Emerging horizons in predictive biogeography
Ecography,
Год журнала:
2025,
Номер
unknown
Опубликована: Фев. 10, 2025
The
notion
that
different
branches
of
biological
sciences
–
including
ecology,
macroecology,
and
biogeography
should
adopt
a
predictive
focus
rather
than
merely
aiming
to
describe
understand
the
natural
world
has
gained
traction
over
past
decades
(Peters
1991,
Shrader-Frechette
McCoy
1993).
This
trend
been
enabled
both
by
technological
advancement
leading
new
frameworks,
pressing
societal
demands
anticipate
mitigate
effects
global
change
on
biodiversity
associated
ecosystem
services.
An
early
example
this
is
work
Sánchez-Cordero
et
al.
(2004)
who
contributed
chapter
for
conservation
applications
in
seminal
volume
(Lomolino
Heaney
2004).
While
authors
did
not
explicitly
define
term
biogeography,
their
discussion
emphasized
how
developments
statistical
ecology
mapping
had
allowed
description
species
distributions
at
large
spatial
scales.
Similarly,
Thuiller
(2006)
employed
concept
restricted
context
describing
use
stacked
distribution
models
(SDMs)
predicting
plant
richness
South
Africa.
Dawson
(2011)
subsequently
highlighted
SDMs
as
most
widely
used
method
but
also
called
attention
importance
establishing
broader
frameworks
changes
biodiversity,
from
ecosystems,
response
climate
change.
There
are
other
biogeographic
patterns
context.
Most
notably,
area
relationships
(SARs),
which
have
important
predict
extinctions
(Drakare
2006)
driven
anthropogenic
habitat
fragmentation
example.
However,
widespread
SDMs,
along
with
fact
they
remain
choice
scales
repeatedly
(Bellard
2012,
Araújo
2019,
Zurell
2020,
Soley-Guardia
2024).
Mapping
remains
an
essential
component
large-scale
planning
(Margules
2002).
It
critical
only
delineating
statuses,
trends,
management
strategies
regional
scales,
interpreting
geological,
historical,
causes
consequences
(Whittaker
2005).
Therefore,
modelling
will
probably
biogeography.
many
studies
emphasize
need
move
beyond
individual
encompass
range
spatio-temporal
issues
interface
between
society,
such
services,
human
health
agricultural
systems.
expanded
scope
inevitably
calls
wider
definition
In
special
issue,
we
aim
broaden
application
moving
confines
spotlight
cutting
edge
research
across
dimensions
field.
deliberate
opposed
or
reflects
our
intent
include
more
diverse
array
approaches
statistical,
evolutionary,
contribute
understanding
forecasting
distribution,
abundance,
diversity
broad
and/or
temporal
includes
systems
productive
(e.g.
agroecosystems).
We
propose
subdiscipline
uses
known
ecological
evolutionary
processes
diversity,
whether
it
be
species,
intra-,
inter-specific
levels,
biotic
interactions
relationship
environment,
Over
two
decades,
field
experienced
exponential
growth,
increasing
availability
digital
data
genetic
variability
within
them,
well
proliferation
spatially
explicit
environmental
layers
increasingly
fine
resolutions.
rapid
evolution
catalysed
development
syntheses
theories,
alongside
advancements
methodologies
computational
capabilities.
As
result,
undergoing
transformation
primarily
descriptive
discipline
championed
likes
Alexander
von
Humboldt
(1769–1859),
Augustin
Pyramus
de
Candolle
(1778–1841),
Alfred
Russel
Wallace
(1823–1913),
Philip
Lutley
Sclater
(1829–1913),
amongst
others,
science,
capable
informing
fundamental
practical
conservation,
resource
management,
beyond.
emergence
demand
(Dietze
2018,
Enquist
growing
challenges
decline
rising
food
demands,
far-reaching
impacts
recent
pandemics
paired
ongoing
threaten
security,
public
health,
made
ability
these
existential
priority
humanity.
time,
expanded.
