AoB Plants,
Journal Year:
2019,
Volume and Issue:
12(2)
Published: Aug. 17, 2019
Abstract
Although
dispersal
is
generally
viewed
as
a
crucial
determinant
for
the
fitness
of
any
organism,
our
understanding
its
role
in
persistence
and
spread
plant
populations
remains
incomplete.
Generalizing
predicting
processes
are
challenging
due
to
context
dependence
seed
dispersal,
environmental
heterogeneity
interdependent
occurring
over
multiple
spatial
temporal
scales.
Current
population
models
often
use
simple
phenomenological
descriptions
processes,
limiting
their
ability
examine
spread,
especially
under
global
change.
To
move
ecology
forward,
we
need
evaluate
impact
single
event
within
full
plant’s
life
history
variability
that
ultimately
influences
population’s
persist
spread.
In
this
perspective,
provide
guidance
on
integrating
empirical
theoretical
approaches
account
dependency
improve
generalize
predict
consequences
anthropogenic
alteration,
across
systems.
We
synthesize
suitable
frameworks
work
discuss
concepts,
available
data
from
diverse
subdisciplines
help
operationalize
highlight
recent
breakthroughs
research
areas
ongoing
challenges
open
questions.
address
knowledge
gaps
movement
seeds
integration
demography
could
benefit
such
synthesis.
With
an
interdisciplinary
will
be
able
better
understand
how
change
potential
cascading
effects
persistence,
biodiversity.
Functional Ecology,
Journal Year:
2018,
Volume and Issue:
33(1), P. 13 - 30
Published: Nov. 14, 2018
Abstract
Theoretical
models
pertaining
to
feedbacks
between
ecological
and
evolutionary
processes
are
prevalent
in
multiple
biological
fields.
An
integrative
overview
is
currently
lacking,
due
little
crosstalk
the
fields
use
of
different
methodological
approaches.
Here,
we
review
a
wide
range
eco‐evolutionary
highlight
their
underlying
assumptions.
We
discuss
where
occur
both
within
hierarchical
levels
ecosystems,
including
populations,
communities
abiotic
environments,
consider
across
spatial
scales.
Identifying
commonalities
among
feedback
models,
assumptions,
helps
us
better
understand
mechanistic
basis
feedbacks.
Eco‐evolutionary
can
be
readily
modelled
by
coupling
demographic
formalisms.
provide
an
these
approaches
suggest
future
modelling
avenues.
Our
highlights
that
have
been
incorporated
theoretical
work
for
nearly
century.
Yet,
this
does
not
always
include
notion
rapid
evolution
or
concurrent
time
show
importance
density‐
frequency‐dependent
selection
feedbacks,
as
well
dispersal
central
linking
trait
ecology
context.
A
plain
language
summary
available
article.
Biological reviews/Biological reviews of the Cambridge Philosophical Society,
Journal Year:
2019,
Volume and Issue:
94(4), P. 1547 - 1575
Published: May 6, 2019
ABSTRACT
Dispersal
allows
species
to
shift
their
distributions
in
response
changing
climate
conditions.
As
a
result,
dispersal
is
considered
key
process
contributing
species'
long‐term
persistence.
For
many
passive
dispersers,
fluid
dynamics
of
wind
and
water
fuel
these
movements
different
have
developed
remarkable
adaptations
for
utilizing
this
energy
reach
colonize
suitable
habitats.
The
seafaring
propagules
(fruits
seeds)
mangroves
represent
an
excellent
example
such
dispersal.
Mangroves
are
halophytic
woody
plants
that
grow
the
intertidal
zones
along
tropical
subtropical
shorelines
produce
hydrochorous
with
high
potential.
This
results
exceptionally
large
coastal
ranges
across
vast
expanses
ocean
geographically
track
conditions
which
they
adapted.
particularly
relevant
given
challenges
presented
by
rapid
sea‐level
rise,
higher
frequency
intensity
storms,
changes
regional
precipitation
temperature
regimes.
However,
despite
its
importance,
underlying
drivers
mangrove
typically
been
studied
isolation,
conceptual
synthesis
oceanic
spatial
scales
lacking.
Here,
we
review
current
knowledge
on
propagule
various
stages
process.
