Proceedings of the National Academy of Sciences,
Journal Year:
2018,
Volume and Issue:
115(47), P. 11988 - 11993
Published: Nov. 5, 2018
Significance
In
contrast
to
the
classically
expected
coupling
between
ecological
specialization
and
low
dispersal
propensity,
theory
predicts
that
with
habitat
choice
(i.e.,
individuals
choose
habitats
maximizing
their
performance)
should
evolve
in
specialists,
while
generalists
disperse
more
randomly.
Here,
we
show
ciliate
microcosms
thermal
specialists
indeed
prefer
optimal
habitats,
whereas
surprisingly,
also
perform
but
a
preference
for
suboptimal
habitats.
To
tackle
question
of
why
developed
metapopulation
model
showed
competition
may
favor
niche
margins
under
environmental
variability.
Our
results
point
out
importance
strategies
evolutionary
dynamics.
Biological reviews/Biological reviews of the Cambridge Philosophical Society,
Journal Year:
2017,
Volume and Issue:
93(1), P. 574 - 599
Published: Aug. 3, 2017
Dispersal
is
a
process
of
central
importance
for
the
ecological
and
evolutionary
dynamics
populations
communities,
because
its
diverse
consequences
gene
flow
demography.
It
subject
to
change,
which
begs
question,
what
genetic
basis
this
potentially
complex
trait?
To
address
we
(i)
review
empirical
literature
on
dispersal,
(ii)
explore
how
theoretical
investigations
evolution
dispersal
have
represented
genetics
(iii)
discuss
influences
predictions
potential
consequences.
has
detectable
in
many
organisms,
from
bacteria
plants
animals.
Generally,
there
evidence
significant
variation
or
dispersal-related
phenotypes
micro-evolution
natural
populations.
typically
outcome
several
interacting
traits,
complexity
reflected
architecture:
while
some
genes
moderate
large
effect
can
influence
certain
aspects
traits
are
polygenic.
Correlations
among
as
well
between
other
under
selection
common,
be
highly
environment-dependent.
By
contrast,
models
historically
considered
simplified
architecture
dispersal.
only
recently
that
started
consider
multiple
loci
influencing
non-additive
effects
such
dominance
epistasis,
showing
rates
outcomes,
especially
non-equilibrium
conditions.
For
example,
number
controlling
projected
during
range
shifts
corresponding
demographic
impacts.
Incorporating
more
realism
thus
necessary
enable
move
beyond
purely
towards
making
useful
current
future
environmental
inform
these
advances,
studies
need
answer
outstanding
questions
concerning
whether
specific
underlie
variation,
context-dependent
behaviours,
correlations
traits.
Proceedings of the Royal Society B Biological Sciences,
Journal Year:
2018,
Volume and Issue:
285(1891), P. 20182047 - 20182047
Published: Nov. 14, 2018
Humans
have
dramatically
altered
the
planet
over
course
of
a
century,
from
acidity
our
oceans
to
fragmentation
landscapes
and
temperature
climate.
Species
find
themselves
in
novel
environments,
within
communities
assembled
never
before
encountered
mixtures
invasives
natives.
The
speed
with
which
biotic
abiotic
environment
species
has
changed
already
evolutionary
trajectory
species,
trend
that
promises
escalate.
In
this
article,
I
reflect
upon
evolution.
Human
activities
reshaped
selection
pressures,
favouring
individuals
better
survive
built
landscapes,
avoid
hunting
fishing,
best
tolerate
we
introduced.
Human-altered
pressures
also
modified
how
organisms
live
move
through
landscape,
even
nature
reproduction
genome
structure.
are
shaping
at
level,
discuss
traits
affecting
both
extinction
speciation
rates
Anthropocene.
Biological reviews/Biological reviews of the Cambridge Philosophical Society,
Journal Year:
2018,
Volume and Issue:
94(3), P. 737 - 752
Published: Nov. 4, 2018
Abstract
This
paper
advances
an
hypothesis
that
the
primary
adaptive
driver
of
seasonal
migration
is
maintenance
site
fidelity
to
familiar
breeding
locations.
