def es_predict_sum(count_list, virtual_info, double_or_triple, alpha):
    # temp_list = []
    es_predict_result = {}
    for flavor, info in virtual_info.items():
        temp_list1 = []
        temp_list2 = []
        temp_list3 = []
        for i in range(len(count_list)):
            temp_list1.append(count_list[i][flavor - 1])

            temp_a = Tool.mid([count_list[j][flavor - 1] for j in range(i - 2, i + 2) if 0 <= j < len(count_list)])
            temp_list2.append(
                math.log(
                    int(temp_a) + 1))

            temp_list3.append(count_list[i][flavor - 1])

        temp_list1 = temp_list1[::-1]
        temp_list2 = temp_list2[::-1]
        es_list3 = Tool.line_diff(temp_list3[::-1])

        if double_or_triple == 2:
            a1, b1 = compute_double(alpha, temp_list1)
            result1 = max(int(a1[-1] + b1[-1] * 1), 0)

            a2, b2 = compute_double(alpha, temp_list2)
            result2 = max(math.exp(a2[-1] + b2[-1] * 1) - 1, 0)

            a3, b3 = compute_double(alpha, es_list3)
            aaa = int(a3[-1] + b3[-1] * 1)
            result3 = max(temp_list3[0] + aaa, 0)

            es_predict_result[flavor] = max(0.33 * result1 + 0.33 * result2 + 0.33 * result3, 0)

        elif double_or_triple == 3:
            a1, b1, c1 = compute_triple(alpha, temp_list1)
            result1 = max(int(a1[-1] + b1[-1] * 1 + c1[-1] * (1 ** 2)), 0)

            a2, b2, c2 = compute_triple(alpha, temp_list2)
            result2 = max(math.exp(a2[-1] + b2[-1] * 1 + c2[-1] * (1 ** 2)) - 1, 0)

            a3, b3, c3 = compute_triple(alpha, es_list3)
            bbb = int(a3[-1] + b3[-1] * 1 + c3[-1] * (1 ** 2))
            result3 = max(temp_list3[0] + bbb, 0)

            es_predict_result[flavor] = max(0.33 * result1 + 0.33 * result2 + 0.33 * result3, 0)

    return es_predict_result
def es_predict_log(count_list, virtual_info, double_or_triple, alpha):
    # temp_list = []
    es_predict_result = {}
    for flavor, info in virtual_info.items():
        temp_list = []
        for i in range(len(count_list)):
            # temp_a = count_list[i][flavor - 1]
            temp_a = Tool.mid([count_list[j][flavor - 1] for j in range(i - 2, i + 2) if 0 <= j < len(count_list)])
            temp_list.append(
                math.log(
                    int(temp_a) + 1))
        temp_list = temp_list[::-1]
        if double_or_triple == 2:
            a, b = compute_double(alpha, temp_list)
            es_predict_result[flavor] = max(math.exp(a[-1] + b[-1] * 1) - 1, 0)
        elif double_or_triple == 3:
            a, b, c = compute_triple(alpha, temp_list)
            es_predict_result[flavor] = max(math.exp(a[-1] + b[-1] * 1 + c[-1] * (1 ** 2)) - 1, 0)
    return es_predict_result
def predict(lg_count_list,
            lr_count_list,
            rf_count_list,
            es_count_list,
            virtual_info,
            lg_round,
            mix_rf,
            mix_lr,
            mix_es,
            rf_day_gap,
            lr_day_gap,
            es=3,
            alpha=0.5,
            seed=1000,
            floor=0.0,
            rf_diff=0):
    print '-----start predict-----'
    lg_predict_result = {}
    rf_predict_result = {}
    lr_predict_result = {}
    es_predict_result = {}

    for flavor, info in virtual_info.items():

        # -----------  拉格朗日  ----------
        lg_window = []
        for i in range(lg_round):
            lg_window.append(
                # Tool.mid([lg_count_list[j][flavor - 1] for j in range(i - 7, i + 7) if 0 <= j < lg_round]))
                Tool.mid([
                    lg_count_list[j][flavor - 1] for j in range(i - 3, i + 3)
                    if 0 <= j < lg_round
                ]))
        # window_list = [Tool.mean(lg_window[15:29]), Tool.mean(lg_window[0:29]), Tool.mean(lg_window[0:14])]
        window_list = [
            Tool.mean(lg_window[4:7]),
            Tool.mean(lg_window[0:7]),
            Tool.mean(lg_window[0:3])
        ]
        lg_predict_result[flavor] = max(
            int(Tool.LG(3, list(range(0, 3)), window_list)), 0)

