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.
Ecological Informatics,
Journal Year:
2024,
Volume and Issue:
80, P. 102466 - 102466
Published: Jan. 9, 2024
Camera
traps
are
widely
used
for
wildlife
monitoring
and
making
informed
conservation
land-management
decisions,
but
the
resulting
'big
data'
laborious
to
process.
Deep
learning-based
methods
have
been
adopted
detection
in
camera
traps.
However,
these
detect
large
mammals
uncomplicated
scenes,
where
powerful
deep-learning
models
work
effectively.
Few
studies
conducted
develop
artificial
intelligence
recognizing
wild
birds
that
live
complicated
field
scenes
with
protective
colors
small
sizes.
Here
we
a
dataset
of
9717
images
from
15
bird
species
based
on
test
8
object
algorithms
(Faster
RCNN,
Cascade
RetinaNet,
FCOS,
RepPoints,
ATSS,
Deformable-DETR,
Sparse
RCNN)
assess
their
performance.
We
also
explored
effect
different
backbones
model
accuracy.
Among
them,
RCNN
performs
best,
mAP
0.693
capabilities.
Models
perform
differently
certain
species,
significantly
affect
accuracy
model.
utilizing
Swin-T
backbone
is
best-performing
combination,
0.704.
This
study
could
help
researchers
identify
efficiently
inspires
research
recognition
complex
ecological
settings.
Ecological Informatics,
Journal Year:
2024,
Volume and Issue:
79, P. 102453 - 102453
Published: Jan. 2, 2024
The
camera
traps
have
revolutionized
the
image
and
video
capture
in
ecology
are
often
used
to
monitor
record
animal
presence.
With
miniaturization
of
low
power
electronic
devices,
better
battery
technologies,
software
advancements,
it
has
become
possible
use
edge
such
as
Raspberry
Pi
that
can
not
only
images
videos,
but
also
enable
sophisticated
processing,
off-site
communications.
These
developments
help
provide
near
real-time
insights
reduce
manual
processing
images.
on-board
classification
visualization
is
facilitated
by
advancements
Deep
Neural
Networks
(DNN),
transfer
learning
approaches,
libraries.
This
paper
provides
an
investigation
with
approaches
using
pre-trained
DNN
models,
visualizations
Explainable
Artificial
Intelligence
(XAI)
techniques
on
Zero
(RPi-Z)
device.
MobileNetV2
model
was
for
Florida-Part1
dataset
obtaining
results
precision,
recall,
F1-score
0.95,
0.96,
0.95
respectively.
We
compared
performance
MobileNetV2,
EfficientNetV2B0,
MobileViT
models
Extinction
best
0.97,
0.96
respectively,
obtained
EfficientNetV2B0
model.
Two
XAI
techniques,
Gradient-weighted-Class
Activation
Mapping
(Grad-CAM)
Occlusion
Sensitivity
were
through
heatmaps,
highlight
relative
importance
areas
contributing
model's
prediction,
understand
bias.
practical
case
scenarios
utilizing
optimization
deployment
ecological
research.
Basic and Applied Ecology,
Journal Year:
2024,
Volume and Issue:
79, P. 141 - 152
Published: June 27, 2024
Modern
approaches
with
advanced
technology
can
automate
and
expand
the
extent
resolution
of
biodiversity
monitoring.
We
present
development
an
innovative
system
for
automated
wildlife
monitoring
in
a
coastal
Natura
2000
nature
reserve
Netherlands
65
wireless
4G
cameras
which
are
deployed
autonomously
field
12
V/2A
solar
panels,
i.e.
without
need
to
replace
batteries
or
manually
retrieve
SD
cards.
The
transmit
images
automatically
(through
mobile
network)
sensor
portal,
contains
PostgreSQL
database
functionalities
task
scheduling
data
management,
allowing
scientists
site
managers
via
web
interface
view
remotely
monitor
performance
(e.g.
number
uploaded
files,
battery
status
card
storage
cameras).
camera
trap
sampling
design
combines
grid-based
stratified
by
major
habitats
placement
along
traditional
route,
experimental
set-up
inside
outside
large
herbivore
exclosures.
This
provides
opportunities
studying
distribution,
habitat
use,
activity,
phenology,
population
structure
community
composition
species
allows
comparison
novel
approaches.
