عوامی رائے کے مرکز کا نقشہ - ٹیکنالوجی کا اشتراک

مصنف:abc_quant, تخلیق: 2020-10-15 17:09:00, تازہ کاری:

عوامی رائے کے مرکزی نقشے کو ایک وسیع مضمون کے مطابق نقل کیا گیا ایک سے زیادہ مرکزوں کا نقشہ شامل کر دیا گیا دلچسپ ہے کہ آپ رائے عامہ کے بارے میں کیا جاننا چاہتے ہیں؟ اس کے علاوہ ، یہاں اپنی مرضی کے مطابق حکمت عملی ہے:https://www.fmz.cn/market-offer/199

'''
start: 2020-10-1 00:00:00
end: 2020-10-15 16:00:00
period: 1h
basePeriod: 1h
exchanges: [{"eid":"OKEX","currency":"BTC_USDT","stocks":1}]
'''
import pandas as pd
from fmz import * # 导入所有FMZ函数
task = VCtx(__doc__) # 初始化
#!pip install --user mplfinance
#import sys
#sys.path.append('/home/quant/.local/lib/python3.6/site-packages')
#import mplfinance
# 第三方函数库
import numpy as np
import pandas as pd
import matplotlib as mpl
import matplotlib.pyplot as plt
#import mplfinance as mpf
import matplotlib.patches as patches
import talib
import datetime
import warnings
warnings.filterwarnings("ignore")

def get_k_series():
    #
    # 获取k线序列,默认为30分钟级别
    # 输入:n是级别,单位是分钟
    # 输出:pandas, k线序列
    n = 1

    one_min_data = pd.DataFrame(exchange.GetRecords())
    one_min_data = one_min_data.rename(columns={'Time':'date','Open':'open','Close':'close','High':'high','Low':'low'})
    one_min_data['date'] = one_min_data['date'].apply(lambda x:_D(x/1000))
    one_min_data['Date'] = one_min_data['date'].apply(lambda x:pd.to_datetime(x))
    one_min_data.set_index('Date',inplace=True)
    
    #print(one_min_data)
    n_min_data = pd.DataFrame()
    for i in range(n, len(one_min_data) + 1, n):
        
        interval = one_min_data.iloc[i - n:i]
        interval_open = interval.open.iloc[0]
        interval_high = max(interval.high)
        interval_low = min(interval.low)
        interval_date = interval.date
        interval_k = pd.DataFrame(interval[-1:])  # 新建DataFrame,否则会报SettingWithCopyWarning
        interval_k.open = interval_open
        interval_k.high = interval_high
        interval_k.low = interval_low
        interval_k.date = interval_date
        #print(interval_k)
        n_min_data = pd.concat([n_min_data, interval_k], axis=0)
    n_min_data = n_min_data.reset_index()
    #del n_min_data['instrument']
    #del n_min_data['index']
    #print(n_min_data)
    return n_min_data


def get_binary_positions(k_data):
    #
    # 计算k线序列的二分位值
    # 输入:k线序列
    # 输出:list, k线序列对应的二分位值
    binary_positions = []
    for i in range(len(k_data)):
        temp_y = (k_data.high[i] + k_data.low[i]) / 2.0
        binary_positions.append(temp_y)
    return binary_positions


def adjust_by_cintainment(k_data):
    #
    # 判断k线的包含关系,便于寻找顶分型和底分型
    # 输入:k线序列
    # 输出:adjusted_k_data, 处理后的k线序列
    trend = [0]
    adjusted_k_data = pd.DataFrame()
    temp_data = k_data[:1]
    #print(temp_data)
    #return
    for i in range(len(k_data)):
        #print("处理:",i)
        is_equal = temp_data.high.iloc[-1] == k_data.high.iloc[i] and temp_data.low.iloc[-1] == k_data.low.iloc[i]  # 第1根等于第2根

        # 向右包含
        if temp_data.high.iloc[-1] >= k_data.high.iloc[i] and temp_data.low.iloc[-1] <= k_data.low.iloc[i] and not is_equal:
            if trend[-1] == -1:
                temp_data.high.iloc[-1] = k_data.high.iloc[i]
            else:
                temp_data.low.iloc[-1] = k_data.low.iloc[i]

