Current Opinion in Insect Science,
Journal Year:
2023,
Volume and Issue:
60, P. 101133 - 101133
Published: Oct. 17, 2023
Predicting
how
insects
will
respond
to
stressors
through
time
is
difficult
because
of
the
diversity
insects,
environments,
and
approaches
used
monitor
model.
Forecasting
models
take
correlative/statistical,
mechanistic
models,
integrated
forms;
in
some
cases,
temporal
processes
can
be
inferred
from
spatial
models.
Because
heterogeneity
associated
with
broad
community
measurements,
are
often
unable
identify
explanations.
Many
present
efforts
forecast
insect
dynamics
restricted
single-species
which
offer
precise
predictions
but
limited
generalizability.
Trait-based
may
a
good
compromise
that
limits
masking
ranges
responses
while
still
offering
insight.
Regardless
modeling
approach,
data
parameterize
forecasting
model
should
carefully
evaluated
for
autocorrelation,
minimum
needs,
sampling
biases
data.
tested
using
near-term
revised
improve
future
forecasts.
Global Ecology and Biogeography,
Journal Year:
2024,
Volume and Issue:
33(12)
Published: Oct. 28, 2024
ABSTRACT
Background
Climate‐change‐induced
shifts
in
the
timing
of
leaf
emergence
during
spring
have
been
widely
documented
and
important
ecological
consequences.
However,
mechanistic
knowledge
regarding
what
controls
is
incomplete.
Field‐based
studies
under
natural
conditions
suggest
that
climate‐warming‐induced
decreases
cold
temperature
accumulation
(chilling)
expanded
dormancy
duration
or
reduced
sensitivity
plants
to
warming
temperatures
(thermal
forcing)
spring,
thereby
slowing
rate
at
which
shifting
earlier
response
ongoing
climate
change.
recent
argued
apparent
reductions
may
arise
from
artefacts
way
calculated,
while
other
based
on
statistical
models
specifically
designed
quantify
role
chilling
shown
conflicting
results.
Methods
We
analysed
four
commonly
used
combinations
phenology
datasets
obtained
remote
sensing
ground
observations
elucidate
whether
current
model‐based
approaches
robustly
how
chilling,
concert
with
thermal
forcing,
conditions.
Results
show
modeling
are
calibrated
using
field‐based
misspecify
as
a
result
inherent
parameterised.
Our
results
highlight
limitations
existing
modelling
observational
data
quantifying
affects
decreasing
arising
not
constrain
near‐future
towards
extra‐tropical
ecosystems
worldwide.
Ecological Applications,
Journal Year:
2025,
Volume and Issue:
35(1)
Published: Jan. 1, 2025
Abstract
Near‐term,
iterative
ecological
forecasts
can
be
used
to
help
understand
and
proactively
manage
ecosystems.
To
date,
more
have
been
developed
for
aquatic
ecosystems
than
other
worldwide,
likely
motivated
by
the
pressing
need
conserve
these
essential
threatened
increasing
availability
of
high‐frequency
data.
Forecasters
implemented
many
different
modeling
approaches
forecast
freshwater
variables,
which
demonstrated
promise
at
individual
sites.
However,
a
comprehensive
analysis
performance
varying
models
across
multiple
sites
is
needed
broader
controls
on
performance.
Forecasting
challenges
(i.e.,
community‐scale
efforts
generate
while
also
developing
shared
software,
training
materials,
best
practices)
present
useful
platform
bridging
this
gap
evaluate
how
range
methods
perform
axes
space,
time,
systems.
Here,
we
analyzed
from
aquatics
theme
National
Ecological
Observatory
Network
(NEON)
Challenge
hosted
Initiative.
Over
100,000
probabilistic
water
temperature
dissolved
oxygen
concentration
1–30
days
ahead
seven
NEON‐monitored
lakes
were
submitted
in
2023.
We
assessed
varied
among
with
structures,
covariates,
sources
uncertainty
relative
baseline
null
models.
A
similar
proportion
skillful
both
variables
(34%–40%),
although
outperformed
forecasting
(10
out
29)
(6
15).
These
top
performing
came
classes
structures.
For
temperature,
found
that
skill
degraded
increases
horizons,
process‐based
models,
included
air
as
covariate
generally
exhibited
highest
performance,
most
often
accounted
lower
The
where
observations
divergent
historical
conditions
(resulting
poor
model
performance).
