Ecological Entomology,
Journal Year:
2020,
Volume and Issue:
46(4), P. 743 - 756
Published: Nov. 30, 2020
1.
The
decline
in
insect
abundance
and
diversity
observed
many
ecosystems
is
of
major
concern
because
the
long‐term
consequences
for
ecosystem
function
stability.
2.
Species
ecological
communities
are
connected
through
interactions
forming
complex
networks.
Therefore,
initial
extinctions
can
cause
further
species
losses
co‐extinctions
extinction
cascades,
where
single
lead
to
waves
secondary
extinctions.
Such
knock‐on
effects
multiply
impact
disturbances,
thereby
largely
adding
erosion
biodiversity.
However,
our
knowledge
their
importance
current
hampered
challenging
both
detect
predict.
3.
In
this
review,
we
bring
together
theory
about
light
main
drivers
decline.
We
evaluate
potential
evidence
cascading
different
identify
pathways.
By
providing
selected
examples
discuss
how
habitat
loss,
pollution,
invasions,
climate
change
overexploitation
argue
that
loss
pollution
particular
have
largest
such
by
changing
community
structure,
physical
environment,
robustness.
4.
Overall,
part
an
ecosystems'
response
anthropogenic
but
so
far
not
explicitly
measured
contribution
when
evaluating
biodiversity
loss.
This
necessary
predict
find
strategies
buffer
against
devastating
change.
Annual Review of Entomology,
Journal Year:
2019,
Volume and Issue:
65(1), P. 457 - 480
Published: Oct. 14, 2019
Insect
declines
are
being
reported
worldwide
for
flying,
ground,
and
aquatic
lineages.
Most
reports
come
from
western
northern
Europe,
where
the
insect
fauna
is
well-studied
there
considerable
demographic
data
many
taxonomically
disparate
Additional
cases
of
faunal
losses
have
been
noted
Asia,
North
America,
Arctic,
Neotropics,
elsewhere.
While
this
review
addresses
both
species
loss
population
declines,
its
emphasis
on
latter.
Declines
abundant
can
be
especially
worrisome,
given
that
they
anchor
trophic
interactions
shoulder
essential
ecosystem
services
their
respective
communities.
A
factors
believed
to
responsible
observed
collapses
those
perceived
threatening
insects
form
core
treatment.
In
addition
widely
recognized
threats
biodiversity,
e.g.,
habitat
destruction,
agricultural
intensification
(including
pesticide
use),
climate
change,
invasive
species,
assessment
highlights
a
few
less
commonly
considered
such
as
atmospheric
nitrification
burning
fossil
fuels
effects
droughts
changing
precipitation
patterns.
Because
geographic
extent
magnitude
largely
unknown,
an
urgent
need
monitoring
efforts,
across
ecological
gradients,
which
will
help
identify
important
causal
in
declines.
This
also
considers
status
vertebrate
insectivores,
reporting
bias,
challenges
inherent
collecting
interpreting
data,
increasing
abundance.
Ecology and Evolution,
Journal Year:
2018,
Volume and Issue:
8(22), P. 11337 - 11358
Published: Oct. 23, 2018
Abstract
In
recent
decades,
advances
in
lighting
technology
have
precipitated
exponential
increases
night
sky
brightness
worldwide,
raising
concerns
the
scientific
community
about
impact
of
artificial
light
at
(ALAN)
on
crepuscular
and
nocturnal
biodiversity.
Long‐term
records
show
that
insect
abundance
has
declined
significantly
over
this
time,
with
worrying
implications
for
terrestrial
ecosystems.
The
majority
investigations
into
vulnerability
insects
to
focused
flight‐to‐light
behavior
exhibited
by
select
families.
However,
ALAN
can
affect
other
ways
as
well.
This
review
proposes
five
categories
insects,
highlighting
past
research
identifying
key
knowledge
gaps.
We
conclude
a
summary
relevant
literature
bioluminescent
fireflies,
which
emphasizes
unique
light‐based
communication
systems
illumination.
Comprehensive
understanding
ecological
impacts
diverse
taxa
will
enable
researchers
seek
out
methods
whereby
moths,
essential
members
ecosystem
coexist
humans
an
increasingly
urbanized
planet.
Global Change Biology,
Journal Year:
2017,
Volume and Issue:
24(3), P. 872 - 882
Published: Nov. 10, 2017
The
environmental
impacts
of
artificial
light
at
night
have
been
a
rapidly
growing
field
global
change
science
in
recent
years.
Yet,
pollution
has
not
achieved
parity
with
other
phenomena
the
level
concern
and
interest
it
receives
from
scientific
community,
government
nongovernmental
organizations.
This
is
despite
globally
widespread,
expanding
changing
nature
night-time
lighting
immediacy,
severity
phylogenetic
breath
its
impacts.
In
this
opinion
piece,
we
evidence
10
reasons
why
should
be
focus
for
research
21st
century.
Our
extend
beyond
those
concerned
principally
environment,
to
also
include
on
human
health,
culture
biodiversity
conservation
more
generally.
We
conclude
that
use
will
continue
raise
numerous
ecological,
health
cultural
issues,
but
opportunities
exist
mitigate
by
combining
novel
technologies
sound
evidence.
potential
gains
appropriate
management
far
indeed
may
play
key
role
transitioning
towards
sustainable
society.