        # 向左包含
        elif temp_data.high.iloc[-1] <= k_data.high.iloc[i] and temp_data.low.iloc[-1] >= k_data.low.iloc[i] and not is_equal:
            if trend[-1] == -1:
                temp_data.low.iloc[-1] = k_data.low.iloc[i]
            else:
                temp_data.high.iloc[-1] = k_data.high.iloc[i]

        elif is_equal:
            trend.append(0)

        elif temp_data.high.iloc[-1] > k_data.high.iloc[i] and temp_data.low.iloc[-1] > k_data.low.iloc[i]:
            trend.append(-1)
            temp_data = k_data[i:i + 1]

        elif temp_data.high.iloc[-1] < k_data.high.iloc[i] and temp_data.low.iloc[-1] < k_data.low.iloc[i]:
            trend.append(1)
            temp_data = k_data[i:i + 1]
        
        #print("处理判断完毕:",i)
        
        #print("调整收盘价和开盘价:",i)
        # 调整收盘价和开盘价
        if temp_data.open.iloc[-1] > temp_data.close.iloc[-1]:
            if temp_data.open.iloc[-1] > temp_data.high.iloc[-1]:
                temp_data.open.iloc[-1] = temp_data.high.iloc[-1]
            if temp_data.close.iloc[-1] < temp_data.low.iloc[-1]:
                temp_data.close.iloc[-1] = temp_data.low.iloc[-1]
        else:
            if temp_data.open.iloc[-1] < temp_data.low.iloc[-1]:
                temp_data.open.iloc[-1] = temp_data.low.iloc[-1]
            if temp_data.close.iloc[-1] > temp_data.high.iloc[-1]:
                temp_data.close.iloc[-1] = temp_data.high.iloc[-1]

        adjusted_data = k_data[i:i + 1]
        adjusted_data.open.iloc[-1] = temp_data.open.iloc[-1]
        adjusted_data.close.iloc[-1] = temp_data.close.iloc[-1]
        adjusted_data.high.iloc[-1] = temp_data.high.iloc[-1]
        adjusted_data.low.iloc[-1] = temp_data.low.iloc[-1]
        #print("调整收盘价和开盘价完毕:",i)
        adjusted_k_data = pd.concat([adjusted_k_data, adjusted_data], axis=0)

    return adjusted_k_data


def get_fx(adjusted_k_data):
    #
    # 寻找顶分型和底分型
    # 1)连续分型选择最极端值
    # 2)分型之间保证3根k线
    # 输入:调整后的k线序列
    # 输出:顶分型和底分型的位置

    temp_num = 0  # 上一个顶或底的位置
    temp_high = 0  # 上一个顶的high值
    temp_low = 0  # 上一个底的low值
    temp_type = 0  # 上一个记录位置的类型

    fx_type = []  # 记录分型点的类型,1为顶分型,-1为底分型
    fx_time = []  # 记录分型点的时间
    fx_plot = []  # 记录点的数值,为顶分型取high值,为底分型取low值
    fx_data = pd.DataFrame()  # 记录分型
    fx_offset = []

    # 加上线段起点
    fx_type.append(0)
    fx_offset.append(0)
    #fx_time.append(adjusted_k_data.index[0].strftime("%Y-%m-%d %H:%M:%S"))
    fx_time.append(adjusted_k_data.date[0])
    fx_data = pd.concat([fx_data, adjusted_k_data[:1]], axis=0)
    fx_plot.append((adjusted_k_data.low[0] + adjusted_k_data.high[0]) / 2)

    i = 1
    while (i < len(adjusted_k_data) - 1):

        top = adjusted_k_data.high[i - 1] <= adjusted_k_data.high[i] \
              and adjusted_k_data.high[i] > adjusted_k_data.high[i + 1]  # 顶分型
        bottom = adjusted_k_data.low[i - 1] >= adjusted_k_data.low[i] \
                 and adjusted_k_data.low[i] < adjusted_k_data.low[i + 1]  # 底分型

        if top:
            if temp_type == 1:
                # 如果上一个分型为顶分型,则进行比较,选取高点更高的分型
                if adjusted_k_data.high[i] <= temp_high:
                    i += 1
                else:
                    temp_high = adjusted_k_data.high[i]
                    temp_low = adjusted_k_data.low[i]
                    temp_num = i
                    temp_type = 1
                    i += 2  # 两个分型之间至少有3根k线
            elif temp_type == -1:
                # 如果上一个分型为底分型,则记录上一个分型,用当前分型与后面的分型比较,选取同向更极端的分型
                if temp_low >= adjusted_k_data.high[i]:
                    # 如果上一个底分型的底比当前顶分型的顶高,则跳过当前顶分型。
                    i += 1
                else:
                    fx_type.append(-1)
                    #fx_time.append(adjusted_k_data.index[temp_num].strftime("%Y-%m-%d %H:%M:%S"))
                    fx_time.append(adjusted_k_data.date.iloc[temp_num])
                    fx_data = pd.concat([fx_data, adjusted_k_data[temp_num:temp_num + 1]], axis=0)
                    fx_plot.append(temp_low)
                    fx_offset.append(temp_num)
                    temp_high = adjusted_k_data.high[i]
                    temp_low = adjusted_k_data.low[i]
                    temp_num = i
                    temp_type = 1
                    i += 2  # 两个分型之间至少有3根k线
            else:
                temp_high = adjusted_k_data.high[i]
                temp_low = adjusted_k_data.low[i]
                temp_num = i
                temp_type = 1
                i += 2