We
argue
therefore
principally
adaptation
for
geographic
persistence
when
confronted
with
seasonality
–
analogous
hibernation,
freeze
tolerance,
or
other
organismal
adaptations
cyclically
fluctuating
environments.
These
ideas
stand
in
contrast
traditional
views
bird
evolved
as
dispersal
strategy
exploiting
new
areas
and
avoiding
competitors.
Our
synthesis
supported
by
a
large
body
research
on
avian
biology
demonstrates
reproductive
benefits
breeding‐site
fidelity.
Conceptualizing
places
emphasis
understanding
evolutionary
trade‐offs
between
migratory
behaviour
environments
both
within
across
species.
Seasonality‐induced
departures
from
areas,
coupled
maintaining
fidelity,
also
provide
mechanism
explaining
evolution
agnostic
origin
lineages
(i.e.
temperate
tropical).
Thus,
our
framework
reconciles
much
conflict
previous
historical
biogeography
Although
range
change
fluidly
rapidly
many
populations,
we
loss
plasticity
via
canalization
overlooked
aspect
dynamics
helps
explain
idiosyncratic
distributions
routes
long‐distance
migrants.
synthesis,
which
revolves
around
insight
organisms
travel
long
distances
simply
stay
same
place,
provides
necessary
context
biogeographic
patterns
well
ecological
connectivity
non‐breeding
Molecular Ecology,
Journal Year:
2018,
Volume and Issue:
27(20), P. 3976 - 4010
Published: Aug. 29, 2018
Abstract
Dispersal
is
a
central
process
in
ecology
and
evolution.
At
the
individual
level,
three
stages
of
dispersal
(i.e.,
emigration,
transience
immigration)
are
affected
by
complex
interactions
between
phenotypes
environmental
factors.
Condition‐
context‐dependent
have
far‐reaching
consequences,
both
for
demography
genetic
structuring
natural
populations
adaptive
processes.
From
an
applied
point
view,
also
deeply
affects
spatial
dynamics
their
ability
to
respond
land‐use
changes,
habitat
degradation
climate
change.
For
these
reasons,
has
received
considerable
attention
from
ecologists
evolutionary
biologists.
Demographic
methods
allow
quantifying
non‐effective
followed
or
not
successful
reproduction)
effective
with
investigate
how
factors
affect
different
process.
Over
past
decade,
demographic
designed
quantify
rapidly
evolved
but
researchers
two
fields
limited.
We
here
review
recent
developments
study
wild
animal
populations.
present
strengths
limits,
as
well
applicability
depending
on
objectives
population
characteristics.
propose
unified
framework
allowing
combine
select
more
suitable
tools
address
broad
range
important
topics
about
evolution
its
consequences
genetics.
Biological reviews/Biological reviews of the Cambridge Philosophical Society,
Journal Year:
2023,
Volume and Issue:
98(3), P. 868 - 886
Published: Jan. 23, 2023
ABSTRACT
Spatial
and
social
behaviour
are
fundamental
aspects
of
an
animal's
biology,
their
spatial
environments
indelibly
linked
through
mutual
causes
shared
consequences.
We
define
the
‘spatial–social
interface’
as
intersection
individuals'
phenotypes
environments.
Behavioural
variation
at
spatial–social
interface
has
implications
for
ecological
evolutionary
processes
including
pathogen
transmission,
population
dynamics,
evolution
systems.
link
a
foundation
theory,
vocabulary,
methods.
provide
examples
future
directions
integration
introduce
key
concepts
approaches
that
either
implicitly
or
explicitly
integrate
processes,
example,
graph
density‐dependent
habitat
selection,
niche
specialization.
Finally,
we
discuss
how
movement
ecology
helps
interface.
Our
review
integrates
behavioural
identifies
testable
hypotheses
Ecology Letters,
Journal Year:
2018,
Volume and Issue:
21(4), P. 484 - 493
Published: Jan. 24, 2018
Abstract
Mutualistic
interactions
repeatedly
preserved
across
fragmented
landscapes
can
scale‐up
to
form
a
spatial
metanetwork
describing
the
distribution
of
patches.
