bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2022,
Volume and Issue:
unknown
Published: Sept. 27, 2022
Abstract
Generating
spatial
predictions
of
species
distribution
is
a
central
task
for
research
and
policy.
Currently,
correlative
models
(cSDMs)
are
among
the
most
widely
used
tools
this
purpose.
However,
cSDMs
fundamental
assumption
distributions
in
equilibrium
with
their
environment
rarely
met
real
data
limits
applicability
dynamic
projections.
Process-based,
SDMs
(dSDMs)
promise
to
overcome
these
limitations
as
they
explicitly
represent
transient
dynamics
enhance
spatio-temporal
transferability.
Software
implementing
dSDMs
become
increasingly
available,
yet
parameter
estimation
can
be
complex.
Here,
we
test
feasibility
calibrating
validating
dSDM
using
long-term
monitoring
Swiss
red
kites
(
Milvus
milvus
).
This
population
has
shown
strong
increases
abundance
progressive
range
expansion
over
last
decades,
indicating
non-equilibrium
situation.
We
construct
an
individual-based
model
RangeShiftR
modelling
platform
use
Bayesian
inference
calibration.
allows
integration
heterogeneous
sources,
such
estimates
from
published
literature
well
observational
schemes,
coherent
assessment
uncertainty.
Our
encompass
counts
breeding
pairs
at
267
sites
across
Switzerland
22
years.
validate
our
spatial-block
cross-validation
scheme
assess
predictive
performance
rank-correlation
coefficient.
showed
very
good
accuracy
projections
represented
observed
two
decades.
Results
suggest
that
reproductive
success
was
key
factor
driving
expansion.
According
model,
kite
fills
large
parts
its
current
but
potential
further
density.
demonstrate
practicality
validation
RangeShifteR.
approach
improve
compared
cSDMs.
The
workflow
presented
here
adopted
any
which
some
prior
knowledge
on
demographic
dispersal
parameters
observations
or
presence/absence
available.
fitted
provides
improved
quantitative
insights
into
ecology
species,
may
greatly
help
conservation
management
actions.
Open
Research
statement
submission
uses
novel
code
provided
external
repository.
All
required
replicate
analyses
private-for-peer
review
via
public
GitHub
repository
under
following
link:
https://github.com/UP-macroecology/Malchow_IBMcalibration_2023
Upon
acceptance,
will
archived
versioned
Zenodo
DOI
provided.
For
study,
tagged
development
version
R
package
available
at:
https://github.com/RangeShifter/RangeShiftR-package/releases/tag/v.1.1-beta.0
Ecography,
Journal Year:
2021,
Volume and Issue:
2022(4)
Published: Oct. 8, 2021
Models
are
useful
tools
for
understanding
and
predicting
ecological
patterns
processes.
Under
ongoing
climate
biodiversity
change,
they
can
greatly
facilitate
decision‐making
in
conservation
restoration
help
designing
adequate
management
strategies
an
uncertain
future.
Here,
we
review
the
use
of
spatially
explicit
models
decision
support
to
identify
key
gaps
current
modelling
restoration.
Of
650
reviewed
publications,
217
publications
had
a
clear
application
were
included
our
quantitative
analyses.
Overall,
studies
biased
towards
static
(79%),
species
population
level
(80%)
(rather
than
restoration)
applications
(71%).
Correlative
niche
most
widely
used
model
type.
Dynamic
as
well
gene‐to‐individual
community‐to‐ecosystem
underrepresented,
cost
optimisation
approaches
only
10%
studies.
We
present
new
typology
selecting
animal
restoration,
characterising
types
according
organisational
levels,
biological
processes
interest
desired
applications.
This
will
more
closely
link
goals.
Additionally,
future
efforts
need
overcome
important
challenges
related
data
integration,
integration
decision‐making.
conclude
with
five
recommendations,
suggesting
that
wider
usage
be
achieved
by
1)
developing
toolbox
multiple,
easier‐to‐use
methods,
2)
improving
calibration
validation
dynamic
3)
best‐practise
guidelines
applying
these
models.