Using
general
framework,
outline
mechanisms
ecological
processes
known
modulate
patterns
We
show
important
factors
remain
understudied
adequate
empirical
data
determinants
missing
most
species.
aims
provide
baseline
developing
future
research
agendas
field
campaigns,
filling
gaps
increasing
our
understanding
shape
global
distributions.
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.
AoB Plants,
Journal Year:
2019,
Volume and Issue:
11(4)
Published: March 13, 2019
Abstract
As
the
single
opportunity
for
plants
to
move,
seed
dispersal
has
an
important
impact
on
plant
fitness,
species
distributions
and
patterns
of
biodiversity.
However,
models
that
predict
dynamics
such
as
risk
extinction,
range
shifts
biodiversity
loss
tend
rely
mean
value
parameters
rarely
incorporate
realistic
mechanisms.
By
focusing
population
value,
variation
among
individuals
or
variability
caused
by
complex
spatial
temporal
is
ignored.
This
calls
increased
efforts
understand
individual
in
integrate
it
more
explicitly
into
community
involving
dispersal.
sources,
magnitude
outcomes
intraspecific
are
poorly
characterized,
limiting
our
understanding
role
mediating
communities
their
response
global
change.
In
this
manuscript,
we
synthesize
recent
research
examines
sources
emphasize
its
implications
populations
communities.
We
argue
does
not
simply
add
noise
systems,
but,
fact,
alters
processes
with
consequences
demography,
communities,
evolution
anthropogenic
changes.
conclude
recommendations
moving
field
forward.
Biological reviews/Biological reviews of the Cambridge Philosophical Society,
Journal Year:
2018,
Volume and Issue:
94(2), P. 721 - 736
Published: Oct. 24, 2018
Dispersal
is
ubiquitous
throughout
the
tree
of
life:
factors
selecting
for
dispersal
include
kin
competition,
inbreeding
avoidance
and
spatiotemporal
variation
in
resources
or
habitat
suitability.
These
differ
whether
they
promote
male
female
equally
strongly,
often
selection
on
one
sex
depends
how
much
other
disperses.
For
example,
it
can
be
sufficient
that
disperses
away
from
natal
site.
Attempts
to
understand
sex-specific
evolution
have
created
a
rich
body
theoretical
literature,
which
we
review
here.
We
highlight
an
interesting
gap
between
empirical
literature.
The
former
associates
different
patterns
sex-biased
with
mating
systems,
such
as
female-biased
monogamous
birds
male-biased
polygynous
mammals.
predominant
explanation
traceable
back
Greenwood's
(1980)
ideas
successful
philopatric
dispersing
individuals
are
at
gaining
mates
required
attract
them.
Theory,
however,
has
developed
surprisingly
independently
these
ideas:
work
track
immigration
emigration
change
relatedness
alleviate
competition
limiting
resources,
typically
considered
sexually
distinct,
breeding
sites
fertilisable
females
reproductive
success
males,
respectively.
show
link
system
far
resolved:
there
studies
showing
systems
matter,
but
oft-stated
association
polygyny
not
straightforward
expectation...
(full
abstract
PDF)
Journal of Ecology,
Journal Year:
2018,
Volume and Issue:
106(4), P. 1349 - 1362
Published: June 17, 2018
Abstract
Seed
dispersal
is
an
essential,
yet
often
overlooked
process
in
plant
ecology
and
evolution,
affecting
adaptation
capacity,
population
persistence
invasiveness.
A
species’
ability
to
disperse
expected
covary
with
other
life‐history
traits
form
syndromes.
Dispersal
might
be
linked
the
rate
of
life
history,
fecundity
or
generation
time,
depending
on
relative
selection
pressures
bet‐hedging,
kin
competition
maintaining
gene
flow.
However,
linkage
between
strategies
remains
unknown
because
it
difficult
observe,
quantify
manipulate
influence
over
large
spatiotemporal
scales.
We
integrate
datasets
describing
vital
rates,
functional
incorporate
explicitly
into
rich
spectra
strategies.
For
141
species,
we
estimated
by
predicting
maximum
distances
using
allometric
relationships
based
growth
form,
mode,
terminal
velocity
seed
mass.
derived
from
matrix
models
parameterized
field
data
COMPADRE
Plant
Matrix
Database.
analysed
covariation
multivariate
techniques.
found
that
three
main
axes
variation
described
syndromes:
fast‐slow
continuum,
strategy
axis
reproductive
axis.
