Global Ecology and Biogeography,
Journal Year:
2021,
Volume and Issue:
30(3), P. 710 - 724
Published: Jan. 21, 2021
Abstract
Aim
Prediction
of
novel
reservoirs
zoonotic
pathogens
would
be
improved
by
the
identification
interspecific
drivers
host
competence
(i.e.,
ability
to
transmit
new
hosts
or
vectors).
Tick‐borne
can
provide
a
useful
model
system,
because
larvae
become
infected
only
when
feeding
on
competent
during
their
first
blood
meal.
For
tick‐borne
diseases,
has
been
studied
best
for
Borrelia
burgdorferi
sensu
lato
(
Bb
sl),
which
causes
Lyme
borreliosis.
Major
include
several
small
mammal
species,
but
birds
might
play
an
under‐recognized
role
in
human
risk
given
disperse
ticks
across
large
spatial
scales.
Here,
we
global
synthesis
ecological
and
evolutionary
factors
that
determine
bird
species
infect
larval
with
sl.
Location
Global.
Time
period
1983–2019.
taxa
Birds.
Methods
We
compiled
dataset
sl
183
applied
meta‐analysis,
phylogenetic
factorization
boosted
regression
trees
describe
temporal
patterns
competence,
characterize
its
distribution
birds,
reconstruct
evolution
evaluate
trait
profiles
associated
avian
species.
Results
Half
sampled
show
evidence
Competence
displays
moderate
signal,
evolved
multiple
times
is
pronounced
genus
Turdus
.
Trait‐based
analyses
distinguished
80%
accuracy
showed
such
have
low
baseline
corticosterone,
exist
both
ends
pace‐of‐life
continuum,
breed
winter
at
high
latitudes
broad
migratory
movements
into
breeding
range.
used
these
predict
various
likely
unsampled
including
concentrations
within
Neotropics.
Main
conclusion
Our
results
generate
hypotheses
how
contribute
dynamics
help
prioritize
surveillance
birds.
findings
also
emphasize
display
variation
contributions
enzootic
cycles
broader
need
consider
predictive
studies
multi‐host
pathogens.
The Lancet Planetary Health,
Journal Year:
2021,
Volume and Issue:
5(4), P. e237 - e245
Published: March 7, 2021
The
rapid
global
spread
and
human
health
impacts
of
SARS-CoV-2,
the
virus
that
causes
COVID-19,
show
humanity's
vulnerability
to
zoonotic
disease
pandemics.
Although
anthropogenic
land
use
change
is
known
be
major
driver
pathogen
spillover
from
wildlife
populations,
scientific
underpinnings
use-induced
have
rarely
been
investigated
landscape
perspective.
We
call
for
interdisciplinary
collaborations
advance
knowledge
on
implications
emergence
with
a
view
toward
informing
decisions
needed
protect
health.
In
particular,
we
urge
mechanistic
focus
infect–shed–spill–spread
cascade
enable
protection
immunity—the
ecological
conditions
reduce
risk
reservoir
hosts—as
conservation
biosecurity
priority.
Results
are
urgently
formulate
an
integrated,
holistic
set
science-based
policy
management
measures
effectively
cost-efficiently
minimise
risk.
consider
opportunities
better
institute
necessary
collaboration,
address
primary
technical
challenges,
issues
warrant
particular
attention
security
local
scales.
Genetics and Molecular Biology,
Journal Year:
2021,
Volume and Issue:
44(1 suppl 1)
Published: Jan. 1, 2021
The
transmission
of
pathogens
from
wild
animals
to
humans
is
called
"zoonotic
spillover".
Most
human
infectious
diseases
(60-75%)
are
derived
that
originally
circulated
in
non-human
animal
species.
This
demonstrates
spillover
has
a
fundamental
role
the
emergence
new
diseases.
Understanding
factors
facilitate
essential
establish
strategies
focused
on
reduction
frequency
events.
In
this
context,
article
describes
basic
aspects
zoonotic
and
main
involved
events,
considering
inter-species
interactions,
phylogenetic
distance
between
host
species,
environmental
drivers,
specific
characteristics
pathogens,
animals,
humans.
As
an
example,
Severe
Acute
Respiratory
Syndrome
Coronavirus
2
(SARS-CoV-2)
pandemic
discussed,
indicating
what
can
be
learned
public
health
emergency,
applied
Brazilian
scenario.
Finally,
discusses
actions
prevent
or
reduce
Emerging
infectious
diseases,
biodiversity
loss,
and
anthropogenic
environmental
change
are
interconnected
crises
with
massive
social
ecological
costs.
In
this
Review,
we
discuss
how
pathogens
parasites
responding
to
global
change,
the
implications
for
pandemic
prevention
conservation.
