Mechanisms underlying the impacts of cropland wind farms on local carbon and water fluxes
Environmental Research Letters,
Год журнала:
2025,
Номер
20(5), С. 054039 - 054039
Опубликована: Апрель 22, 2025
Abstract
In
recent
years,
the
rapid
expansion
of
wind
power
industry
has
increased
awareness
its
ecological
impacts.
A
thorough
understanding
these
impacts
is
essential
for
scientifically
planning
farms
(WFs)
in
future.
While
previous
studies
have
evaluated
influences
WFs
on
vegetation
and
climate
indicators,
analyses
underlying
mechanisms
remain
limited.
Here,
we
focused
169
cropland
eastern
China
to
investigate
this
prevalent
type
WF.
Specifically,
developed
an
analytical
framework
that
first
environmental
factors.
Ridge
regression
was
then
applied
identify
differences
variables
inside
outside
affect
gross
primary
productivity
(GPP)
evapotranspiration
(ET).
Finally,
structural
equation
modeling
used
delineate
pathways
by
which
influence
GPP
ET.
The
results
show
reduce
daytime
land
surface
temperature
0.186
°C,
significantly
increase
soil
moisture
(0.003
m
3
−3
),
decrease
vapor
pressure
deficit
0.095
hPa.
These
changes
subsequently
contributed
a
significant
rise
(25.181
gC
−2
)
ET
(3.785
mm).
By
elucidating
complex
from
pathway
perspective,
study
reveals
interactions
among
factors
influenced
local
scale
effects
WFs,
providing
deeper
their
valuable
insights
future
research.
Язык: Английский
Impact pathways of wind farms on grassland carbon and water cycles
Journal of Environmental Management,
Год журнала:
2025,
Номер
388, С. 126036 - 126036
Опубликована: Май 30, 2025
Язык: Английский
Long-Term Impacts of 250 Wind Farms on Surface Temperature and Vegetation in China: A Remote Sensing Analysis
Remote Sensing,
Год журнала:
2024,
Номер
17(1), С. 10 - 10
Опубликована: Дек. 24, 2024
Wind
energy
is
widely
considered
a
clean
and
renewable
resource,
yet
the
environmental
impacts
of
wind
farm
(WFs)
installations,
particularly
on
local
climate
ecosystems,
remain
underexplored
large
scale.
This
study
presents
comprehensive
assessment
long-term
effects
250
WFs
across
China
land
surface
temperature
(LST)
vegetation
using
remote
sensing
data.
By
comparing
inside
outside
LST
peak
normalized
difference
index
(NDVI)
trends
before
after
five
years
construction,
we
identified
key
changes.
Results
indicated
that
significantly
increased
nighttime
by
0.20
°C
decreased
daytime
0.11
°C,
with
pronounced
seasonal
variability
during
daytime.
A
total
75.20%
negatively
impacted
vegetation,
no
discernible
seasonality
in
this
effect.
Geographical
factors
such
as
latitude,
longitude,
elevation
showed
weak
correlations
these
impacts.
Our
findings
provide
valuable
insights
into
consequences
power
development
contribute
to
more
informed
planning
for
sustainable
generation
adaptation
strategies.
Язык: Английский