Merge branch 'freqtrade:develop' into develop
This commit is contained in:
@@ -20,8 +20,8 @@ from freqtrade.persistence import LocalTrade, Trade, init_db
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logger = logging.getLogger(__name__)
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# Newest format
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BT_DATA_COLUMNS = ['pair', 'stake_amount', 'amount', 'open_date', 'close_date',
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'open_rate', 'close_rate',
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BT_DATA_COLUMNS = ['pair', 'stake_amount', 'max_stake_amount', 'amount',
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'open_date', 'close_date', 'open_rate', 'close_rate',
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'fee_open', 'fee_close', 'trade_duration',
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'profit_ratio', 'profit_abs', 'exit_reason',
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'initial_stop_loss_abs', 'initial_stop_loss_ratio', 'stop_loss_abs',
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@@ -241,6 +241,33 @@ def find_existing_backtest_stats(dirname: Union[Path, str], run_ids: Dict[str, s
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return results
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def _load_backtest_data_df_compatibility(df: pd.DataFrame) -> pd.DataFrame:
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"""
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Compatibility support for older backtest data.
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"""
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df['open_date'] = pd.to_datetime(df['open_date'],
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utc=True,
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infer_datetime_format=True
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)
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df['close_date'] = pd.to_datetime(df['close_date'],
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utc=True,
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infer_datetime_format=True
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)
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# Compatibility support for pre short Columns
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if 'is_short' not in df.columns:
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df['is_short'] = False
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if 'leverage' not in df.columns:
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df['leverage'] = 1.0
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if 'enter_tag' not in df.columns:
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df['enter_tag'] = df['buy_tag']
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df = df.drop(['buy_tag'], axis=1)
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if 'max_stake_amount' not in df.columns:
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df['max_stake_amount'] = df['stake_amount']
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if 'orders' not in df.columns:
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df['orders'] = None
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return df
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def load_backtest_data(filename: Union[Path, str], strategy: Optional[str] = None) -> pd.DataFrame:
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"""
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Load backtest data file.
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@@ -269,24 +296,7 @@ def load_backtest_data(filename: Union[Path, str], strategy: Optional[str] = Non
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data = data['strategy'][strategy]['trades']
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df = pd.DataFrame(data)
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if not df.empty:
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df['open_date'] = pd.to_datetime(df['open_date'],
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utc=True,
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infer_datetime_format=True
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)
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df['close_date'] = pd.to_datetime(df['close_date'],
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utc=True,
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infer_datetime_format=True
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)
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# Compatibility support for pre short Columns
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if 'is_short' not in df.columns:
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df['is_short'] = 0
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if 'leverage' not in df.columns:
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df['leverage'] = 1.0
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if 'enter_tag' not in df.columns:
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df['enter_tag'] = df['buy_tag']
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df = df.drop(['buy_tag'], axis=1)
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if 'orders' not in df.columns:
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df['orders'] = None
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df = _load_backtest_data_df_compatibility(df)
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else:
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# old format - only with lists.
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@@ -9,14 +9,16 @@ from collections import deque
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from datetime import datetime, timezone
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from typing import Any, Dict, List, Optional, Tuple
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from pandas import DataFrame
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from pandas import DataFrame, to_timedelta
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from freqtrade.configuration import TimeRange
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from freqtrade.constants import Config, ListPairsWithTimeframes, PairWithTimeframe
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from freqtrade.constants import (FULL_DATAFRAME_THRESHOLD, Config, ListPairsWithTimeframes,
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PairWithTimeframe)
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from freqtrade.data.history import load_pair_history
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from freqtrade.enums import CandleType, RPCMessageType, RunMode
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from freqtrade.exceptions import ExchangeError, OperationalException
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from freqtrade.exchange import Exchange, timeframe_to_seconds
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from freqtrade.misc import append_candles_to_dataframe
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from freqtrade.rpc import RPCManager
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from freqtrade.util import PeriodicCache
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@@ -120,7 +122,7 @@ class DataProvider:
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'type': RPCMessageType.ANALYZED_DF,
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'data': {
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'key': pair_key,
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'df': dataframe,
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'df': dataframe.tail(1),
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'la': datetime.now(timezone.utc)
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}
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}
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@@ -131,7 +133,7 @@ class DataProvider:
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'data': pair_key,
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})
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def _add_external_df(
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def _replace_external_df(
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self,
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pair: str,
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dataframe: DataFrame,
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@@ -157,6 +159,85 @@ class DataProvider:
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self.__producer_pairs_df[producer_name][pair_key] = (dataframe, _last_analyzed)
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logger.debug(f"External DataFrame for {pair_key} from {producer_name} added.")
