package com.gyee.power.fitting.dispersionanalysis;

import java.util.HashMap;
import java.util.Map;

public class PhotovoltaicEfficiencyAnalysis {
    public static void main(String[] args) {
        // 模拟全站光伏逆变单元的数据，这里用一个Map来表示每个逆变单元的发电功率和入射光能
        Map<String, Double[]> inverterData = new HashMap<>();
        inverterData.put("Inverter1", new Double[]{500.0, 600.0});
        inverterData.put("Inverter2", new Double[]{550.0, 600.0});
        inverterData.put("Inverter3", new Double[]{450.0, 600.0});
        inverterData.put("Inverter4", new Double[]{600.0, 600.0});
        inverterData.put("Inverter5", new Double[]{350.0, 600.0});

        // 分析光伏逆变单元的运行水平
        for (Map.Entry<String, Double[]> entry : inverterData.entrySet()) {
            String inverterName = entry.getKey();
            Double[] data = entry.getValue();
            double actualOutputPower = data[0]; // 实际发电功率
            double incidentSolarPower = data[1]; // 入射光能

            double efficiency = calculatePhotovoltaicEfficiency(actualOutputPower, incidentSolarPower);
            OperatingLevel currentLevel = determinePhotovoltaicLevel(efficiency);

            // 输出每个逆变单元的运行水平
            System.out.println(inverterName + "的运行水平是: " + currentLevel);
        }
    }

    // 根据转换效率确定光伏运行水平
    private static OperatingLevel determinePhotovoltaicLevel(double efficiency) {
        if (efficiency >= 90.0) {
            return OperatingLevel.STABLE;
        } else if (efficiency >= 80.0) {
            return OperatingLevel.GOOD;
        } else if (efficiency >= 70.0) {
            return OperatingLevel.NEEDS_IMPROVEMENT;
        } else {
            return OperatingLevel.MUST_CORRECT;
        }
    }

    // 计算光伏转换效率
    private static double calculatePhotovoltaicEfficiency(double actualOutputPower, double incidentSolarPower) {
        // 转换为百分比
        return (actualOutputPower / incidentSolarPower) * 100.0;
    }
}