Images
transferred
application
programming
interfaces
external
services
identification
long-term
storage.
A
deep
learning
model
was
tested
showed
promising
results
identifying
focal
species.
Furthermore,
detailed
cost
analysis
revealed
that
establishment
costs
higher
but
annual
operating
much
lower
than
those
trapping,
resulting
being
>40
%
more
cost-efficient.
developed
end-to-end
pipeline
demonstrates
continuous
networks
is
feasible
cost-efficient,
multiple
benefits
extending
current
methods.
be
applied
open
other
reserves
network
coverage.
Conservation,
Journal Year:
2024,
Volume and Issue:
4(4), P. 685 - 702
Published: Nov. 11, 2024
The
rapid
decline
in
global
biodiversity
demands
innovative
conservation
strategies.
This
paper
examines
the
use
of
artificial
intelligence
(AI)
wildlife
conservation,
focusing
on
Conservation
AI
platform.
Leveraging
machine
learning
and
computer
vision,
detects
classifies
animals,
humans,
poaching-related
objects
using
visual
spectrum
thermal
infrared
cameras.
platform
processes
these
data
with
convolutional
neural
networks
(CNNs)
transformer
architectures
to
monitor
species,
including
those
that
are
critically
endangered.
Real-time
detection
provides
immediate
responses
required
for
time-critical
situations
(e.g.,
poaching),
while
non-real-time
analysis
supports
long-term
monitoring
habitat
health
assessment.
Case
studies
from
Europe,
North
America,
Africa,
Southeast
Asia
highlight
platform’s
success
species
identification,
monitoring,
poaching
prevention.
also
discusses
challenges
related
quality,
model
accuracy,
logistical
constraints
outlining
future
directions
involving
technological
advancements,
expansion
into
new
geographical
regions,
deeper
collaboration
local
communities
policymakers.
represents
a
significant
step
forward
addressing
urgent
offering
scalable
adaptable
solution
can
be
implemented
globally.
Advances in environmental engineering and green technologies book series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 19 - 48
Published: Jan. 10, 2025
The
integration
of
artificial
intelligence
(AI)
into
wildlife
conservation
has
revolutionized
methodologies
for
monitoring
species,
enhancing
habitat
management,
and
combating
poaching.
This
chapter
examines
various
AI
applications
that
contribute
to
the
protection
preservation
biodiversity.
Remote
sensing
technologies,
powered
by
machine
learning
algorithms,
assist
in
assessing
health
tracking
changes
over
time.
AI-driven
image
recognition
tools
enable
identification
individual
animals
from
camera
trap
photos,
facilitating
more
accurate
population
estimates
behavioral
studies.
Moreover,
predictive
analytics
play
a
crucial
role
forecasting
human-wildlife
conflicts
informing
proactive
management
strategies.
synthesis
technologies
demonstrates
their
potential
enhance
efforts,
optimize
resource
allocation,
ultimately
foster
effective
initiatives.
ongoing
advancement
this
field
promises
create
innovative
solutions
some
most
pressing
challenges.
IET Computer Vision,
Journal Year:
2024,
Volume and Issue:
unknown
Published: July 3, 2024
Abstract
Most
machine
learning
methods
for
animal
recognition
in
camera
trap
images
are
limited
to
mammal
identification
and
group
birds
into
a
single
class.
Machine
visually
discriminating
birds,
turn,
cannot
discriminate
between
mammals
not
designed
images.
The
authors
present
deep
neural
network
models
recognise
both
bird
species
They
train
classification
as
well
predicting
the
taxonomy,
that
is,
genus,
family,
order,
group,
class
names.
Different
architectures,
including
ResNet,
EfficientNetV2,
Vision
Transformer,
Swin
ConvNeXt,
compared
these
tasks.
Furthermore,
investigate
approaches
overcome
various
challenges
associated
with
image
analysis.
authors’
best
achieve
mean
average
precision
(mAP)
of
97.91%
on
validation
data
set
mAPs
90.39%
82.77%
test
sets
recorded
forests
Germany
Poland,
respectively.
Their
taxonomic
reach
mAP
97.18%
94.23%
79.92%
two
sets,
Remote Sensing,
Journal Year:
2025,
Volume and Issue:
17(5), P. 769 - 769
Published: Feb. 23, 2025
Effective
monitoring
of
wildlife
is
critical
for
assessing
biodiversity
and
ecosystem
health
as
declines
in
key
species
often
signal
significant
environmental
changes.