        # -----------  随机森林  ----------
        rf_predict_list = []
        temp_list = []
        for i in range(len(rf_count_list)):
            # temp_list.append(Tool.mid([rf_count_list[j][flavor - 1] for j in range(i - 4, i + 4) if 0 <= j < len(rf_count_list)]))
            temp_list.append(rf_count_list[i][flavor - 1])
        test = temp_list[:rf_day_gap - 1][::-1]

        diff_list = Tool.line_diff(temp_list)

        if rf_diff == 0:
            for j in range(len(rf_count_list) - rf_day_gap):
                rf_predict_list.append(temp_list[j:j + rf_day_gap][::-1])
            my_labels = [i for i in range(rf_day_gap)]
            rf_result = rf_predict(rf_predict_list, my_labels, test, seed)
            rf_predict_result[flavor] = rf_result
        else:
            for j in range(len(rf_count_list) - rf_day_gap):
                rf_predict_list.append(diff_list[j:j + rf_day_gap][::-1])
            my_labels = [i for i in range(rf_day_gap)]
            rf_result = rf_predict(rf_predict_list, my_labels, test, seed)
            rf_predict_result[flavor] = rf_result + temp_list[-1]
        # -----------  线性回归  ----------
        lr_window = []
        lr_data = []
        for i in range(20 - lr_day_gap + 1):
            for j in range(1, lr_day_gap):
                # lr_window.append(lr_count_list[i + j][int(flavor) - 1])
                lr_window.append(
                    Tool.mid([
                        lr_count_list[i + jj][int(flavor) - 1]
                        for jj in range(j - 3, j + 3) if 0 <= jj < lr_day_gap
                    ]))
                # lr_window.append(Tool.mid([lr_count_list[i+jj][int(flavor) - 1] for jj in range(j - 3, j + 3) if 0 <= jj < lr_day_gap]))
            lr_window.append(lr_count_list[i][int(flavor) - 1])
            lr_data.append(lr_window)
            lr_window = []
        # print lr_data
        w = Tool.zeros(lr_day_gap)
        w = linear_regression(w, lr_data, 0.02, 700)  # 0.03 500
        x = [lr_data[0][lr_day_gap - 1]] + lr_data[0][:lr_day_gap - 2]
        x = x + [u * u for u in x]
        max_x = max(x)
        min_x = min(x)
        if max_x - min_x > 0:
            x = [1] + [(i - (sum(x) / len(x))) / (max_x - min_x) for i in x]
        else:
            x = [1] + x
        # lr_predict_result[flavor] = max(int(LR.w_mul_x(w, x)), 0)
        lr_predict_result[flavor] = max(w_mul_x(w, x), 0)

        # ---------- 指数平滑 -------------
        es_predict_result = es_predict(es_count_list, virtual_info, es, alpha)

    print 'LG预测结果:{}'.format(lg_predict_result)
    print 'LR预测结果:{}'.format(lr_predict_result)
    print 'RF预测结果:{}'.format(rf_predict_result)
    print 'ES预测结果:{}'.format(es_predict_result)

    predict_result = lg_predict_result.copy()
    for key, value in predict_result.items():
        # predict_result[key] = int(MIX_NUM*lg_predict_result[key] + (1-MIX_NUM)*lr_predict_result[key])  # 向下取整
        predict_result[key] = int(
            mix_lr * lr_predict_result[key] + mix_rf * rf_predict_result[key] +
            mix_es * es_predict_result[key] +
            (1 - mix_lr - mix_rf - mix_es) * lg_predict_result[key] +
            floor)  # 四舍五入
        # predict_result[key] = int(
        #     mix_lr * lr_predict_result[key] + mix_rf * rf_predict_result[key] + mix_es * es_predict_result[key] +
        #     (1 - mix_lr - mix_rf - mix_es) * lg_predict_result[key])  # 地板除

    print '最终预测结果:{}'.format(predict_result)
    print '-----end predict-----'
    return predict_result