Abstract.
CHclim25
is
a
climatic
dataset
with
25
m
resolution
for
Switzerland
that
includes
daily,
monthly
and
yearly
layers
temperature,
precipitation,
relative
sunshine
duration,
growing
degree-days,
potential
evapotranspiration,
bioclimatic
variables
aridity.
The
downscaled
from
daily
1
km
the
Swiss
federal
agency
meteorology
using
local
regressions
an
elevation
model
to
better
account
topography
complex
phenomena.
Climatic
are
provided
individual
years,
1981–2010
baseline
period
future
periods
2020–2049,
2045–2074,
2070–209.
Future
incorporate
three
regional/global
circulation
models
representative
concentration
pathways.
We
compare
our
predictions
values
observed
at
independent
weather
stations
show
errors
minimal
in
comparison
original
resolution,
more
accurate
than
available
global
datasets
30’
especially
high
elevation.
improves
temporal
spatial
accuracy
of
data
enables
new
studies
very
ecology
environmental
sciences.
Frontiers of Biogeography,
Journal Year:
2025,
Volume and Issue:
18
Published: March 20, 2025
Species
distributions
are
frequently
modeled
using
predictors
that
exceed
the
spatial
scale
experienced
by
focal
species.
Incorporating
fine-scale
environmental
conditions
is
therefore
expected
to
lead
more
realistic
model
predictions.
However,
importance
of
existing
local
heterogeneity
on
species
distribution
remains
poorly
assessed
although
can
effectively
utilize
multiple
microhabitats
for
behavioral
adaptation
withstand
climate
change
impacts.
Here,
we
developed
a
fine-resolution
based
ambient
air
northern
pika
(
Ochotona
hyperborea
),
small
lagomorph
found
in
rocky
landforms,
Hokkaido,
Japan,
first
understand
improvement
performance
from
conventional
coarse-resolution
model.
We
then
how
predictions
alter
incorporating
rock-interstice
microclimates
their
habitats
baseline
(1981–2010)
and
future
periods
(2041–2100).
The
performed
better
overall
predicted
lower
habitat
suitability
across
study
area
than
Incorporation
microclimate
increased
markedly
relative
thermal
conditions,
which
resulted
predicting
suitable
areas
(hotter)
elevations
remaining
into
future.
This
result
suggests
may
negative
impacts
rising
temperatures
utilizing
rock
interstices
via
adaptation.
Our
findings
highlight
analyzing
at
fine
scales
considering
heterogeneity,
helps
mitigate
adverse
change,
conservation
under
change.
use
wide
variety
experience
locally.
In
Complex
topographical
features
locally
buffer
were
increase
enable
persistence
Local
impact
will
be
important
conservation.
Ecography,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 17, 2025
Knowledge
about
species
abundance
across
broad
spatial
areas
is
crucial
for
unraveling
ecological
processes.
Yet,
estimation
often
demands
extensive
sampling
effort
associated
with
logistical
challenges.
Using
suitability
values
obtained
from
distribution
models
(based
on
species'
presence
data)
as
a
proxy
has
garnered
interest
during
the
last
decades.
Previous
studies
suggest
triangular
relationship
between
and
suitability.
Specifically,
higher
can
display
both
low
high
abundances,
while
only
abundances.
This
pattern
arises
because
fail
to
consider
limiting
factors
that
drive
abundance.
In
this
study,
we
investigate
effect
of
scale
shaping
relationship.
We
use
simulation
study
case
explore
how
these
affect
abundance–suitability
The
effects
are
represented
by
three
model
levels:
1)
broad‐scale
covariates,
2)
intermediate
3)
broad,
local
covariates.
patterns
characterized
two
different
shapes:
aggregated
uniform.
Our
findings
reveal
integrating
local‐scale
covariates
exhibiting
more
show
stronger
Additionally,
observe
an
interaction
scale.
For
species,
benefits
most
notably
addition
intermediate‐scale
contrast,
uniform
benefit
remains
consistent
regardless
whether
intermediate‐
or
added.
results
underscore
importance
considering
methodological
improve
proxies
derived
models.
highlight
need
information
operating
at
make
reliable
inferences
potential
strategies
doing
it.
Ecology and Evolution,
Journal Year:
2025,
Volume and Issue:
15(4)
Published: April 1, 2025
ABSTRACT
Effective
biodiversity
conservation
requires
knowledge
of
species'
distributions
across
large
areas,
yet
prevalence
data
for
marine
sessile
species
is
scarce,
with
traditional
variables
often
unavailable
at
appropriate
temporal
and
spatial
resolutions.
As
organism
generally
depend
on
terrain
heterogeneity,
topographic
derived
from
digital
elevation
models
(DEMs)
can
be
useful
proxies
in
ecological
modelling,
given
Here,
we
use
three
reef‐building
Acropora
coral
the
Great
Barrier
Reef,
Australia,
a
case
study
to
(1)
assess
high‐resolution
bathymetry
DEM
sources
accuracy,
(2)
harness
their
regional
distribution
(SDMs),
(3)
develop
transferable
framework
produce,
select
integrate
multi‐resolution
into
models.