Initially,
1990s,
its
centred
largely
past,
present,
future
biodiversity.
Today,
evolved
address
directly
linked
societies,
production
(Enquist
relevance
positioned
underpinning
wide
fields
(Araújo
Peterson
2012).
These
biology
2011,
Fordham
2013),
agriculture
(Meynard
2017,
Gerber
2024,
Soubeyrand
2024),
forestry
(Zhang
2022,
Rosa
fisheries
(Cheung
2010,
Boavida-Portugal
2018),
epidemiology
(Aliaga-Samanez
Mestre
paleobiology
(Metcalf
2014,
2022),
reflecting
versatility
addressing
contemporary
issues.
advances
all
areas
biology,
computer
science
translated
into
vast
high-resolution
information
geographic
areas,
landscapes,
countries,
continents,
even
globally.
Technological
molecular
sequencing,
make
monitoring,
microscopic
life,
possible
(Beng
Corlett
2020).
DNA
recovery
efforts
can
go
so
far
sequence
ancient
samples,
allowing
exploration
old
specimens
stored
museum
collections
(Raxworthy
Smith
2021),
recovering
trophic
through
samples
(Pereira
2023).
Sequencing,
analytical
theoretical
advances,
makes
integrate
history,
rates
diversification
(Morlon
Kergoat
2018)
predictions
Remote
sensing
follow
land
(Cavender-Bares
integrating
chemical
properties
phylogenetic
functional
2020),
microclimate
resolutions
(Lembrechts
2020)
among
promising
allow
fine-grain
mechanisms
models.
Statistical
methods
computing
(Record
2023),
technology
allows
sharing
globally,
curated
occurrence,
trait,
phylogenetic,
any
type
datasets.
just
few
expanding
extent
fine-resolution
gathered.
When
combined,
applied,
greatly
advance
future.
Within
bounds,
identify
least
three
components
framework
(Fig.
1):
data,
must
fall
domain
biogeography;
one
scenarios
establish
relevant
predictions;
formal
model
theory
translates
current
biodiversity–environment
considered.
Note
often
pertain
land-use
scenarios),
scenarios,
extinction
strategies,
behaviour,
driving
predictions.
Importantly,
view
dynamic
static.
Advances
scenario
lead
updates
models,
turn,
outputs
requirements
guide
collection
refinement
creating
positive
feedback
loop
2018).
Conceptual
summary
framework.
Every
effort
ingredients
(a)
theories
models;
(b)
shows
several
indicators
measures,
feeding
each
ways.
Although
usually
combination
occurrence
(SDM)
predictions),
depend
sought;
very
related
change,
evolution,
resilience,
extinction,
kind
changes.
Finally,
set
combining
needed,
although
main
desired
scope.
compared,
validated,
measured
against
real
patterns.
A
panoply
higher
spatial,
temporal,
taxonomic
resolution,
facets
genetics,
phenotypic,
functional,
phenological)
key
larger
Examples
shown
(c),
no
means
exhaustive
list.
Each
involve
plethora
elements.
For
example,
gene
expression
profiles,
intra-specific
intra-
traits,
others
1).
Despite
significant
progress,
technologies
enabling
measurement,
characterization
continue
evolve.
considerable
potential
innovation
relating
environment
factors,
imagining
enhancing
curating
papers
aimed
interdisciplinary
integration.
compiled
revolve
around
core
tool
Boom
Kissling
(2024)
tracking
complement
traditional
improving
SDM
Chronister
demonstrate
automated
acoustic
detectors
monitor
distinguish
juvenile
adult
great
horned
owls,
opening
door
estimating
demographic
parameters
By
incorporating
researchers
explore
life
cycle
stages
factor
consider
when
setting
priorities.
Goicolea
employ
hierarchical
refine
locally
calibrated
nested
regionally
constrained
ones.
approach
mitigates
common
problem
truncating
calibrating
local
(Thuiller
Mowry
account
constraints
disease
vector
ticks,
case
resulting
improved
estimates.
Several
featured
issue
leverage
interplay
differentiation
populations
distributions.