        elif bottom:
            if temp_type == -1:
                # 如果上一个分型为底分型,则进行比较,选取低点更低的分型
                if adjusted_k_data.low[i] >= temp_low:
                    i += 1
                else:
                    temp_low = adjusted_k_data.low[i]
                    temp_high = adjusted_k_data.high[i]
                    temp_num = i
                    temp_type = -1
                    i += 2
            elif temp_type == 1:
                # 如果上一个分型为顶分型,则记录上一个分型,用当前分型与后面的分型比较,选取同向更极端的分型
                if temp_high <= adjusted_k_data.low[i]:
                    # 如果上一个顶分型的底比当前底分型的底低,则跳过当前底分型。
                    i += 1
                else:
                    fx_type.append(1)
                    #fx_time.append(adjusted_k_data.index[temp_num].strftime("%Y-%m-%d %H:%M:%S"))
                    fx_time.append(adjusted_k_data.date.iloc[temp_num])
                    fx_data = pd.concat([fx_data, adjusted_k_data[temp_num:temp_num + 1]], axis=0)
                    fx_plot.append(temp_high)
                    fx_offset.append(temp_num)
                    temp_low = adjusted_k_data.low[i]
                    temp_high = adjusted_k_data.high[i]
                    temp_num = i
                    temp_type = -1
                    i += 2
            else:
                temp_low = adjusted_k_data.low[i]
                temp_high = adjusted_k_data.high[i]
                temp_num = i
                temp_type = -1
                i += 2
        else:
            i += 1

    # 加上最后一个分型(上面的循环中最后的一个分型并未处理)
    if temp_type == -1:
        fx_type.append(-1)
        #fx_time.append(adjusted_k_data.index[temp_num].strftime("%Y-%m-%d %H:%M:%S"))
        fx_time.append(adjusted_k_data.date.iloc[temp_num])
        fx_data = pd.concat([fx_data, adjusted_k_data[temp_num:temp_num + 1]], axis=0)
        fx_plot.append(temp_low)
        fx_offset.append(temp_num)
    elif temp_type == 1:
        fx_type.append(1)
        #fx_time.append(adjusted_k_data.index[temp_num].strftime("%Y-%m-%d %H:%M:%S"))
        fx_time.append(adjusted_k_data.date.iloc[temp_num])
        fx_data = pd.concat([fx_data, adjusted_k_data[temp_num:temp_num + 1]], axis=0)
        fx_plot.append(temp_high)
        fx_offset.append(temp_num)

    # 加上线段终点
    fx_type.append(0)
    fx_offset.append(len(adjusted_k_data) - 1)
    #fx_time.append(adjusted_k_data.index[-1].strftime("%Y-%m-%d %H:%M:%S"))
    fx_time.append(adjusted_k_data.date.iloc[-1])
    fx_data = pd.concat([fx_data, adjusted_k_data[-1:]], axis=0)
    fx_plot.append((adjusted_k_data.low.iloc[-1] + adjusted_k_data.high.iloc[-1]) / 2)

    return fx_type, fx_time, fx_data, fx_plot, fx_offset


def get_pivot(fx_plot, fx_offset, fx_observe):
    #
    # 计算最近的中枢
    # 注意:一个中枢至少有三笔
    # fx_plot 笔的节点股价
    # fx_offset 笔的节点时间点(偏移)
    # fx_observe 所观测的分型点

    if fx_observe < 1:
        # 处理边界
        right_bound = 0
        left_bount = 0
        min_high = 0
        max_low = 0
        pivot_x_interval = [left_bount, right_bound]
        pivot_price_interval = [max_low, min_high]
        return pivot_x_interval, pivot_price_interval

