling
empirical
positively
affects
productivity,
offering
an
effective
non-lethal
solution
increasingly
common
conflict
where
both
prey
afforded
protection.
Methods in Ecology and Evolution,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 26, 2024
Abstract
Artificial
intelligence
(AI)
has
revolutionised
the
process
of
identifying
species
and
individuals
in
audio
recordings
camera
trap
images.
However,
despite
developments
sensor
technology,
machine
learning
statistical
methods,
a
general
AI‐assisted
data‐to‐inference
pipeline
yet
to
emerge.
We
argue
that
this
is,
part,
due
lack
clarity
around
several
decisions
existing
workflows,
including:
choice
classifier
used
(e.g.
semi‐
vs.
fully
automated);
how
confidence
scores
are
interpreted;
availability
selection
appropriate
methods
for
drawing
ecological
inferences.
Here,
we
attempt
conceptualise
workflow
associated
with
automated
tools
ecology.
motivate
perspective
using
our
experiences
occupancy
modelling
monitoring
data
collected
through
passive
acoustic
trapping,
priority
areas
future
developments.
offer
an
accessible
guide
support
community
navigating
capitalising
on
rapid
technological
methodological
advances.
describe
different
error
types
arise
from
both
sensor‐based
classifiers
themselves;
handled
at
each
stage
workflow;
finally,
implications
opportunities
deciding
step
pipeline.
recommend
‘black
box’
like
neural
network
classification
algorithms
should
be
embraced
ecology,
but
widespread
uptake
requires
more
formal
integration
AI
into
inference
workflows.
Like
broadly,
however,
successful
development
new
pipelines
is
multidisciplinary
endeavour
input
everyone
invested
collecting,
processing,
analysing
data.