Further,
robust
4)
combining
multiple
assess
uncertainty,
5)
placing
at
core
adaptive
management.
These
must
accompanied
long‐term
funding
monitoring,
improved
communication
between
research
practise
ensure
optimal
outcomes.
Ecography,
Journal Year:
2021,
Volume and Issue:
44(10), P. 1453 - 1462
Published: Aug. 29, 2021
Process‐based
models
are
becoming
increasingly
used
tools
for
understanding
how
species
likely
to
respond
environmental
changes
and
potential
management
options.
RangeShifter
is
one
such
modelling
platform,
which
has
been
address
a
range
of
questions
including
identifying
effective
reintroduction
strategies,
patterns
expansion
assessing
population
viability
across
complex
landscapes.
Here
we
introduce
new
version,
2.0,
incorporates
important
functionality.
It
now
possible
simulate
dynamics
over
user‐specified,
temporally
changing
Additionally,
integrated
genetic
module,
notably
introducing
an
explicit
architecture,
allows
simulation
neutral
adaptive
processes.
Furthermore,
emigration,
transfer
settlement
traits
can
all
evolve,
allowing
sophisticated
the
evolution
dispersal.
We
illustrate
application
2.0's
functionality
by
two
examples.
The
first
illustrates
virtual
dynamically
UK
landscape.
second
demonstrates
software
be
explore
concept
evolving
connectivity
in
response
land‐use
modification,
examining
movement
rules
come
under
selection
landscapes
different
structure
composition.
2.0
built
using
object‐oriented
C++
providing
computationally
efficient
individual‐based,
eco‐evolutionary
models.
code
redeveloped
enable
use
operating
systems,
on
high
performance
computing
clusters,
Windows
graphical
user
interface
enhanced.
will
facilitate
development
in‐silico
assessments
options
conserving
or
controlling
them.
By
making
available
open
source,
hope
inspire
further
collaborations
extensions
ecological
community.
Methods in Ecology and Evolution,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 22, 2025
Abstract
Global
change
driven
by
human
activities
is
causing
profound
shifts
in
species
distributions.
Understanding
the
mechanisms
that
influence
these
dynamics
crucial
for
biodiversity
management.
Several
mechanistic,
spatially
explicit
models
have
been
proposed
to
address
this
issue,
but
they
do
not
cover
full
range
of
potential
functionalities.
We
present
a
new
open‐source
R
package
called
rangr
,
which
integrates
population
and
dispersal
into
mechanistic
virtual
simulator.
The
can
be
used
study
effects
environmental
on
growth
shifts.
It
extends
capabilities
previously
available
simulators
allowing
simple
straightforward
definition
(including
positive
density
dependence),
extensive
possibilities
defining
kernels
ability
generate
ecologist
data.
showcased
functionality
simulating
invasion
collared
dove
(
Streptopelia
decaocto
).
First,
we
demonstrated
how
set
up
simulation
with
different
investigating
role
long‐distance
events
colonisation
outcome.
Second,
showed
use
assess
an
Allee
effect
impede
biological
invasion.
Finally,
framework
determine
timeframe
required
detect
spread
invasive
species.
package,
comes
documentation
vignettes,
easy
up,
flexible,
fast,
fully
configurable
capable
emulating
observation
process.
These
features
make
particularly
well
suited
generating
data
replicate
existing
wildlife
monitoring
programmes.
Ecography,
Journal Year:
2022,
Volume and Issue:
2023(4)
Published: July 27, 2022
Pioneer
naturalists
such
as
Whewell,
Lyell,
Humboldt,
Darwin
and
Wallace
acknowledged
the
interactions
between
ecological
evolutionary
forces,
well
roles
of
continental
movement,
mountain
formation
climate
variations,
in
shaping
biodiversity
patterns.
Recent
developments
computer
modelling
paleo‐environmental
reconstruction
have
made
it
possible
for
scientists
to
study
silico
how
emerges
from
eco‐evolutionary
environmental
dynamic
processes
their
interactions.