    right_bound = (fx_offset[fx_observe] + fx_offset[fx_observe - 1]) / 2
    # 右边界是所观察分型的上一笔中位
    left_bount = 0
    min_high = 0
    max_low = 0

    if fx_plot[fx_observe] >= fx_plot[fx_observe - 1]:
        # 所观察分型的上一笔是往上的一笔
        min_high = fx_plot[fx_observe]
        max_low = fx_plot[fx_observe - 1]
    else:  # 所观察分型的上一笔是往下的一笔
        max_low = fx_plot[fx_observe]
        min_high = fx_plot[fx_observe - 1]

    i = fx_observe - 1
    cover = 0  # 记录走势的重叠区,至少为3才能画中枢
    while (i >= 1):
        if fx_plot[i] >= fx_plot[i - 1]:
            # 往上的一笔
            if fx_plot[i] < max_low or fx_plot[i - 1] > min_high:
                # 已经没有重叠区域了
                left_bount = (fx_offset[i] + fx_offset[i + 1]) / 2
                break
            else:
                # 有重叠区域
                # 计算更窄的中枢价格区间
                cover += 1
                min_high = min(fx_plot[i], min_high)
                max_low = max(fx_plot[i - 1], max_low)


        elif fx_plot[i] < fx_plot[i - 1]:
            # 往下的一笔
            if fx_plot[i] > min_high or fx_plot[i - 1] < max_low:
                # 已经没有重叠区域了
                left_bount = (fx_offset[i] + fx_offset[i + 1]) / 2
                break
            else:
                # 有重叠区域
                # 计算更窄的中枢价格区间
                cover += 3
                min_high = min(fx_plot[i - 1], min_high)
                max_low = max(fx_plot[i], max_low)

        i -= 1

    if cover < 3:
        # 不满足中枢定义
        right_bound = -1
        left_bount = -1
        min_high = -1
        max_low = -1

    pivot_x_interval = [left_bount, right_bound]
    pivot_price_interval = [max_low, min_high]
    return pivot_x_interval, pivot_price_interval,i


def plot_k_series(ax,k_data):
    # 画k线
    num_of_ticks = len(k_data)

   # fig, ax = plt.subplots(figsize=(num_of_ticks, 20))
   # fig.subplots_adjust(bottom=0.2)
    dates = k_data.date
    # print dates
    ax.set_xticks(np.linspace(1, num_of_ticks, num_of_ticks))
    ax.set_xticklabels(list(dates))
    """
    xticks = list(range(0, len(dates), 10))  # 这里设置的是x轴点的位置(40设置的就是间隔了)
    xlabels = [dates[x] for x in xticks ]  # 这里设置X轴上的点对应在数据集中的值(这里用的数据为totalSeed)
    xticks.append(len(dates))
    xlabels.append(dates[-1])
    ax.set_xticks(xticks)
    ax.set_xticklabels(xlabels, rotation=40)
    """
    #T.plot(k_data,candlestick=True)
    print("绘制K线")
    plt.plot(k_data.close)
    #print(1)
#     mpf.candlestick2_ochl(
#         ax,
#         list(k_data.open), list(k_data.close), list(k_data.high), list(k_data.low),
#         width=0.6, colorup='r', colordown='b', alpha=0.75
#     )
    #mpf.plot(k_data,type='candle')
    
    plt.grid(True)
    plt.setp(plt.gca().get_xticklabels(), rotation=30)
    return dates


def plot_lines(ax, fx_plot, fx_offset):
    # 绘制笔和线段
    # ax 绘图区域
    # fx_plot

    plt.plot(fx_offset, fx_plot, 'k', lw=1)
    plt.plot(fx_offset, fx_plot, 'o')


def plot_pivot(ax, pivot_date_interval, pivot_price_interval):
    #
    # 绘制中枢

    start_point = (pivot_date_interval[0], pivot_price_interval[0])
    width = pivot_date_interval[1] - pivot_date_interval[0]
    height = pivot_price_interval[1] - pivot_price_interval[0]
    print(
        "中枢:",
        start_point,  # (x,y)
        width,  # width
        height,  # height
    )
    plt.gca().add_patch(
        patches.Rectangle(
            start_point,  # (x,y)
            width,  # width
            height,  # height
            linewidth=8,
            edgecolor='g',
            facecolor='none'
        )
    )
    return


def plot_all(select_deta=10,price_percent=0.01):#select_deta 中枢最小间隔  price_percent幅度小于某个值
    k_series = get_k_series()
    kk=k_series
    if(len(kk)<10):
        print('k线数量不足')
        return
    fig = plt.figure(figsize=(50, 20))
    plt.rcParams.update({'figure.max_open_warning': 0})