For
this,
obtained
processed
distinct
bathymetric
depth
that
treat
as
DEMs,
which
are
available
GBR
extent:
(i)
Allen
Coral
Atlas
(ACA)
10
m,
(ii)
DeepReef
30
m
(iii)
100
m.
We
generalised
DEMs
multiple
nested
resolutions
(15
m–120
m)
same
eight
SDM
sensitivity
source
resolution.
The
ACA
shared
similar
vertical
accuracies,
each
producing
relevant
SDMs.
Slope
vector
ruggedness
measure
(VRM),
capturing
hydrodynamic
movement
shelter
or
exposure,
were
most
SDMs
all
species.
Interestingly,
finest
resolution
not
always
accurate
SDMs,
optimal
between
15
60
depending
variable
type
Using
provided
nuanced
insights
multiscale
drivers
distributions.
Drawing
this
study,
provide
practical
facilitate
adoption
better‐informed
management
planning.
Ecosphere,
Journal Year:
2024,
Volume and Issue:
15(10)
Published: Oct. 1, 2024
Abstract
Global
mapping
of
forest
height
is
an
extremely
important
task
for
estimating
habitat
quality
and
modeling
biodiversity.
Recently,
three
global
canopy
maps
have
been
released,
the
map
(GFCH),
high‐resolution
model
Earth
(HRCH),
tree
(GMTCH).
Here,
we
assessed
their
accuracy
usability
biodiversity
modeling.
We
examined
by
comparing
them
with
reference
models
derived
from
airborne
laser
scanning
(ALS).
Our
results
show
considerable
differences
between
evaluated
maps.
The
root
mean
square
error
ranged
10
18
m
GFCH,
9–11
HRCH,
10–17
GMTCH,
respectively.
GFCH
GMTCH
consistently
underestimated
all
canopies
regardless
height,
while
HRCH
tended
to
overestimate
low
underestimate
tall
canopies.
Biodiversity
using
predicted
as
input
data
are
sufficient
simple
relationships
species
occurrence
but
use
leads
a
decrease
in
discrimination
ability
mischaracterization
niches
where
indices
(e.g.,
heterogeneity)
concerned.
showed
that
heterogeneity
considerably
urge
temperate
areas
rich
ALS
data,
activities
should
concentrate
on
harmonizing
rather
than
relying
modeled
products.
Evolutionary Applications,
Journal Year:
2024,
Volume and Issue:
17(7)
Published: June 28, 2024
Abstract
Landscape
genomic
analyses
associating
genetic
variation
with
environmental
variables
are
powerful
tools
for
studying
molecular
signatures
of
species'
local
adaptation
and
detecting
candidate
genes
under
selection.
The
development
landscape
genomics
over
the
past
decade
has
been
spurred
by
improvements
in
resolutions
datasets,
allegedly
increasing
power
to
identify
putative
underlying
non‐model
organisms.
Although
these
associations
have
successfully
applied
numerous
species
across
a
diverse
array
taxa,
spatial
scale
predictor
largely
overlooked,
potentially
limiting
conclusions
be
reached
methods.
To
address
this
knowledge
gap,
we
systematically
evaluated
performances
genotype–environment
association
(GEA)
models
using
at
multiple
resolutions.
Specifically,
used
multivariate
redundancy
associate
whole‐genome
sequence
data
from
plant
Arabis
alpina
L.
collected
four
neighboring
valleys
western
Swiss
Alps,
very
high‐resolution
topographic
derived
digital
elevation
grain
sizes
between
0.5
m
16
m.
These
comparisons
highlight
sensitivity
resolution,
where
optimal
were
specific
variable
type,
terrain
characteristics,
study
extent.
assist
selecting
appropriate
resolutions,
demonstrate
practical
approach
produce,
select,
integrate
multiscale
into
GEA
models.
After
generalizing
fine‐grained
forward
selection
procedure
is
retain
only
most
relevant
particular
context.
Depending
on
relevance
studies
calls
integrating
scales
By
carefully
considering
more
realistic
range
pressures
can
detected
downstream
analyses,
important
implications
experimental
research
conservation
management
natural
populations.
Methods in Ecology and Evolution,
Journal Year:
2023,
Volume and Issue:
14(11), P. 2888 - 2899
Published: Sept. 25, 2023
Abstract
Species
distribution
models
(SDM)
have
become
one
of
the
most
popular
predictive
tools
in
ecology.
With
advent
new
computation
and
remote
sensing
technology,
high‐resolution
environmental
data
sets
are
becoming
more
common
predictors
these
modelling
efforts.
Understanding
how
scaling
affects
their
outputs
is
therefore
fundamental
to
understand
applicability.