Simulating
emergent
enables
experimentation
multiple
interconnected
hypotheses
a
largely
fragmented
scientific
landscape,
with
final
objective
successfully
approximating
natural
mechanisms
(i.e.
hypothetical
spatio–temporally
unrestricted
generalizations
that
hold
across
empirical
patterns).
This
new
interdisciplinary
approach
opens
unprecedented
pathways,
facilitating
communication
contemplation
causal
implications
complex
In
this
review
I
provide
comprehensive
overview
available
population‐based
spatially
explicit
mechanistic
models
(MEEMs)
rely
on
reconstructions,
critically
discussing
relevance
limitations
our
understanding
biodiversity.
To
achieve
this,
first
introduce
diverse
contextualize
MEEMs.
Second,
define
MEEMs
synthesize
major
insights
studies
using
combined
deep‐time
dynamics
(>
0.1
Ma).
Lastly,
discuss
challenges
perspectives
solving
long‐standing
enigmas
by
coupling
dynamics.
Studies
show
linking
environments
is
necessary
reproduce
large‐scale
patterns
simultaneously.
Mechanisms
related
adaptations
(e.g.
niche
evolution),
dispersal
abilities
other
those
resulting
speciation
or
extinction
events)
universal
importance,
although
signatures
spatial
temporal
scales
remain
unknown.
Investigations
MEEMS
spanning
levels
complexity
space
time
foster
cooperation
sciences
promise
some
Earth's
Ecology and Evolution,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: Jan. 1, 2025
Process-based
models
for
range
dynamics
are
urgently
needed
due
to
increasing
intensity
of
human-induced
biodiversity
change.
Despite
a
few
existing
that
focus
on
demographic
processes,
their
use
remains
limited
compared
the
widespread
application
correlative
approaches.
This
slow
adoption
is
largely
challenges
in
calibrating
biological
parameters
and
high
computational
demands
large-scale
applications.
Moreover,
number
simulated
processes
(i.e.,
mechanistic
complexity)
may
further
exacerbate
those
reasons
delay.
Therefore,
balancing
complexity
effectiveness
process-based
key
area
improvement.
A
promising
research
direction
expand
demographically
explicit
metapopulation
by
integrating
metabolic
constraints.
We
translated
expanded
previously
developed
R
model
Julia
language
published
it
as
module.
The
integrates
species-specific
such
preferred
environmental
conditions,
biomass
dispersal
ability
with
rates
(e.g.,
reproductive
mortality
rates)
derived
from
local
temperature
via
theory
ecology.
provide
simple
example
which
we
illustrate
typical
case
predicting
future
occurrence
Ecological Applications,
Journal Year:
2024,
Volume and Issue:
34(4)
Published: April 17, 2024
Abstract
Generating
spatial
predictions
of
species
distribution
is
a
central
task
for
research
and
policy.
Currently,
correlative
models
(cSDMs)
are
among
the
most
widely
used
tools
this
purpose.
However,
fundamental
assumption
cSDMs,
that
distributions
in
equilibrium
with
their
environment,
rarely
fulfilled
real
data
limits
applicability
cSDMs
dynamic
projections.
Process‐based,
SDMs
(dSDMs)
promise
to
overcome
these
limitations
as
they
explicitly
represent
transient
dynamics
enhance
spatiotemporal
transferability.
Software
implementing
dSDMs
becoming
increasingly
available,
but
parameter
estimation
can
be
complex.
Here,
we
test
feasibility
calibrating
validating
dSDM
using
long‐term
monitoring
Swiss
red
kites
(
Milvus
milvus
).
This
population
has
shown
strong
increases
abundance
progressive
range
expansion
over
last
decades,
indicating
nonequilibrium
situation.
We
construct
an
individual‐based
model
RangeShiftR
modeling
platform
use
Bayesian
inference
calibration.
allows
integration
heterogeneous
sources,
such
estimates
from
published
literature
observational
schemes,
coherent
assessment
uncertainty.
