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Solar Resource & Siting

Methods, data, and tools for evaluating solar resource and site conditions to predict energy yield and guide location selection and layout. Covers irradiance, weather, terrain, soiling, shading, GIS/remote sensing, forecasting, and siting constraints for reliable PV performance.

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Solar PV panels in a fire-prone landscape under hazy wildfire smoke, with soft light filtering through volumetric mist in the air.
Commercial Delivery & Risk Quality, Reliability & Bankability Solar Resource & Siting

What Is Wildfire Smoke Particle Size (and Why Does It Matter for Solar PV)?

Wildfire smoke particle size refers to the diameter of aerosol particles suspended in smoke plumes, typically measured in micrometers (µm) or nanometers (nm), with the majority ranging from 0.1 to 2.5 µm. These fine and ultrafine particles matter profoundly for photovoltaic professionals because they determine how wildfire smoke scatters and absorbs solar radiation, directly impacting power generation forecasts and system performance across fire-prone regions.
Understanding particle size distribution is no longer optional for solar energy planning. Between 2020 and 2025, wildfire events across North America, Australia, and …

Close-up of a photovoltaic cell on a laboratory testing bench with diagnostic equipment in the background, representing PV efficiency screening.
Commercial Delivery & Risk Project Origination & Feasibility Solar Resource & Siting

NREL PV Efficiency Chart: How to Use It for Resource and Energy Yield Screening

The NREL photovoltaic efficiency chart serves as the solar industry’s definitive reference for cell and module performance, tracking certified conversion efficiencies across every major technology from crystalline silicon to emerging perovskite architectures. For professionals conducting pre-feasibility analysis, this chart translates directly into system sizing requirements, energy yield projections, and technology selection decisions that shape project economics before a single panel is procured.
Published continuously since 1976 and updated multiple times annually by the National Renewable Energy Laboratory, the chart …

Close-up of a solar panel surface with fine weathering textures and a glowing copper-peptide-inspired visual suggesting protective regenerative effects in a laboratory environment.
Commercial Delivery & Risk Quality, Reliability & Bankability Solar Resource & Siting

Why This Copper Peptide Could Transform Solar Panel Longevity

GHK-Cu, or glycyl-L-histidyl-L-lysine-copper(II), delivers documented regenerative and protective benefits in biological systems through enhanced collagen synthesis, wound healing acceleration, and antioxidant activity. Originally isolated from human plasma in the 1970s, this naturally occurring copper peptide has gained recognition in skincare applications like the GLOW blend for its ability to stimulate tissue repair and reduce visible signs of aging. For photovoltaic professionals, however, the compound’s protective mechanisms present an intriguing parallel to one of solar …