Here,
we
develop
a
theoretical
basis
consequences
aggregating
occurrence
at
different
resolutions.
We
provide
framework,
along
with
numerical
simulations
real‐world
case
study,
show
rules
influence
outputs.
that
properties
environment–occurrence
relationships
change
when
aggregated:
mean
probability
species
prevalence
increases,
optimal
values
shift
classification
rates
increase
coarser
resolutions
up
certain
level.
Furthermore,
contrary
widespread
expectation
would
produce
better
predictions,
here
model
performance
may
using
resolution
rather
than
inverse.
Finally,
also
depends
not
only
on
relationship
but
interaction
between
this
geography
available
environment.
This
framework
helps
understanding
previously
incoherent
results
regarding
SDM
upscaling
performance,
illustrates
empirical
can
important
feedbacks
advance
issues
macroecology.
The
shape
environment
effects
explain
why
some
difficult
transfer
regions.
Most
importantly,
argue
there
conceptual
choices
related
fitting
require
expert
knowledge
further
explorations
theory
practice
Species
distributions
are
frequently
modeled
using
predictors
that
exceed
the
spatial
scale
experienced
by
focal
species.
Incorporating
fine-scale
environmental
conditions
is
therefore
expected
to
lead
more
realistic
model
predictions.
However,
importance
of
variety
in
existing
on
species
distribution
remains
poorly
assessed
although
can
effectively
utilize
multiple
microhabitats
for
behavioral
adaptation
withstand
climate
change
impacts.
Here,
we
developed
a
based
ambient
air
northern
pika
(
Ochotona
hyperborea
),
small
lagomorph
found
rocky
landforms,
first
understand
improvement
performance
from
conventional
coarse-scale
model.
We
then
how
predictions
alter
incorporating
rock-interstice
microclimates
their
habitats
baseline
(1981–2010)
and
future
periods
(2041–2100).
The
performed
better
overall
predicted
lower
habitat
suitability
across
study
area
than
Incorporation
microclimate
increased
markedly
relative
conditions,
which
resulted
predicting
suitable
areas
elevations
remaining
into
future.
This
result
suggests
may
negative
impacts
rising
temperatures
utilizing
rock
interstices
via
adaptation.
Our
findings
highlight
analyzing
at
fine
scales
considering
local
heterogeneity,
helps
mitigate
adverse
change,
conservation
under
change.
Species
distribution
models
(SDMs)
have
proven
valuable
in
filling
gaps
our
knowledge
of
species
occurrences.
However,
despite
their
broad
applicability,
SDMs
exhibit
critical
shortcomings
due
to
limitations
occurrence
data.
These
include,
particular,
issues
related
sample
size,
positional
error,
and
sampling
bias.
In
addition,
it
is
widely
recognized
that
the
quality
as
well
approaches
used
mitigate
impact
aforementioned
data
are
dependent
on
ecology.
While
numerous
studies
experimentally
evaluated
effects
these
SDM
performance,
a
synthesis
results
lacking.
without
comprehensive
understanding
individual
combined
effects,
ability
predict
influence
modelled
species-environment
associations
remains
largely
uncertain,
limiting
value
model
outputs.
this
paper,
we
review
bias,
ecology
We
integrate
findings
into
step-by-step
guide
for
assessment
spatial
intended
use
SDMs.
Peer Community Journal,
Journal Year:
2023,
Volume and Issue:
3
Published: April 7, 2023
Species
distribution
models
(SDM)
are
widely
used
to
describe
and
explain
how
species
relate
their
environment
predict
spatial
distributions.
As
such,
they
the
cornerstone
of
most
planning
efforts
worldwide.
SDM
can
be
implemented
with
a
wide
array
data
types
(presence-only,
presence-absence,
count...),
which
either
point-
or
areal-based,
use
environmental
conditions
as
predictor
variables.
The
choice
sampling
type
well
resolution
recognized
crucial
importance,
yet
we
lack
any
quantification
effects
these
decisions
may
have
on
reliability.
In
present
work,
fill
this
gap
an
unprecedented
simulation
procedure.
We
simulated
100
possible
distributions
two
different
virtual
in
regions.
were
modelled
using
segment-
areal-based
five
resolutions
conditions.
performances
inspected
by
statistical
metrics,
model
composition,
shapes
relationships
prediction
quality.
provided
clear
evidence
stochasticity
modelling
process
(particularly
relationships):
dataset
from
same
survey,
region
could
yield
results.
Sampling
had
stronger
than
final
relevance.
effect
coarsening
was
directly
related
resistance
features
changes
scale:
failed
adequately
identify
when
targeted
diluted
coarsening.
These
results
important
implications
for
community,
backing
up
some
commonly
accepted
choices,
but
also
highlighting
up-to-now
unexpected
(stochasticity).
whole,
work
calls
carefully
weighted
implementing
models,
caution
interpreting