Ecological
evolutionary
principles
help
explain
why
both
pandemics
wildlife
die-offs
becoming
more
common;
land-use
loss
often
followed
by
an
increase
in
zoonotic
vector-borne
diseases;
some
species,
such
as
bats,
host
so
many
emerging
pathogens.
To
prevent
next
pandemic,
scientists
should
focus
on
monitoring
limiting
spread
of
a
handful
high-risk
viruses,
especially
at
key
interfaces
farms
live-animal
markets.
But
address
much
broader
set
disease
risks
associated
Anthropocene,
decision-makers
will
need
develop
comprehensive
strategies
that
include
pathogen
surveillance
across
species
ecosystems;
conservation-based
interventions
reduce
human–animal
contact
protect
health;
health
system
strengthening;
improvements
epidemic
preparedness
response.
Scientists
can
contribute
these
efforts
filling
gaps
data,
expanding
evidence
base
disease–driver
relationships
interventions.
This
Review
explores
relationship
between
diseases
connected
changes
Anthropocene.
Philosophical Transactions of the Royal Society B Biological Sciences,
Journal Year:
2025,
Volume and Issue:
380(1917)
Published: Jan. 9, 2025
Zoonotic
and
vector-borne
infectious
diseases
are
among
the
most
direct
human
health
consequences
of
biodiversity
change.
The
COVID-19
pandemic
increased
policymakers’
attention
on
links
between
ecological
degradation
disease,
sparked
discussions
around
nature-based
interventions
to
mitigate
zoonotic
emergence
epidemics.
Yet,
although
disease
ecology
provides
an
increasingly
granular
knowledge
wildlife
in
changing
ecosystems,
we
still
have
a
poor
understanding
net
for
disease.
Here,
argue
that
renewed
focus
wildlife-borne
as
complex
socio-ecological
systems—a
‘people
nature’
paradigm—is
needed
identify
local
transformative
system-wide
changes
could
reduce
burden.
We
discuss
longstanding
scientific
narratives
involvement
systems,
which
largely
framed
people
disruptors,
three
emerging
research
areas
provide
wider
system
perspectives:
how
anthropogenic
ecosystems
construct
new
niches
feedbacks
social
vulnerability
role
human-to-animal
pathogen
transmission
(‘spillback’)
systems.
conclude
by
discussing
opportunities
better
understand
predictability
outcomes
from
change
integrate
drivers
into
intervention
design
evaluation.
This
article
is
part
discussion
meeting
issue
‘Bending
curve
towards
nature
recovery:
building
Georgina
Mace's
legacy
biodiverse
future’.
Journal of Animal Ecology,
Journal Year:
2019,
Volume and Issue:
89(4), P. 972 - 995
Published: Dec. 19, 2019
Abstract
The
prevalence
and
intensity
of
parasites
in
wild
hosts
varies
across
space
is
a
key
determinant
infection
risk
humans,
domestic
animals
threatened
wildlife.
Because
the
immune
system
serves
as
primary
barrier
to
infection,
replication
transmission
following
exposure,
we
here
consider
environmental
drivers
immunity.
Spatial
variation
parasite
pressure,
abiotic
biotic
conditions,
anthropogenic
factors
can
all
shape
immunity
spatial
scales.
Identifying
most
important
could
help
pre‐empt
infectious
disease
risks,
especially
context
how
large‐scale
such
urbanization
affect
defence
by
changing
conditions.
We
provide
synthesis
apply
macroecological
approaches
study
ecoimmunology
(i.e.
macroimmunology).
first
review
that
generate
defence,
highlighting
need
for
studies
differentiate
competing
predictors
detailing
contexts
where
this
approach
might
be
favoured
over
small‐scale
experimental
studies.
next
conduct
systematic
literature
assess
frequency
classify
them
according
taxa,
measures,
extent,
statistical
methods.
210
sampling
multiple
host
populations.
show
whereas
are
relatively
common,
generally
low
unlikely
sufficient
or
power
hypotheses.
also
highlight
biases
macroimmunology,
few
characterize
account
dependence
statistically,
potentially
affecting
inferences
relationships
between
conditions
defence.
use
these
findings
describe
tools
from
geostatistics
modelling
improve
inference
about
associations
immunological
variation.
In
particular,
emphasize
exploratory
guide
greater
mixed‐effects
models
variability
while
allowing
researchers
both
individual‐
habitat‐level
covariates.
finally
discuss
future
research
priorities
including
focusing
on
latitudinal
gradients,
range
expansions
being
amenable
approaches.
Methodologically,
critical
opportunities
posed
assessing
tolerance,
using
metagenomics
quantify
coupling
field
with
experiments
longitudinal
approaches,
applying
macroecology
meta‐analysis
identify
generalizable
patterns.