    ax2= fig.add_subplot(212)
    
    print("处理K线...")
    adjusted_k_data = adjust_by_cintainment(k_series)
    plot_k_series(ax2,adjusted_k_data) # 调整后的k线图

    fx_type, fx_time, fx_data, fx_plot, fx_offset = get_fx(adjusted_k_data)
    print (fx_type, fx_time)
    plot_lines(ax2, fx_plot, fx_offset)
    pivot_x_interval, pivot_price_interval,now_index = None,None,len(fx_offset)-2
    #last_pivot_x_interval, last_pivot_price_interval,last_index = get_pivot(fx_plot, fx_offset, now_index)
    
    while now_index >= 1:
        pivot_x_interval, pivot_price_interval,now_index = get_pivot(fx_plot, fx_offset, now_index)
        if pivot_x_interval[0] == -1:
            break
        else:
            if pivot_x_interval[1] - pivot_x_interval[0] < select_deta:
                print("pivot_x_interval[1] - pivot_x_interval[0] < select_deta")
                continue
            hhv = max(k_series.high[int(pivot_x_interval[0]):int(pivot_x_interval[1])])
            llv = min(k_series.low[int(pivot_x_interval[0]):int(pivot_x_interval[1])])
            hhv_deta = abs((hhv - pivot_price_interval[1]) / pivot_price_interval[1])
            llv_deta = abs((llv - pivot_price_interval[0]) / pivot_price_interval[0])
            if (hhv_deta > price_percent or llv_deta > price_percent):
                print(" (hhv_deta > 1.0 / price_percent or llv_deta > 1.0 / price_percent)")
                continue
            plot_pivot(ax2, pivot_x_interval, pivot_price_interval)
    
plot_all(
    select_deta = 2,#中枢最小间隔
    price_percent = 0.5#幅度小于某个值
)
处理K线...
绘制K线
[0, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 1, -1, 0] ['2020-09-22 16:00:00', '2020-09-22 17:00:00', '2020-09-23 01:00:00', '2020-09-23 07:00:00', '2020-09-23 13:00:00', '2020-09-23 15:00:00', '2020-09-23 17:00:00', '2020-09-23 21:00:00', '2020-09-24 03:00:00', '2020-09-24 05:00:00', '2020-09-24 17:00:00', '2020-09-24 19:00:00', '2020-09-24 23:00:00', '2020-09-25 10:00:00', '2020-09-25 20:00:00', '2020-09-26 01:00:00', '2020-09-26 06:00:00', '2020-09-26 10:00:00', '2020-09-26 18:00:00', '2020-09-26 22:00:00', '2020-09-27 01:00:00', '2020-09-27 12:00:00', '2020-09-27 16:00:00', '2020-09-27 18:00:00', '2020-09-28 02:00:00', '2020-09-28 09:00:00', '2020-09-28 13:00:00', '2020-09-28 15:00:00', '2020-09-28 17:00:00', '2020-09-28 19:00:00', '2020-09-28 21:00:00', '2020-09-29 02:00:00', '2020-09-29 04:00:00', '2020-09-29 06:00:00', '2020-09-29 11:00:00', '2020-09-29 17:00:00', '2020-09-30 00:00:00', '2020-09-30 09:00:00', '2020-09-30 17:00:00', '2020-09-30 20:00:00', '2020-10-01 00:00:00']
中枢: (151.5, 10681.6) 43.0 30.299999999999272
中枢: (126.0, 10855.3) 22.0 31.80000000000109
中枢: (43.0, 10702.8) 78.0 31.80000000000109
中枢: (27.0, 10270.8) 9.0 70.60000000000036
中枢: (0, 10450.0) 24.0 19.549999999999272

<Figure size 3600x1440 with 1 Axes>


مزید

mb9177کیا آپ چاہتے ہیں؟

خطبہیہ اچھا لگتا ہے، لیکن یہ کوڈ تھوڑا سا گندا ہے، اور میں نہیں سمجھتا کہ کس طرح کیلکولیٹر قلم اور مرکز کے ساتھ کام کرتا ہے، میں اسے اچھی طرح سے سیکھنا چاہتا ہوں.

گھاسآپ کو ایک تصویر کی بنیاد پر بیانات کو کوڈ میں تبدیل کرنا مشکل ہے.

abc_quantتاریخ کے حساب کے مطابق، مستقبل کی کوئی فنکشن نہیں ہے۔