We
explored
structure
bird
seed‐dispersal
(
BSD
)
in
16
Neotropical
forest
fragments
test
whether
distinct
subset
‐interactions
may
mediate
landscape
functional
connectivity.
The
is
interaction‐rich,
modular
and
poorly
connected,
showing
high
beta‐diversity
turnover
species
interactions.
Interactions
involving
large‐sized
were
lost
<
10
000
ha,
indicating
strong
filtering
by
habitat
fragmentation
on
diversity
‐interactions.
Persistent
performed
small‐seeded,
fast
growing
plant
generalist,
small‐bodied
able
cross
landscape.
This
reduced
forms
components
persisting
defaunation
fragmentation,
generate
long‐term
deficits
carbon
storage
while
delaying
regeneration
at
level.
Ecography,
Journal Year:
2016,
Volume and Issue:
40(1), P. 9 - 25
Published: Sept. 29, 2016
It
is
widely
recognized
that
ecological
dynamics
influence
evolutionary
dynamics,
and
conversely
changes
alter
processes.
Because
fragmentation
impacts
all
biological
levels
(from
individuals
to
ecosystems)
through
isolation
reduced
habitat
size,
it
strongly
affects
the
links
among
processes
such
as
population
local
adaptation,
dispersal
speciation.
Here,
we
review
our
current
knowledge
of
eco‐evolutionary
in
fragmented
landscapes,
focusing
on
both
theory
experimental
studies.
We
then
suggest
future
directions
study
and/or
feedbacks
especially
bridge
gap
between
theoretical
predictions
validations.
The Quarterly Review of Biology,
Journal Year:
2020,
Volume and Issue:
95(1), P. 1 - 36
Published: Feb. 14, 2020
Dispersal
is
a
central
process
in
ecology
and
evolution.
It
strongly
influences
the
dynamics
of
spatially
structured
populations
affects
evolutionary
processes
by
shaping
patterns
gene
flow.
For
these
reasons,
dispersal
has
received
considerable
attention
from
ecologists,
biologists,
conservationists.
Although
it
been
studied
extensively
taxa
such
as
birds
mammals,
much
less
known
about
vertebrates
with
complex
life
cycles
pond-breeding
amphibians.
Over
past
two
decades,
researchers
have
taken
an
ever-increasing
interest
amphibian
initiated
both
basic
applied
studies,
using
broad
range
experimental
observational
approaches.
This
body
research
reveals
patterns,
causations,
syndromes,
dramatic
consequences
for
demography
genetics
populations.
In
this
review,
our
goals
are
to:
redefine
clarify
concept
dispersal;
review
current
knowledge
effects
individual
(i.e.,
condition-dependent
dispersal)
environmental
context-dependent
factors
during
three
stages
emigration,
transience,
immigration);
identify
demographic
genetic
populations;
propose
new
avenues
to
extend
understanding
dispersal.
Ecology,
Journal Year:
2020,
Volume and Issue:
101(10)
Published: July 22, 2020
Abstract
Understanding
the
movement
of
species’
ranges
is
a
classic
ecological
problem
that
takes
on
urgency
in
this
era
global
change.
Historically
treated
as
purely
process,
range
expansion
now
understood
to
involve
eco‐evolutionary
feedbacks
due
spatial
genetic
structure
emerges
populations
spread.
We
synthesize
empirical
and
theoretical
work
dynamics
expansion,
with
emphasis
bridging
directional,
deterministic
processes
favor
evolved
increases
dispersal
demographic
traits
stochastic
lead
random
fixation
alleles
traits.
develop
framework
for
understanding
joint
influence
these
changing
mean
variance
speed
its
underlying
Our
synthesis
recent
laboratory
experiments
supports
consistent
role
evolution
accelerating
average,
highlights
unexpected
diversity
how
can
variability
speed:
results
not
well
predicted
by
current
theory.
discuss
evaluate
support
three
classes
modifiers
(landscape
context,
trait
genetics,
biotic
interactions),
identify
emerging
themes,
suggest
new
directions
future
field
stands
increase
relevance
move
response