Converting Forests to Solar Facilities: Causes, Potential, and
We evaluate the current land use footprint of solar facilities in the United States and land use conversions to support solar production. We examine the policy structures that currently
We evaluate the current land use footprint of solar facilities in the United States and land use conversions to support solar production. We examine the policy structures that currently
Specifically, we resolve uncertainties around how much land has been converted to solar farms across the UK, estimate land use change for solar farms on high grade agricultural land and
Using the state of California (United States) as a model system, our study shows that the majority of utility-scale solar energy (USSE) installations are sited in natural environments, namely
Using a data-driven approach, we summarize findings from previous studies on co-located PV–agriculture systems across environmental, social, economic, technical and land-use disciplines.
We develop a consistent, replicable framework to quantify land-solar interactions and apply it to annotated aerial imagery covering 719 solar photovoltaic projects (13,272 megawatts of
Natural resource concerns, such as soil erosion, dust, runoff, and damage from wildlife or livestock, frequently occur during construction and operation of solar farms.
While there are potentially other ways (such as “agrivoltaics”) to mitigate the negative land-use impacts of utility-scale PV, the primary way to mitigate the inevitability of rising land costs is to minimize the
PV plants are predominantly ground-mounted, with the majority of installations being land-based, resulting in a significant global transformation of land use (Vervloesem et al., 2022). The
New research shows that common solar datasets underestimate land use by up to 34% because they ignore the footprint of the entire facility. That gap hides the true scale of habitat loss,
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