On
axis,
abilities
were
positively
correlated
aspects
fast
histories.
Species
a
high
net
rate,
long
window
reproduction,
low
likelihood
escaping
senescence
shrinkage
tendencies
their
seeds
further.
The
overall
phylogenetic
signal
our
multidimensional
analyses
was
(Pagel's
λ
<
0.24),
implying
degree
taxonomic
generality
findings.
Synthesis
.
has
been
largely
neglected
comparative
demographic
studies,
despite
its
pivotal
importance
for
populations.
Our
explicit
incorporation
framework
provides
key
insights
bridge
gap
traits.
further
than
slow‐living
plants,
suggesting
longer
may
allow
these
species
take
advantage
habitats
varying
unpredictably
space
time
as
bet‐hedging
strategy.
Ecography,
Journal Year:
2021,
Volume and Issue:
44(10), P. 1453 - 1462
Published: Aug. 29, 2021
Process‐based
models
are
becoming
increasingly
used
tools
for
understanding
how
species
likely
to
respond
environmental
changes
and
potential
management
options.
RangeShifter
is
one
such
modelling
platform,
which
has
been
address
a
range
of
questions
including
identifying
effective
reintroduction
strategies,
patterns
expansion
assessing
population
viability
across
complex
landscapes.
Here
we
introduce
new
version,
2.0,
incorporates
important
functionality.
It
now
possible
simulate
dynamics
over
user‐specified,
temporally
changing
Additionally,
integrated
genetic
module,
notably
introducing
an
explicit
architecture,
allows
simulation
neutral
adaptive
processes.
Furthermore,
emigration,
transfer
settlement
traits
can
all
evolve,
allowing
sophisticated
the
evolution
dispersal.
We
illustrate
application
2.0's
functionality
by
two
examples.
The
first
illustrates
virtual
dynamically
UK
landscape.
second
demonstrates
software
be
explore
concept
evolving
connectivity
in
response
land‐use
modification,
examining
movement
rules
come
under
selection
landscapes
different
structure
composition.
2.0
built
using
object‐oriented
C++
providing
computationally
efficient
individual‐based,
eco‐evolutionary
models.
code
redeveloped
enable
use
operating
systems,
on
high
performance
computing
clusters,
Windows
graphical
user
interface
enhanced.
will
facilitate
development
in‐silico
assessments
options
conserving
or
controlling
them.
By
making
available
open
source,
hope
inspire
further
collaborations
extensions
ecological
community.
Evolution Letters,
Journal Year:
2023,
Volume and Issue:
8(1), P. 89 - 100
Published: March 12, 2023
Abstract
Species
are
altering
their
ranges
as
a
response
to
climate
change,
but
the
magnitude
and
direction
of
observed
range
shifts
vary
considerably
among
species.
The
ability
persist
in
current
areas
colonize
new
plays
crucial
role
determining
which
species
will
thrive
decline
change
progresses.
Several
studies
have
sought
identify
characteristics,
such
morphological
life-history
traits,
that
could
explain
differences
capability
shift
together
with
changing
climate.
These
characteristics
explained
variation
only
sporadically,
thus
offering
an
uncertain
tool
for
discerning
responses
As
long-term
selection
past
climates
shaped
species’
tolerances,
metrics
describing
contemporary
climatic
niches
may
provide
alternative
means
understanding
on-going
change.
occur
broader
conditions
hold
greater
tolerance
variability
therefore
more
readily
maintain
historical
ranges,
while
narrow
tolerances
if
they
able
space
track
niche.
Here,
we
first-filter
test
effect
niche
dimensions
on
leading
edges
three
relatively
well-dispersing
groups.
Based
realized
changes
northern
383
moth,
butterfly,
bird
across
boreal
1,100
km
latitudinal
gradient
over
c.
20
years,
show
most
or
traits
were
not
strongly
connected
shifts,
moths
birds
occupying
narrower
thermal
butterflies
moisture
European
distribution
stronger
towards
north.
Our
results
indicate
be
important
predicting
under
warrants
further
investigation
potential
mechanistic
underpinnings.