Annals of Applied Biology,
Journal Year:
2018,
Volume and Issue:
173(2), P. 180 - 189
Published: June 11, 2018
Abstract
Drastic
declines
in
insect
populations,
‘Ecological
Armageddon’,
have
recently
gained
increased
attention
the
scientific
community,
and
are
commonly
considered
to
be
consequence
of
large‐scale
factors
such
as
land‐use
changes,
use
pesticides,
climate
change
habitat
fragmentation.
Artificial
light
at
night
(ALAN),
a
pervasive
global
that
strongly
impacts
insects,
remains,
however,
infrequently
recognised
potential
contributor
observed
declines.
Here,
we
provide
summary
recent
evidence
ALAN
on
insects
discuss
how
these
can
drive
populations
light‐polluted
areas.
increase
overall
environmental
pressure
this
is
particularly
important
agroecosystems
where
communities
ecosystem
services
(such
natural
pest
control,
pollination,
conservation
soil
structure
fertility
nutrient
cycling),
already
under
considerable
pressure.
We
changes
driven
by
itself
may
hinder
influence
crop
production
biodiversity
agricultural
landscapes.
Understanding
contribution
other
decline
an
step
towards
mitigation
recovery
fauna
our
In
future
studies,
role
nocturnal
illumination
also
needs
examined
possible
causal
factor
ongoing
along
with
more
factors.
Given
large
scale
land
indirectly
directly
impact
biodiversity,
better
understanding
effects
urgently
needed.
Sustainability,
Journal Year:
2019,
Volume and Issue:
11(22), P. 6400 - 6400
Published: Nov. 14, 2019
Artificial
light
at
night
(ALAN)
is
increasing
exponentially
worldwide,
accelerated
by
the
transition
to
new
efficient
lighting
technologies.
However,
ALAN
and
resulting
pollution
can
cause
unintended
physiological
consequences.
In
vertebrates,
production
of
melatonin—the
“hormone
darkness”
a
key
player
in
circadian
regulation—can
be
suppressed
ALAN.
this
paper,
we
provide
an
overview
research
on
melatonin
vertebrates.
We
discuss
how
disrupts
natural
photic
environments,
its
effect
rhythms,
different
photoreceptor
systems
across
vertebrate
taxa.
then
present
results
systematic
review
which
identified
studies
under
typical
light-polluted
conditions
fishes,
amphibians,
reptiles,
birds,
mammals,
including
humans.
Melatonin
extremely
low
intensities
many
ranging
from
0.01–0.03
lx
for
fishes
rodents
6
sensitive
Even
lower,
wavelength-dependent
are
implied
some
require
rigorous
testing
ecological
contexts.
studies,
suppression
occurs
minimum
levels
tested,
and,
better-studied
groups,
reported
occur
lower
levels.
identify
major
gaps
conclude
that,
most
crucial
information
lacking.
No
were
amphibians
reptiles
long-term
impacts
low-level
exposure
unknown.
Given
high
sensitivity
paucity
available
information,
it
further
order
inform
effective
mitigation
strategies
human
health
wellbeing
fitness
vertebrates
ecosystems.
Frontiers in Neuroscience,
Journal Year:
2020,
Volume and Issue:
14
Published: Nov. 16, 2020
The
present
review
draws
together
wide-ranging
studies
performed
over
the
last
decades
that
catalogue
effects
of
artificial-light-at-night
(ALAN)
upon
living
species
and
their
environment.
We
provide
an
overview
tremendous
variety
light-detection
strategies
which
have
evolved
in
organisms
-
unicellular,
plants
animals,
covering
chloroplasts
(plants),
plethora
ocular
extra-ocular
organs
(animals).
describe
visual
pigments
permit
photo-detection,
paying
attention
to
spectral
characteristics,
extend
from
ultraviolet
into
infrared.
discuss
how
use
light
information
a
way
crucial
for
development,
growth
survival:
phototropism,
phototaxis,
photoperiodism,
synchronization
circadian
clocks.
These
aspects
are
treated
depth,
as
perturbation
underlies
much
disruptive
ALAN.
goes
detail
on
networks
organisms,
since
these
fundamental
features
critical
importance
regulating
interface
between
environment
body.
Especially,
hormonal
synthesis
secretion
often
under
circannual
control,
hence
clock
will
lead
imbalance.
addresses
ubiquitous
introduction
light-emitting
diode
technology
may
exacerbate,
or
some
cases
reduce,
generalized
ever-increasing
pollution.
Numerous
examples
given
widespread
exposure
ALAN
is
perturbing
many
plant
animal
behaviour
foraging,
orientation,
migration,
seasonal
reproduction,
colonization
more.
examine
potential
problems
at
level
individual
populations
debate
consequences
ecosystems.
stress,
through
few
examples,
synergistic
harmful
resulting
impacts
combined
with
other
anthropogenic
pressures,
impact
neuroendocrine
loops
vertebrates.
article
concludes
by
debating
changes
could
be
mitigated
more
reasonable
available
example
restricting
illumination
essential
areas
hours,
directing
lighting
avoid
wasteful
radiation
selecting
emissions,
reduce
end
discussing
society
should
take
account
potentially
major
has
natural
world
repercussions
ongoing
human
health
welfare.