New Phytologist,
Journal Year:
2019,
Volume and Issue:
222(4), P. 1757 - 1765
Published: Jan. 30, 2019
Improving
our
understanding
of
species
ranges
under
rapid
climate
change
requires
application
knowledge
the
tolerance
and
adaptive
capacity
populations
to
changing
environmental
conditions.
Here,
we
describe
an
emerging
modelling
approach,
ΔTraitSDM,
which
attempts
achieve
this
by
explaining
distribution
based
on
phenotypic
plasticity
local
adaptation
fitness-related
traits
measured
across
large
geographical
gradients.
The
collection
intraspecific
trait
data
in
common
gardens
spanning
broad
clines
has
promoted
development
these
new
models
-
first
trees
but
now
rapidly
expanding
other
organisms.
We
review,
explain
harmonize
main
findings
from
generation
that,
including
variation
over
scales,
are
able
provide
insights
into
future
ranges.
Overall,
ΔTraitSDM
predictions
generally
deliver
a
less
alarming
message
than
previous
climates,
indicating
that
should
help,
considerable
degree,
some
plant
persist
change.
ΔTraitSDMs
offers
perspective
analyse
single
multiple
traits,
with
rationale
(co)variation
consequently
fitness
can
significantly
gradients
climates.
Annual Review of Ecology Evolution and Systematics,
Journal Year:
2020,
Volume and Issue:
51(1), P. 245 - 269
Published: Aug. 10, 2020
Signals
of
local
adaptation
have
been
found
in
many
plants
and
animals,
highlighting
the
heterogeneity
distribution
adaptive
genetic
variation
throughout
species
ranges.
In
coming
decades,
global
climate
change
is
expected
to
induce
shifts
selective
pressures
that
shape
this
variation.
These
changes
will
likely
result
varying
degrees
maladaptation
spatial
reshuffling
underlying
distributions
alleles.
There
a
growing
interest
using
population
genomic
data
help
predict
future
disruptions
locally
gene-environment
associations.
One
motivation
behind
such
work
better
understand
how
effects
changing
on
populations’
short-term
fitness
could
vary
spatially
across
Here
we
review
current
use
disruption
climates.
After
assessing
goals
motivationsunderlying
approach,
main
steps
associated
statistical
methods
currently
explore
our
understanding
limits
potential
genomics
(mal)adaptation.
Molecular Biology and Evolution,
Journal Year:
2019,
Volume and Issue:
36(4), P. 852 - 860
Published: Jan. 9, 2019
Gene-environment
association
(GEA)
studies
are
essential
to
understand
the
past
and
ongoing
adaptations
of
organisms
their
environment,
but
those
complicated
by
confounding
due
unobserved
demographic
factors.
Although
problem
has
recently
received
considerable
attention,
proposed
approaches
do
not
scale
with
high-dimensionality
genomic
data.
Here,
we
present
a
new
estimation
method
for
latent
factor
mixed
models
(LFMMs)
implemented
in
an
upgraded
version
corresponding
computer
program.
We
developed
least-squares
approach
confounder
that
provides
unique
framework
several
categories
data,
restricted
genotypes.
The
speed
algorithm
is
order
faster
than
existing
GEA
then
our
previous
LFMM
In
addition,
outperforms
other
fast
based
on
principal
component
or
surrogate
variable
analysis.
illustrate
program
use
analyses
1000
Genomes
Project
data
set,
leading
findings
adaptation
humans
DNA
methylation
profiles
providing
insights
how
tobacco
consumption
could
affect
patients
rheumatoid
arthritis.
Software
availability:
available
R
package
lfmm
at
https://bcm-uga.github.io/lfmm/.
Evolutionary Applications,
Journal Year:
2017,
Volume and Issue:
11(7), P. 1035 - 1052
Published: Oct. 30, 2017
Abstract
Identifying
and
monitoring
locally
adaptive
genetic
variation
can
have
direct
utility
for
conserving
species
at
risk,
especially
when
management
may
include
actions
such
as
translocations
restoration,
rescue,
or
assisted
gene
flow.
However,
genomic
studies
of
local
adaptation
require
careful
planning
to
be
successful,
in
some
cases
not
a
worthwhile
use
resources.
Here,
we
offer
an
framework
help
conservation
biologists
managers
decide
genomics
is
likely
effective
detecting
adaptation,
how
plan
assessment
address
objectives.
Studies
using
tools
will
inform
many
cases,
including
applications
flow
identifying
units.
In
others,
assessing
diversity,
inbreeding,
demographics
selectively
neutral
markers
most
useful.
And
assessed
more
efficiently
alternative
approaches
common
garden
experiments.
identify
key
considerations
variation,
provide
road
map
successful
collaborations
with
experts
issues
study
design
data
analysis,
guidelines
interpreting
results
from
assessments
programs
actions.
Molecular Ecology,
Journal Year:
2015,
Volume and Issue:
25(2), P. 454 - 469
Published: Dec. 15, 2015
Abstract
Population
differentiation
(PD)
and
ecological
association
(EA)
tests
have
recently
emerged
as
prominent
statistical
methods
to
investigate
signatures
of
local
adaptation
using
population
genomic
data.
Based
on
models,
these
genomewide
testing
procedures
attracted
considerable
attention
tools
identify
loci
potentially
targeted
by
natural
selection.
An
important
issue
with
PD
EA
is
that
incorrect
model
specification
can
generate
large
numbers
false‐positive
associations.
Spurious
may
indeed
arise
when
shared
demographic
history,
patterns
isolation
distance,
cryptic
relatedness
or
genetic
background
are
ignored.
Recent
works
widely
focused
improvements
test
corrections
for
those
confounding
effects.
Despite
significant
algorithmic
improvements,
there
still
a
number
open
questions
how
check
false
discoveries
under
control
implement
corrections,
combine
from
multiple
genome
scan
methods.
This
tutorial
study
provides
detailed
answer
questions.
It
clarifies
the
relationships
between
traditional
based
allele
frequency
unified
framework
their
underlying
tests.
We
demonstrate
techniques
developed
in
area
studies,
such
inflation
factors
linear
mixed
benefit
provide
guidelines
good
practice
while
conducting
landscape
applications.
Finally,
we
highlight
combination
several
well‐calibrated
increase
power
reject
neutrality,
improving
our
ability
infer
data
sets.
New Phytologist,
Journal Year:
2019,
Volume and Issue:
222(4), P. 1757 - 1765
Published: Jan. 30, 2019
Improving
our
understanding
of
species
ranges
under
rapid
climate
change
requires
application
knowledge
the
tolerance
and
adaptive
capacity
populations
to
changing
environmental
conditions.
Here,
we
describe
an
emerging
modelling
approach,
ΔTraitSDM,
which
attempts
achieve
this
by
explaining
distribution
based
on
phenotypic
plasticity
local
adaptation
fitness-related
traits
measured
across
large
geographical
gradients.
The
collection
intraspecific
trait
data
in
common
gardens
spanning
broad
clines
has
promoted
development
these
new
models
-
first
trees
but
now
rapidly
expanding
other
organisms.
We
review,
explain
harmonize
main
findings
from
generation
that,
including
variation
over
scales,
are
able
provide
insights
into
future
ranges.
Overall,
ΔTraitSDM
predictions
generally
deliver
a
less
alarming
message
than
previous
climates,
indicating
that
should
help,
considerable
degree,
some
plant
persist
change.
ΔTraitSDMs
offers
perspective
analyse
single
multiple
traits,
with
rationale
(co)variation
consequently
fitness
can
significantly
gradients
climates.