Functional Ecology,
Journal Year:
2021,
Volume and Issue:
35(12), P. 2663 - 2678
Published: Aug. 3, 2021
Abstract
Climate
change
is
putting
the
fate
of
ectothermic
animals
at
stake
because
their
body
temperature
closely
tracks
environmental
temperatures.
The
ability
to
adjust
thermal
limits
and
preference
through
acclimation
(i.e.
capacity)
may
compensate
for
changes.
However,
although
necessary
forecasting
future
ectotherms
in
a
changing
climate,
knowledge
on
factors
modulating
these
plastic
responses
fragmentary.
For
instance,
influence
an
animal's
sex
driving
capacity
has
been
underappreciated.
Here,
we
present
first
systematic
review
meta‐analysis
differences
capacity.
Using
239
effect
sizes
from
37
studies
44
species,
revealed
that
males
females
did
not
differ
significantly
overall
acclimate
preference.
some
instances,
expressed
greater
than
males.
In
wild
animals,
had
heat
tolerance
plasticity
addition,
cold
terrestrial
habitats,
but
strength
direction
this
sexual
dimorphism
was
associated
with
duration
acclimation.
We
also
found
negative
correlation
between
mass
plasticity.
Finally,
demonstrated
each
remarkably
limited.
It
important
acknowledge
above
effects
were
weak
heterogeneous.
Hence,
species
investigated,
minor
translate
into
major
ecological
mismatch
sexes
climate
change.
Our
over
75%
identified
either
report
or
confounded
animals.
This
under‐reporting
cause
overlook
ecologically
relevant
taxa.
stress
need
further
research
sex‐based
synthesis
provides
additional
evidence
temperatures
limited,
likely
insufficient
impacts
A
free
Plain
Language
Summary
can
be
within
Supporting
Information
article.
Biological reviews/Biological reviews of the Cambridge Philosophical Society,
Journal Year:
2020,
Volume and Issue:
95(6), P. 1607 - 1629
Published: July 20, 2020
A
central
question
in
ecology
and
evolution
is
to
understand
why
sexual
selection
varies
so
much
strength
across
taxa;
it
has
long
been
known
that
ecological
factors
are
crucial
this.
Temperature
a
particularly
salient
abiotic
factor
modulates
wide
range
of
physiological,
morphological
behavioural
traits,
impacting
individuals
populations
at
global
taxonomic
scale.
Furthermore,
temperature
exhibits
substantial
temporal
variation
(e.g.
daily,
seasonally
inter-seasonally),
hence
for
most
species
the
wild
will
regularly
unfold
dynamic
thermal
environment.
Unfortunately,
studies
have
far
almost
completely
neglected
role
as
modulator
selection.
Here,
we
outline
main
pathways
through
which
can
affect
intensity
form
(i.e.
mechanisms)
selection,
via:
(i)
direct
effects
on
secondary
traits
preferences
trait
variance,
opportunity
trait-fitness
covariance),
(ii)
indirect
key
mating
parameters,
sex-specific
reproductive
costs/benefits,
trade-offs,
demography
correlated
factors.
Building
upon
this
framework,
show
that,
by
focusing
exclusively
first-order
environmental
linked
with
individual
fitness
population
viability,
current
warming
may
be
ignoring
eco-evolutionary
feedbacks
mediated
Finally,
tested
general
prediction
conducting
meta-analysis
available
experimentally
manipulating
reporting
variance
male/female
success
and/or
under
Our
results
clear
association
between
measures
both
sexes.
In
short,
suggest
studying
feedback
processes
vital
developing
better
understanding
nature,
its
consequences
viability
response
change
warming).
PLoS Biology,
Journal Year:
2020,
Volume and Issue:
18(11), P. e3000938 - e3000938
Published: Nov. 24, 2020
Climate
change
is
expected
to
have
complex
effects
on
infectious
diseases,
causing
some
increase,
others
decrease,
and
many
shift
their
distributions.
There
been
several
important
advances
in
understanding
the
role
of
climate
wildlife
human
disease
dynamics
over
past
years.
This
essay
examines
3
major
areas
advancement,
which
include
improvements
mechanistic
models,
investigations
into
importance
variability
dynamics,
consequences
thermal
mismatches
between
host
parasites.
Applying
new
information
derived
from
these
climate–disease
models
addressing
pressing
knowledge
gaps
that
we
identify
should
improve
capacity
predict
how
will
affect
risk
for
both
humans.