Naughtin
structure
SDM-based
reconstructions
ranges
infer,
via
approximate
Bayesian
computation
(ABC)
likely
combinations
matches
structure.
argue
help
rank
otherwise
indistinguishable
using
standard
validation
methods.
another
application,
Mascarenhas
Carnaval
random
forest
relates
history
particularly
dispersal
characteristics.
Their
results
highlight
traits
arthropod
phylogeography.
Hernández
linking
suitability,
modelled
deep
time
intervals,
diversity.
integration
produces
interesting
regarding
stability
paleological
periods
structures,
identification
endemic
regions
poorly
surveyed
Along
similar
lines,
Formoso-Freire
relate
abundance
distributions,
investigating
long-term
informs
present-day
community
stability.
modelling.
Sharma
niche
evolution.
utility
study
hummingbirds.
Verdon
eDNA
estimate
soil
taxa
traditionally
overlooked
monitoring.
ambitious
incorporates
numerous
amplicon
variants
(ASVs),
revealing
capabilities
limitations
approaches.
discussed
authors,
dynamics
require
better
estimates
enhanced
soil-related
Another
recurring
theme
incorporation
success
adapting
changing
climates
hinges
Luoto
2007).
Poggiato
(2025)
tackled
while
González-Trujillo
phenomenological
structures
proposed
Mendoza
(2019,
2022).
hindcast
guild
latitudes,
interactions.
Predictive
represented
issue.
Park
present
simulation
demonstrating
median
flowering
dates
mean
temperatures
onset
termination
periods.
offers
valuable
inferring
phenology
strong
representation,
thus
helping
phenological
shifts
Siders
capitalize
comprehensive
literature
review
extract
shark
devices
comparing
vertical
without
depth-weighted
information.
show
depth
preference
add
sharks,
components.
Adding
third
dimension
marine
seems
like
venue
research,
recently
available
thanks
accumulation
biotelemetry
3-D
ocean
(Fragkopoulou
Lertzman-Lepofsky
take
advantage
databases
role
explaining
correlations
taxa.
analysis
demonstrates
co-variations
well-documented
enhances
time.
summary,
exemplify
innovations
reshaping
monitor,
understand,
various
From
population
taxonomic,
evolving
rapidly.
Emerging
now
previously
invisible
challenging-to-monitor
aspects
facilitated
tools
eDNA,
detection
(sound
telemetry),
modelling,
big
exciting
direction
involves
utilizing
deep-time
inform
forecast
sequencing
opened
possibilities
examining
variation
forging
compelling
connections
there
gaps
publications
(Maldonado
2015,
Nuñez
focused
tropical
(Mascarenhas
Moreover,
small
subset
those
illustrated
Fig.
1c.
plays
crucial
monitoring
scale,
features
limited
scaling
contexts.
underscore
number
unexplored
advancing
could
combine
text
mining,
citizen
engaging
individuals
everyday
cell
phones
multi-modal
real-time
analysis?
Such
enable
declines
shifts.
Could
genomics
epigenetics
offer
deeper
insights
genotype-to-phenotype
relationships,
adaptation
prioritizing
level?
Furthermore,
facilitate
'macroscope'
(Gonzalez
bridging
gap
leaves
Global
underrepresented
datasets?
questions
scratch
surface
what
achieved
push
boundaries
does
represent
exhaustively
literature,
prevalence
absence
certain
biases
state
none
(Lagerholm
Raxworthy
2021)
environments
middens
pollen
deposits,
pre-human
baselines,
shifts,
influenced
intervention.
lack
coherent
uncertainties.
ensemble
become
practice
2007,
2019),
equivalent
identifying
reporting
Citizen
underrepresented,
despite
prominence
artificial
intelligence
assisted
Pl@ntNet
(Joly
2016).
Links
error
estimation
further
applied
development.
dominance
limitations.
To
static
mechanistic
Functional
though
promising,
here.
empirical
elusive
(but
see
Violle
Díaz
Neyret
developed
scaled
extents
scenarios.
incorporate
regulation,
productivity,
stability,
functions
focusing
solely
species.
