Modeled Biennial Energy Production Calculation Sample Clauses

Modeled Biennial Energy Production Calculation. The temperature-derate model used by Operator to determine the modeled level of production a system. The system losses, DC system size, CEC inverter efficiency, and the panel temperature coefficient is the accumulation of losses, degradation rates, and efficiencies which are evaluated on an Biennial basis. These losses are initially calculated upon project commissioning and will only be re-calculated if components fail, degrade, or are changed. Cell temperature and POA irradiance are real-time calculations based on measurements from a reference cell. Our system model is a combination of system specifications, estimated soiling, shade expectations, degradation expectations. This model is calculated by using the single line as-built plans and a production summary report from HelioScope and are re-evaluated for accuracy on a Biennial basis. The Modeled Energy equation is:
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Modeled Biennial Energy Production Calculation. The temperature-derate model used by Operator to determine the modeled level of production a system. The system losses, DC system size, CEC inverter efficiency, and the panel temperature coefficient is the accumulation of losses, degradation rates, and efficiencies which are evaluated on an Biennial basis. These losses are initially calculated upon project commissioning and will only be re-calculated if components fail, degrade, or are changed. Cell temperature and POA irradiance are real-time calculations based on measurements from a reference cell. Our system model is a combination of system specifications, estimated soiling, shade expectations, degradation expectations. This model is calculated by using the single line as-built plans and a production summary report from HelioScope and are re-evaluated for accuracy on a Biennial basis. The Modeled Energy equation is: 𝑀𝑜𝑑𝑒𝑙𝑒𝑑 𝐸𝑛𝑒𝑟𝑔𝑦(𝑘𝑘𝑘 𝐴𝐶) = 𝜎 × (1 − 𝑆) × Where: T = Cell Temperature S = System Model Loss I = POA Irradiance P = DC System Size σ = CEC Inverter Efficiency γ = Temperature Coefficient of the Panel 𝐼 1000 × 𝑃 × (1 + 𝛾𝛾 × (𝑇 − 25)) This modeled production will be compared to actual measured production to calculate operational performance of the system. Unplanned system outages and soiling above expectations will be evaluated and included in system losses. EXHIBIT F TO OPERATION AND MAINTENANCE AGREEMENT RATES FOR ADDITIONAL SERVICES 2020 RATE SCHEDULE Maintenance Services Lead Technician $140 Electrician $140 Laborer $80

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