Such
work
will
facilitate
scaling
insights
predict
change
may
alter
risk.
Journal of Animal Ecology,
Journal Year:
2020,
Volume and Issue:
90(1), P. 45 - 61
Published: Sept. 28, 2020
Abstract
Social
network
analysis
has
achieved
remarkable
popularity
in
disease
ecology,
and
is
sometimes
carried
out
without
investigating
spatial
heterogeneity.
Many
investigations
into
sociality
may
nevertheless
be
subject
to
cryptic
variation,
so
ignoring
processes
can
limit
inference
regarding
dynamics.
Disease
analyses
gain
breadth,
power
reliability
from
incorporating
both
social
behavioural
data.
However,
the
tools
for
collecting
analysing
these
data
simultaneously
complex
unintuitive,
it
often
unclear
when
variation
must
accounted
for.
These
difficulties
contribute
scarcity
of
simultaneous
spatial‐social
ecology
thus
far.
Here,
we
detail
scenarios
that
benefit
analysis.
We
describe
procedures
collection
data,
outline
statistical
approaches
control
estimate
covariance
analyses.
hope
researchers
will
expand
more
include
components
questions.
measures
increase
scope
such
analyses,
allowing
accurate
model
estimates,
better
transmission
modes,
susceptibility
effects
contact
scaling
patterns,
ultimately
effective
interventions.
Oxford University Press eBooks,
Journal Year:
2021,
Volume and Issue:
unknown
Published: July 15, 2021
Abstract
Parasites
are
ubiquitous
and
shape
almost
every
aspect
of
their
hosts,
including
physiology,
behaviour,
life
histories,
the
structure
microbiota,
entire
communities.
Hence,
parasitism
is
one
most
potent
forces
in
nature
and,
without
parasites,
world
would
look
very
different.
The
book
gives
an
overview
over
parasite
groups
diversity
defences
that
hosts
have
evolved,
such
as
immune
systems.
Principles
evolutionary
biology
ecology
analyse
major
elements
host–parasite
interactions,
virulence,
infection
processes,
tolerance,
resistance,
specificity,
memory,
polymorphisms,
within-host
dynamics,
diseases
spaces,
many
other
aspects.
Genetics
always
key
these
topics.
Modelling,
furthermore,
can
predict
best
strategies
for
host
parasites.
Similarly,
spread
infectious
disease
epidemiology
combines
with
molecular
data
genomics.
Furthermore,
parasites
evolved
ways
to
overcome
manipulate
hosts.
Hosts
therefore,
continuously
co-evolve,
changes
sometimes
occurring
rapidly,
requiring
geological
times.
Many
humans
emerged
from
a
zoonotic
origin,
processes
governed
by
basic
principles
discussed
different
sections.
this
integrates
fields
study
phenomena.
It
summarizes
essential
topics
parasitology
will
be
useful
broad
audience.
Biological reviews/Biological reviews of the Cambridge Philosophical Society,
Journal Year:
2021,
Volume and Issue:
96(6), P. 2694 - 2715
Published: July 7, 2021
ABSTRACT
The
crisis
generated
by
the
emergence
and
pandemic
spread
of
COVID‐19
has
thrown
into
global
spotlight
dangers
associated
with
novel
diseases,
as
well
key
role
animals,
especially
wild
potential
sources
pathogens
to
humans.
There
is
a
widespread
demand
for
new
relationship
domestic
including
suggested
bans
on
hunting,
wildlife
trade,
wet
markets
or
consumption
animals.
However,
such
policies
risk
ignoring
essential
elements
problem
alienating
increasing
hardship
local
communities
across
world,
might
be
unachievable
at
scale.
thus
need
more
complex
package
policy
practical
responses.
We
undertook
solution
scan
identify
collate
161
possible
options
reducing
risks
further
epidemic
disease
transmission
from
animals
humans,
SARS‐CoV‐2
(original
variants).
include
all
categories
in
our
responses
(i.e.
wildlife,
captive,
unmanaged/feral
livestock
pets)
focus
(especially
viruses)
that,
once
transmitted
could
acquire
through
high
rates
human‐to‐human
transmission.
This
excludes
measures
prevent
well‐known
zoonotic
rabies,
that
cannot
readily
transmit
between
focused
solutions
societal
measures,
excluding
development
vaccines
other
preventive
therapeutic
medicine
veterinary
are
discussed
elsewhere.
derived
reading
scientific
literature,
NGO
position
papers,
industry
guidelines,
collating
own
experiences,
consulting
experts
different
fields.
Herein,
we
review
major
pathways
present
an
extensive
list
options.
organised
according
stages
trade
chain
encompass
can
applied
local,
regional
international
scales.
set
targeted
practitioners
makers
encourage
careful
examination
courses
action,
validating
their
impact
documenting
outcomes.