Overall,
NEON
provides
an
exciting
opportunity
intercomparison
learn
about
strengths
diverse
suite
advance
our
understanding
ecosystem
predictability.
Ecology Letters,
Journal Year:
2023,
Volume and Issue:
26(6), P. 983 - 1004
Published: April 10, 2023
Abstract
Ecological
communities
are
increasingly
subject
to
natural
and
human‐induced
additions
of
species,
as
species
shift
their
ranges
under
climate
change,
introduced
for
conservation
unintentionally
moved
by
humans.
As
such,
decisions
about
how
manage
ecosystems
introductions
considering
multiple
management
objectives
need
be
made.
However,
the
impacts
gaining
new
on
ecological
difficult
predict
due
uncertainty
in
characteristics,
novel
interactions
that
will
produced
recipient
ecosystem
structure.
Drawing
decision
theory,
we
synthesise
literature
into
a
conceptual
framework
introduction
decision‐making
based
networks
high‐uncertainty
contexts.
We
demonstrate
application
this
theoretical
surrounding
assisted
migration
both
biodiversity
service
objectives.
show
can
used
evaluate
trade‐offs
between
outcomes,
worst‐case
scenarios,
suggest
when
one
should
collect
additional
data,
allow
improving
knowledge
system
over
time.
Ecological Indicators,
Journal Year:
2023,
Volume and Issue:
150, P. 110239 - 110239
Published: April 20, 2023
Ecological
predictions
are
necessary
for
testing
whether
processes
hypothesized
to
regulate
species
population
dynamics
generalizable
across
time
and
space.
In
order
demonstrate
generalizability,
model
should
be
transferable
in
one
or
more
dimensions,
where
transferability
is
the
successful
prediction
of
responses
outside
data
bounds.
While
much
known
as
what
makes
spatially-oriented
models
transferable,
there
no
general
consensus
spatio-temporal
ecological
series
models.
Here,
we
examine
intrinsic
predictability
a
series,
measured
by
its
complexity,
could
limit
such
using
an
exceptional
long-term
dataset
Adélie
penguin
breeding
abundance
collected
at
24
colonies
around
Antarctica.
For
each
colony,
select
suite
environmental
variables
from
Community
Earth
System
Model,
version
2
predict
growth
rates,
before
assessing
how
well
these
environmentally-dependent
transfer
temporally
reliably
temporal
signals
replicate
through
We
show
that
weighted
permutation
entropy
(WPE),
model-free
measure
recently
introduced
ecology,
varies
spatially
populations,
perhaps
response
stochastic
events.
WPE
can
strongly
predictive
performance,
although
this
relationship
weakened
if
not
constant
over
time.
Lastly,
also
spatial
forecast
horizon,
which
define
decay
performance
with
respect
physical
distance
between
focal
colony
predicted
colony.
Irrespective
predictability,
horizons
all
included
study
surprisingly
short
our
often
have
similar
compared
null
based
on
average
rates.
cases
complex,
WPE,
biologically-motivated
mechanistic
poor,
advise
instead
used
prediction.
These
likely
better
capturing
relationships
rates
conditions.
recommend
provide
valuable
insights
when
evaluating
designing
sampling
monitoring
programs,
appropriateness
preexisting
datasets
making
conservation
management
decisions
change.
Current Opinion in Insect Science,
Journal Year:
2023,
Volume and Issue:
60, P. 101133 - 101133
Published: Oct. 17, 2023
Predicting
how
insects
will
respond
to
stressors
through
time
is
difficult
because
of
the
diversity
insects,
environments,
and
approaches
used
monitor
model.
Forecasting
models
take
correlative/statistical,
mechanistic
models,
integrated
forms;
in
some
cases,
temporal
processes
can
be
inferred
from
spatial
models.
Because
heterogeneity
associated
with
broad
community
measurements,
are
often
unable
identify
explanations.
Many
present
efforts
forecast
insect
dynamics
restricted
single-species
which
offer
precise
predictions
but
limited
generalizability.
Trait-based
may
a
good
compromise
that
limits
masking
ranges
responses
while
still
offering
insight.
Regardless
modeling
approach,
data
parameterize
forecasting
model
should
carefully
evaluated
for
autocorrelation,
minimum
needs,
sampling
biases
data.
tested
using
near-term
revised
improve
future
forecasts.