Our
encompass
counts
breeding
pairs
at
267
sites
across
Switzerland
22
years.
validate
our
spatial‐block
cross‐validation
scheme
assess
predictive
performance
rank‐correlation
coefficient.
showed
very
good
accuracy
projections
represented
well
observed
two
decades.
Results
suggest
reproductive
success
was
key
factor
driving
expansion.
According
model,
kite
fills
large
parts
its
current
potential
further
density.
demonstrate
practicality
validation
RangeShiftR.
approach
improve
compared
cSDMs.
The
workflow
presented
here
adopted
any
which
some
prior
knowledge
on
demographic
dispersal
parameters
observations
or
presence/absence
available.
fitted
provides
improved
quantitative
insights
into
ecology
species,
greatly
aid
conservation
management
efforts.
Journal of Ecology,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 13, 2025
Abstract
Environmental
conditions
are
dynamic,
and
plants
respond
to
those
dynamics
on
multiple
time
scales.
Disequilibrium
occurs
when
a
response
more
slowly
than
the
driving
environmental
changes.
We
review
evidence
regarding
disequilibrium
in
plant
distributions,
including
their
responses
paleoclimate
changes,
recent
climate
change
new
species
introductions.
There
is
strong
that
distributions
often
some
with
conditions.
This
poses
challenge
projecting
future
using
distribution
models
(SDMs).
Classically,
SDMs
assume
set
of
occurrences
an
unbiased
sample
suitable
However,
environment
may
have
higher‐than‐expected
occurrence
probabilities
(e.g.
due
extinction
debts)
or
lower‐than‐expected
dispersal
limitation)
different
areas.
If
unaccounted
for,
this
will
lead
biased
estimates
suitability.
methods
for
avoiding
such
biases
SDMs,
ranging
from
simple
thinning
dataset
complex
dynamic
process‐based
models.
Such
require
large
data
inputs,
natural
history
knowledge
technical
expertise,
so
implementing
them
can
be
challenging.
Despite
this,
we
advocate
increased
use,
since
provide
best
potential
account
model
training
then
represent
occupancy
as
ranges
shift.
Synthesis
.
Occurrence
records
climate.
trained
produce
species'
niche
unless
addressed
modelling.
A
range
tools,
spanning
wide
gradient
complexity
realism,
resolve
bias.
Biodiversity
loss
and
widespread
ecosystem
degradation
are
among
the
most
pressing
challenges
of
our
time,
requiring
urgent
action.
Yet
understanding
their
causes
remains
limited
because
prevailing
ecological
concepts
approaches
often
overlook
underlying
complex
interactions
individuals
same
or
different
species,
interacting
with
each
other
environment.
We
propose
a
paradigm
shift
in
science,
moving
from
simplifying
frameworks
that
use
population
community
averages
to
an
integrative
approach
recognizes
individual
organisms
as
fundamental
agents
change.
The
urgency
biodiversity
crisis
requires
such
advance
ecology
towards
predictive
science
by
elucidating
causal
mechanisms
linking
variation
adaptive
behaviour
emergent
properties
populations,
communities,
ecosystems,
human
interventions.
Recent
advances
computational
technologies,
sensors,
analytical
tools
now
offer
unprecedented
opportunities
overcome
past
lay
foundation
for
truly
integrated
Individual-Based
Global
Change
Ecology
(IBGCE).
Unravelling
potential
role
variability
global
change
impact
analyses
will
require
systematic
combination
empirical,
experimental
modelling
studies
across
systems,
while
taking
into
account
multiple
drivers
interactions.
Key
priorities
include
refining
theoretical
frameworks,
developing
benchmark
models
standardized
toolsets,
systematically
incorporating
empirical
field
work,
experiments
models.
emerging
synergies
between
individual-based
modelling,
big
data
approaches,
machine
learning
hold
great
promise
addressing
inherent
complexity
ecosystems.
Each
step
development
IBGCE
must
balance
perspective
parsimony,
efficiency,
feasibility.
aims
unravel
predict
dynamics
Anthropocene
through
comprehensive
study
organisms,
It
provide
critical
considering
future
conservation
sustainability
management,
individual-to-ecosystem
pathways
feedbacks.