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def _add_external_df(
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self,
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pair: str,
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dataframe: DataFrame,
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last_analyzed: datetime,
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timeframe: str,
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candle_type: CandleType,
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producer_name: str = "default"
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) -> Tuple[bool, int]:
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"""
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Append a candle to the existing external dataframe. The incoming dataframe
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must have at least 1 candle.
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:param pair: pair to get the data for
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:param timeframe: Timeframe to get data for
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:param candle_type: Any of the enum CandleType (must match trading mode!)
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:returns: False if the candle could not be appended, or the int number of missing candles.
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"""
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pair_key = (pair, timeframe, candle_type)
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if dataframe.empty:
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# The incoming dataframe must have at least 1 candle
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return (False, 0)
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if len(dataframe) >= FULL_DATAFRAME_THRESHOLD:
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# This is likely a full dataframe
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# Add the dataframe to the dataprovider
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self._replace_external_df(
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pair,
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dataframe,
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last_analyzed=last_analyzed,
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timeframe=timeframe,
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candle_type=candle_type,
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producer_name=producer_name
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)
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return (True, 0)
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if (producer_name not in self.__producer_pairs_df
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or pair_key not in self.__producer_pairs_df[producer_name]):
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# We don't have data from this producer yet,
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# or we don't have data for this pair_key
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# return False and 1000 for the full df
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return (False, 1000)
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existing_df, _ = self.__producer_pairs_df[producer_name][pair_key]
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# CHECK FOR MISSING CANDLES
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timeframe_delta = to_timedelta(timeframe) # Convert the timeframe to a timedelta for pandas
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local_last = existing_df.iloc[-1]['date'] # We want the last date from our copy
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incoming_first = dataframe.iloc[0]['date'] # We want the first date from the incoming
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# Remove existing candles that are newer than the incoming first candle
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existing_df1 = existing_df[existing_df['date'] < incoming_first]
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candle_difference = (incoming_first - local_last) / timeframe_delta
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# If the difference divided by the timeframe is 1, then this
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# is the candle we want and the incoming data isn't missing any.
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# If the candle_difference is more than 1, that means
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# we missed some candles between our data and the incoming
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# so return False and candle_difference.
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if candle_difference > 1:
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return (False, candle_difference)
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if existing_df1.empty:
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appended_df = dataframe
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else:
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appended_df = append_candles_to_dataframe(existing_df1, dataframe)
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# Everything is good, we appended
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self._replace_external_df(
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pair,
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appended_df,
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last_analyzed=last_analyzed,
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timeframe=timeframe,
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candle_type=candle_type,
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producer_name=producer_name
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)
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return (True, 0)
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def get_producer_df(
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self,
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pair: str,
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@@ -52,7 +52,7 @@ def _process_candles_and_indicators(pairlist, strategy_name, trades, signal_cand
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return analysed_trades_dict
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def _analyze_candles_and_indicators(pair, trades, signal_candles):
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def _analyze_candles_and_indicators(pair, trades: pd.DataFrame, signal_candles: pd.DataFrame):
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buyf = signal_candles
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if len(buyf) > 0:
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@@ -120,7 +120,7 @@ def _do_group_table_output(bigdf, glist):
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else:
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agg_mask = {'profit_abs': ['count', 'sum', 'median', 'mean'],
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'profit_ratio': ['sum', 'median', 'mean']}
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'profit_ratio': ['median', 'mean', 'sum']}
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agg_cols = ['num_buys', 'profit_abs_sum', 'profit_abs_median',
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'profit_abs_mean', 'median_profit_pct', 'mean_profit_pct',
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'total_profit_pct']
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@@ -1,4 +1,6 @@
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import logging
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import math
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from datetime import datetime
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from typing import Dict, Tuple
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import numpy as np
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@@ -190,3 +192,119 @@ def calculate_cagr(days_passed: int, starting_balance: float, final_balance: flo
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:return: CAGR
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"""