Functional Ecology,
Journal Year:
2020,
Volume and Issue:
34(5), P. 1015 - 1028
Published: Jan. 20, 2020
Abstract
Characterizing
thermal
acclimation
is
a
common
goal
of
eco‐physiological
studies
and
has
important
implications
for
models
climate
change
environmental
adaptation.
However,
quantifying
in
biological
rate
processes
not
straightforward
because
many
rates
increase
with
temperature
due
to
the
acute
effect
thermodynamics
on
molecular
interactions.
Disentangling
such
passive
plastic
responses
from
active
critical
describing
patterns
acclimation.
Here,
we
reviewed
published
distinguished
between
different
study
designs
measuring
(i.e.
passive)
acclimated
active)
effects
metabolic
rate.
We
then
developed
method
quantify
classify
by
comparing
Q
10
values.
Finally,
applied
this
using
meta‐analysis
characterize
ectothermic
animals.
258
rates,
found
that
majority
these
(74%)
did
allow
independent
Such
were
more
when
testing
aquatic
taxa
continue
be
even
recent
years.
A
96
where
could
quantified
(using
1,072
values)
revealed
‘partial
compensation’
was
most
response
tended
offset
changes).
‘no
acclimation’
‘inverse
compensation’,
which
further
augmented
rate,
also
common.
Acclimation
differed
among
taxa,
habitats
experimental
design.
Amphibians
other
terrestrial
show
weak
responses,
whereas
fishes
stronger
compensatory
responses.
Increasing
how
long
animal
allowed
adjust
new
test
increased
response,
but
body
size
not.
longer
durations.
Collectively,
results
highlight
importance
appropriate
design
investigate
estimate
rates.
To
facilitate
guide
future
acclimation,
end
some
suggestions
designing
interpreting
experiments.
free
Plain
Language
Summary
can
within
Supporting
Information
article.
The
potential
for
adaptive
evolution
to
enable
species
persistence
under
a
changing
climate
is
one
of
the
most
important
questions
understanding
impacts
future
change.
Climate
adaptation
may
be
particularly
likely
short-lived
ectotherms,
including
many
pest,
pathogen,
and
vector
species.
For
these
taxa,
estimating
critical
accurate
predictive
modeling
public
health
preparedness.
Here,
we
demonstrate
how
simple
theoretical
framework
used
in
conservation
biology-evolutionary
rescue
models-can
investigate
using
mosquito
thermal
as
focal
case.
Synthesizing
current
evidence,
find
that
short
generation
times,
high
population
growth
rates,
strong
temperature-imposed
selection
favor
adaptation.
However,
knowledge
gaps
about
extent
phenotypic
genotypic
variation
tolerance
within
populations,
environmental
sensitivity
selection,
role
plasticity
constrain
our
ability
make
more
precise
estimates.
We
describe
common
garden
experiments
can
fill
data
gaps.
Lastly,
consequences
on
disease
transmission
Aedes
aegypti-transmitted
dengue
virus
Northern
Brazil
case
study.
approach
outlined
here
applied
any
or
pest
type
Journal of Experimental Biology,
Journal Year:
2021,
Volume and Issue:
224(Suppl_1)
Published: Feb. 15, 2021
ABSTRACT
Physiological
studies
contribute
to
a
cause
and
effect
understanding
of
ecological
patterns
under
climate
change
identify
the
scope
limits
adaptation.
Across
most
habitats,
this
requires
analyzing
organism
responses
warming,
which
can
be
modified
by
other
drivers
such
as
acidification
oxygen
loss
in
aquatic
environments
or
excess
humidity
drought
on
land.
Experimental
findings
support
hypothesis
that
width
temperature
range
thermal
performance
curves
relate
biogeographical
range.
Current
warming
causes
shifts,
hypothesized
include
constraints
aerobic
power
budget
turn
are
elicited
limitations
supply
capacity
relation
demand.
Different
metabolic
scopes
involved
may
set
borders
both
fundamental
niche
(at
standard
rate)
realized
routine
rate).
Relative
for
also
species
interact
with
others
at
ecosystem
level.
Niche
widths
shifting
probably
interdependent
across
life
stages,
young
adults
being
least
thermally
vulnerable.
The
principles
tolerance
apply
endotherms
including
humans,
their
habitat
human
society.
Overall,
phylogenetically
based
comparisons
would
need
consider
cycle
well
functional
properties
zones
time
scales.
This
Review
concludes
perspective
how
mechanism-based
allows
scrutinizing
often
simplified
modeling
approaches
projecting
future
impacts
risks
terrestrial
ecosystems.