Dynamic
weather
remote
Near-term
identified
making
timely
decisions
play
retroactive
role,
lessons
learned
improve
forecasts
Lewis
Achieving
requires
fully
replicable
pipelines
near-real-time
data.
highlights
open
programming
literacy
(Mandeville
2021).
Open
ensure
reproducibility
democratize
easily
adapted
settings
2015).
Additionally,
system
archiving
synthesizing
2023)
needed
build
based
experiences.
points
out,
given
us
toolkit
learn
about
levels
organization,
datasets
detailed
equally
informative
reconciling
scientific
cultures:
values
detail
specificity,
emphasizes
experimentation
explanations,
simplifies
discern
generalizable
Striking
right
balance
challenging
yet
worthwhile
endeavour
science.
CNM
was
funded
her
salary
French
servant
national
institution.
Christine
Meynard:
Conceptualization
(equal),
Validation
Writing
-
original
draft
(lead),
editing
(lead).
Sydne
Record:
(supporting),
(supporting).
Nuria
Galiana:
Dominique
Gravel:
Miguel
Araújo:
Язык: Английский
Measuring polar bear health using allostatic load
Conservation Physiology,
Год журнала:
2025,
Номер
13(1)
Опубликована: Янв. 1, 2025
The
southern
Beaufort
Sea
polar
bear
sub-population
(Ursus
maritimus)
has
been
adversely
affected
by
climate
change
and
loss
of
sea
ice
habitat.
Even
though
the
is
likely
decreasing,
it
remains
difficult
to
link
individual
health
physiological
effects.
We
developed
an
index
allostatic
load,
which
represents
potential
dysregulation.
load
included
blood-
hair-based
analytes
measured
in
physically
captured
bears
spring.
examined
relation
body
condition,
age,
terrestrial
habitat
use
and,
over
time,
for
demographic
groups.
Overall,
had
no
relationship
with
condition.
However,
was
higher
adult
females
without
cubs
that
used
habitats
prior
year,
indicating
dysregulation
land
use.
Allostatic
declined
age
cubs.
Sub-adult
males
demonstrated
decreased
time.
Our
study
one
first
attempts
develop
a
scoring
system
free-ranging
bears,
our
findings
highlight
complexity
using
as
wild
species.
Establishing
links
between
population
dynamics
important
advancing
conservation
efforts.
Язык: Английский
Habitat Suitability of Ziziphus spina‐christi and Ziziphus nummularia in a Changing Climate in the Khalijo‐Omanian Zone, Iran
Ecology and Evolution,
Год журнала:
2025,
Номер
15(5)
Опубликована: Май 1, 2025
ABSTRACT
Climate
change,
a
global
threat
of
utmost
significance,
has
the
potential
to
trigger
shifts
in
biodiversity
distribution
and
emergence
novel
ecological
communities.
While
considerable
research
focused
on
predicting
impacts
climate
change
range
shift
species,
critical
yet
often
overlooked
aspect
is
role
changing
plants
hot,
arid,
poorly
known
ecosystems.
We
employed
an
ensemble
species
modeling
framework
investigate
how
might
affect
spatial
two
significant
indicator
Ziziphus
spina‐christi
nummularia
,
within
hot
arid
Khalijo‐Omanian
ecosystem
Iran.
ran
models
for
current
using
climatic
variables
then
projected
future
periods
(2041–2070
2071–2100)
under
different
scenarios.
These
findings
suggest
that
both
respond
differently
Some
regions
may
undergo
expansion,
whereas
others
experience
contraction
due
shifting
environmental
conditions.
Overall,
are
their
towards
higher
latitudes
as
conditions
evolve.
Conservation
management
measures,
including
identification
priority
areas,
crucial
protecting
these
species.
The
conclusions
this
study
valuable
conservation
authorities,
local
stakeholders,
individuals
dedicated
preserving
habitats.
Язык: Английский