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return (final_balance / starting_balance) ** (1 / (days_passed / 365)) - 1
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def calculate_expectancy(trades: pd.DataFrame) -> float:
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"""
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Calculate expectancy
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:param trades: DataFrame containing trades (requires columns close_date and profit_ratio)
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:return: expectancy
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"""
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if len(trades) == 0:
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return 0
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expectancy = 1
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profit_sum = trades.loc[trades['profit_abs'] > 0, 'profit_abs'].sum()
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loss_sum = abs(trades.loc[trades['profit_abs'] < 0, 'profit_abs'].sum())
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nb_win_trades = len(trades.loc[trades['profit_abs'] > 0])
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nb_loss_trades = len(trades.loc[trades['profit_abs'] < 0])
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if (nb_win_trades > 0) and (nb_loss_trades > 0):
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average_win = profit_sum / nb_win_trades
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average_loss = loss_sum / nb_loss_trades
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risk_reward_ratio = average_win / average_loss
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winrate = nb_win_trades / len(trades)
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expectancy = ((1 + risk_reward_ratio) * winrate) - 1
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elif nb_win_trades == 0:
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expectancy = 0
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return expectancy
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def calculate_sortino(trades: pd.DataFrame, min_date: datetime, max_date: datetime,
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starting_balance: float) -> float:
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"""
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Calculate sortino
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:param trades: DataFrame containing trades (requires columns profit_abs)
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:return: sortino
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"""
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if (len(trades) == 0) or (min_date is None) or (max_date is None) or (min_date == max_date):
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return 0
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total_profit = trades['profit_abs'] / starting_balance
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days_period = max(1, (max_date - min_date).days)
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expected_returns_mean = total_profit.sum() / days_period
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down_stdev = np.std(trades.loc[trades['profit_abs'] < 0, 'profit_abs'] / starting_balance)
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if down_stdev != 0 and not np.isnan(down_stdev):
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sortino_ratio = expected_returns_mean / down_stdev * np.sqrt(365)
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else:
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# Define high (negative) sortino ratio to be clear that this is NOT optimal.
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sortino_ratio = -100
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# print(expected_returns_mean, down_stdev, sortino_ratio)
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return sortino_ratio
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def calculate_sharpe(trades: pd.DataFrame, min_date: datetime, max_date: datetime,
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starting_balance: float) -> float:
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"""
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Calculate sharpe
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:param trades: DataFrame containing trades (requires column profit_abs)
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:return: sharpe
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"""
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if (len(trades) == 0) or (min_date is None) or (max_date is None) or (min_date == max_date):
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return 0
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total_profit = trades['profit_abs'] / starting_balance
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days_period = max(1, (max_date - min_date).days)
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expected_returns_mean = total_profit.sum() / days_period
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up_stdev = np.std(total_profit)
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if up_stdev != 0:
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sharp_ratio = expected_returns_mean / up_stdev * np.sqrt(365)
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else:
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# Define high (negative) sharpe ratio to be clear that this is NOT optimal.
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sharp_ratio = -100
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# print(expected_returns_mean, up_stdev, sharp_ratio)
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return sharp_ratio
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def calculate_calmar(trades: pd.DataFrame, min_date: datetime, max_date: datetime,
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starting_balance: float) -> float:
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"""
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Calculate calmar
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:param trades: DataFrame containing trades (requires columns close_date and profit_abs)
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:return: calmar
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"""
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if (len(trades) == 0) or (min_date is None) or (max_date is None) or (min_date == max_date):
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return 0
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total_profit = trades['profit_abs'].sum() / starting_balance
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days_period = max(1, (max_date - min_date).days)
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# adding slippage of 0.1% per trade
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# total_profit = total_profit - 0.0005
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expected_returns_mean = total_profit / days_period * 100
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# calculate max drawdown
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try:
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_, _, _, _, _, max_drawdown = calculate_max_drawdown(
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trades, value_col="profit_abs", starting_balance=starting_balance
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)
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except ValueError:
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max_drawdown = 0
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if max_drawdown != 0:
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calmar_ratio = expected_returns_mean / max_drawdown * math.sqrt(365)
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else:
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# Define high (negative) calmar ratio to be clear that this is NOT optimal.
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calmar_ratio = -100
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# print(expected_returns_mean, max_drawdown, calmar_ratio)
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return calmar_ratio
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