Birds,
particularly
ground-nesting
species,
serve
important
ecological
indicators
due
to
their
sensitivity
pressures.
Camera
traps
have
become
indispensable
tools
nesting
bird
populations,
enabling
data
collection
across
diverse
habitats.
However,
the
manual
processing
analysis
such
are
resource-intensive,
delaying
delivery
actionable
conservation
insights.
This
study
presents
an
AI-driven
approach
real-time
detection,
focusing
on
curlew
(Numenius
arquata),
a
experiencing
population
declines.
A
custom-trained
YOLOv10
model
was
developed
detect
classify
curlews
chicks
using
3/4G-enabled
cameras
linked
Conservation
AI
platform.
The
system
processes
camera
trap
real
time,
significantly
enhancing
efficiency.
Across
11
sites
Wales,
achieved
high
performance,
with
90.56%,
specificity
100%,
F1-score
95.05%
detections
92.35%,
96.03%
chick
detections.
These
results
demonstrate
capability
systems
deliver
accurate,
timely
assessments,
facilitating
early
interventions
advancing
use
technology
research.
Ecosphere,
Journal Year:
2025,
Volume and Issue:
16(3)
Published: March 1, 2025
Abstract
Limited
data
on
species'
distributions
are
common
for
small
animals,
impeding
conservation
and
management.
Small
especially
ectothermic
taxa,
often
difficult
to
detect,
therefore
require
increased
time
resources
survey
effectively.
The
rise
of
technology
has
enabled
researchers
monitor
animals
in
a
range
ecosystems
longer
periods
than
traditional
methods
(e.g.,
live
trapping),
increasing
the
quality
cost‐effectiveness
wildlife
monitoring
practices.
We
used
DeakinCams,
custom‐built
smart
camera
traps,
address
three
aims:
(1)
To
including
ectotherms,
evaluate
performance
customized
computer
vision
object
detector
trained
SAWIT
dataset
automating
classification;
(2)
At
same
field
sites
using
commercially
available
we
evaluated
how
well
MegaDetector—a
freely
detection
model—detected
images
containing
animals;
(3)
complementarity
these
two
different
approaches
monitoring.
collected
85,870
videos
from
DeakinCams
50,888
commercial
cameras.
For
with
data,
yielded
98%
Precision
but
47%
recall,
species
classification,
varied
by
0%
Recall
birds
26%
14%
spiders.
detections
trap
images,
MegaDetector
returned
99%
Recall.
found
that
only
detected
nocturnal
ectotherms
invertebrates.
Making
use
more
diverse
datasets
training
models
as
advances
machine
learning
will
likely
improve
like
YOLO
novel
environments.
Our
results
support
need
continued
cross‐disciplinary
collaboration
ensure
large
environmental
train
test
existing
emerging
algorithms.
Animals,
Journal Year:
2024,
Volume and Issue:
14(23), P. 3353 - 3353
Published: Nov. 21, 2024
Poyang
Lake
is
the
largest
freshwater
lake
in
China
and
plays
a
significant
ecological
role.
Deep-learning-based
video
surveillance
can
effectively
monitor
bird
species
on
lake,
contributing
to
local
biodiversity
preservation.
To
address
challenges
of
multi-scale
object
detection
against
complex
backgrounds,
such
as
high
density
severe
occlusion,
we
propose
new
model
known
YOLOv8-bird
model.
First,
use
Receptive-Field
Attention
convolution,
which
improves
model's
ability
capture
utilize
image
information.
Second,
redesign
feature
fusion
network,
termed
DyASF-P2,
enhances
network's
small
features
reduces
target
information
loss.
Third,
lightweight
head
designed
reduce
size
without
sacrificing
precision.
Last,
Inner-ShapeIoU
loss
function
proposed
localization
challenge.
Experimental
results
PYL-5-2023
dataset
demonstrate
that
achieves
precision,
recall,
[email protected],
[email protected]:0.95
scores
94.6%,
89.4%,
94.8%,
70.4%,
respectively.
Additionally,
outperforms
other
mainstream
models
terms
accuracy.
These
indicate
well-suited
for
counting
tasks,
enable
it
support
monitoring
environment
Lake.