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Example notebooks

Explore real-world use cases with our Python-based framework for solar performance modeling. These Jupyter notebooks demonstrate how to access environmental data, model various types of performance losses, and optimize operational strategies using the PVRADAR Python package.

Start using PVRADAR today: Installation Instructions

Please use the latest version of pvradar-sdk

Register for our upcoming webinars or watch recordings of past sessions: Webinars

📡 Data Access & Validation

Retrieve, compare, and validate environmental and operational data from public and private sources.

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Learn how to get precipitation, temperature, wind speed, and more in a single line of code.
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Retrieve and compare snowfall metrics relevant to snow loss modeling.
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Benchmark ground station data against satellite estimates to select your preferred data source.

☀️ Model PV Performance

Build model chains and quantify the physical effects that influence PV system performance.

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Apply pvlib-based soiling models with custom parameters and compare outputs.
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Simulate snow-related production losses using physical and empirical models.
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Estimate energy loss from tracking system failures based on irradiance and geometry.

📈 Model Calibration & Validation

Use measurements to calibrate model parameters and test how accurately models reproduce observed behavior.

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Derive u_c and u_v temperature coefficients from measured module temperatures.
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Estimate monthly soiling loss factors and quantify energy losses using HSU soiling model with parameters optimized against actual measurements in similar conditions.

📡 Yield Forecasting & Optimization

Use models and forecasts to support operational decisions and estimate future performance.

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Retrieve irradiance forecasts from the ECMWF IFS via the hefty Python package and turn them into yield predictions for your solar asset with PVRADAR.

🧪 Research & Case Studies

Explore research applications, scientific analyses, and examples developed together with external experts and partners.

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Analyze aerosol dynamics and characterize airborne dust using AOD and Ångström Exponent from MERRA-2.

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