It
emphasizes
usefulness
consensus-building
process
among
experimentalists
better
recognition
debate.
Proceedings of the Royal Society B Biological Sciences,
Journal Year:
2021,
Volume and Issue:
288(1958), P. 20210765 - 20210765
Published: Sept. 8, 2021
Many
species
face
extinction
risks
owing
to
climate
change,
and
there
is
an
urgent
need
identify
which
species'
populations
will
be
most
vulnerable.
Plasticity
in
heat
tolerance,
includes
acclimation
or
hardening,
occurs
when
prior
exposure
a
warmer
temperature
changes
organism's
upper
thermal
limit.
The
capacity
for
could
provide
protection
against
warming,
but
work
has
found
few
generalizable
patterns
explain
variation
this
trait.
Here,
we
report
the
results
of,
our
knowledge,
first
meta-analysis
examine
within-species
plasticity,
using
from
20
studies
(19
species)
that
quantified
capacities
across
78
populations.
We
used
meta-regression
evaluate
two
leading
hypotheses.
variability
hypothesis
predicts
more
thermally
variable
habitats
have
greater
while
trade-off
with
lowest
tolerance
greatest
plasticity.
Our
analysis
indicates
strong
support
because
had
reduced
These
advance
understanding
of
populations'
susceptibility
change
imply
highest
may
limited
phenotypic
plasticity
adjust
ongoing
warming.
The Anatomical Record,
Journal Year:
2022,
Volume and Issue:
305(12), P. 3543 - 3608
Published: Feb. 28, 2022
Abstract
The
skin
is
a
barrier
between
the
internal
and
external
environment
of
an
organism.
Depending
on
species,
it
participates
in
multiple
functions.
organ
that
holds
body
together,
covers
protects
it,
provides
communication
with
its
environment.
It
also
body's
primary
line
defense,
especially
for
anamniotes.
All
vertebrates
have
multilayered
composed
three
main
layers:
epidermis,
dermis,
hypodermis.
vital
mission
integument
aquatic
mucus
secretion.
Cornification
began
apmhibians,
improved
reptilians,
endured
avian
mammalian
epidermis.
feather,
most
ostentatious
functional
structure
skin,
evolved
Mesozoic
period.
After
extinction
dinosaurs,
birds
continued
to
diversify,
followed
by
enlargement,
expansion,
diversification
mammals,
which
brings
us
complicated
organization
mammals
differing
glands,
cells,
physiological
pathways,
evolution
hair.
Throughout
these
radical
changes,
some
features
were
preserved
among
classes
such
as
basic
dermal
structure,
pigment
cell
types,
coloration
genetics,
similar
sensory
features,
enable
track
evolutionary
path.
structural
properties
all
are
presented.
purpose
this
review
go
way
back
agnathans
follow
path
step
up
provide
comparative
large
updated
survey
about
vertebrate
terms
morphology,
physiology,
ecology,
immunology.
Ecological Monographs,
Journal Year:
2022,
Volume and Issue:
92(2)
Published: Feb. 9, 2022
Abstract
Patterns
in
functional
diversity
of
organisms
at
large
spatial
scales
can
provide
insight
into
possible
responses
to
future
climate
change,
but
it
remains
a
challenge
link
large‐scale
patterns
the
population
or
species
level
their
underlying
physiological
mechanisms
individual
level.
The
variability
hypothesis
predicts
that
temperate
ectotherms
will
be
less
vulnerable
warming
compared
with
tropical
ectotherms,
due
superior
acclimatization
capacity.
However,
metabolic
occurs
over
multiple
levels,
from
enzyme
and
cellular
level,
through
organ
systems,
whole‐organism
rate
(from
this
point
forwards
biological
hierarchy).
Previous
studies
have
focused
on
one
few
levels
hierarchy,
leaving
us
without
general
understanding
how
might
differ
between
species.
Here,
we
investigated
thermal
acclimation
three
Takydromus
lizards
distributed
along
broad
latitudinal
gradient
China,
by
studying
modifications
whole
organism,
organ,
mitochondria,
metabolome,
proteome.
As
predicted
hypothesis,
two
T.
septentrionalis
wolteri
had
an
enhanced
response
organism
sexlineatus
,
as
measured
respiratory
gas
exchange
rates.
which
performance
was
modified
strikingly
different
species:
widespread
sizes,
whereas
narrowly
relied
mitochondrial,
proteomic
metabolomic
regulation.
We
suggest
these
may
represent
strategies
used
distinct
ecological
costs
benefits.
Lacking
either
capacity,
is
likely
increased
vulnerability
change.