class PyRobot():
def __init__(self,
client_id: str,
redirect_uri: str,
paper_trading: bool = True,
credentials_path: Optional[str] = None,
trading_account: Optional[str] = None) -> None:
"""Initalizes a new instance of the robot and logs into the API platform specified.
Arguments:
----
client_id {str} -- The Consumer ID assigned to you during the App registration.
This can be found at the app registration portal.
redirect_uri {str} -- This is the redirect URL that you specified when you created your
TD Ameritrade Application.
Keyword Arguments:
----
credentials_path {str} -- The path to the session state file used to prevent a full
OAuth workflow. (default: {None})
trading_account {str} -- Your TD Ameritrade account number. (default: {None})
"""
# Set the attirbutes
self.trading_account = trading_account
self.client_id = client_id
self.redirect_uri = redirect_uri
self.credentials_path = credentials_path
self.session: TDClient = self._create_session()
self.trades = {}
self.historical_prices = {}
self.stock_frame: StockFrame = None
self.paper_trading = paper_trading
self._bar_size = None
self._bar_type = None
def _create_session(self) -> TDClient:
"""Start a new session.
Creates a new session with the TD Ameritrade API and logs the user into
the new session.
Returns:
----
TDClient -- A TDClient object with an authenticated sessions.
"""
# Create a new instance of the client
td_client = TDClient(client_id=self.client_id,
redirect_uri=self.redirect_uri,
credentials_path=self.credentials_path)
# log the client into the new session
td_client.login()
return td_client
@property
def pre_market_open(self) -> bool:
"""Checks if pre-market is open.
Uses the datetime module to create US Pre-Market Equity hours in
UTC time.
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> pre_market_open_flag = trading_robot.pre_market_open
>>> pre_market_open_flag
True
Returns:
----
bool -- True if pre-market is open, False otherwise.
"""
pre_market_start_time = datetime.utcnow().replace(
hour=8, minute=00, second=00).timestamp()
market_start_time = datetime.utcnow().replace(hour=13,
minute=30,
second=00).timestamp()
right_now = datetime.utcnow().timestamp()
if market_start_time >= right_now >= pre_market_start_time:
return True
else:
return False
@property
def post_market_open(self):
"""Checks if post-market is open.
Uses the datetime module to create US Post-Market Equity hours in
UTC time.
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> post_market_open_flag = trading_robot.post_market_open
>>> post_market_open_flag
True
Returns:
----
bool -- True if post-market is open, False otherwise.
"""
post_market_end_time = datetime.utcnow().replace(
hour=00, minute=00, second=00).timestamp()
market_end_time = datetime.utcnow().replace(hour=20,
minute=00,
second=00).timestamp()
right_now = datetime.utcnow().timestamp()
if post_market_end_time >= right_now >= market_end_time:
return True
else:
return False
@property
def regular_market_open(self):
"""Checks if regular market is open.
Uses the datetime module to create US Regular Market Equity hours in
UTC time.
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> market_open_flag = trading_robot.market_open
>>> market_open_flag
True
Returns:
----
bool -- True if post-market is open, False otherwise.
"""
market_start_time = datetime.utcnow().replace(hour=13,
minute=30,
second=00).timestamp()
market_end_time = datetime.utcnow().replace(hour=20,
minute=00,
second=00).timestamp()
right_now = datetime.utcnow().timestamp()
if market_end_time >= right_now >= market_start_time:
return True
else:
return False
def create_portfolio(self) -> Portfolio:
"""Create a new portfolio.
Creates a Portfolio Object to help store and organize positions
as they are added and removed during trading.
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> portfolio = trading_robot.create_portfolio()
>>> portfolio
<pyrobot.portfolio.Portfolio object at 0x0392BF88>
Returns:
----
Portfolio -- A pyrobot.Portfolio object with no positions.
"""
# Initalize the portfolio.
self.portfolio = Portfolio(account_number=self.trading_account)
# Assign the Client
self.portfolio.td_client = self.session
return self.portfolio
def create_trade(self,
trade_id: str,
enter_or_exit: str,
long_or_short: str,
order_type: str = 'mkt',
price: float = 0.0,
stop_limit_price=0.0) -> Trade:
"""Initalizes a new instance of a Trade Object.
This helps simplify the process of building an order by using pre-built templates that can be
easily modified to incorporate more complex strategies.
Arguments:
----
trade_id {str} -- The ID associated with the trade, this can then be used to access the trade during runtime.
enter_or_exit {str} -- Defines whether this trade will be used to enter or exit a position.
If used to enter, specify `enter`. If used to exit, speicfy `exit`.
long_or_short {str} -- Defines whether this trade will be used to go long or short a position.
If used to go long, specify `long`. If used to go short, speicfy `short`.
Keyword Arguments:
----
order_type {str} -- Defines the type of order to initalize. Possible values
are `'mkt', 'lmt', 'stop', 'stop-lmt', 'trailign-stop'` (default: {'mkt'})
price {float} -- The Price to be associate with the order. If the order type is `stop` or `stop-lmt` then
it is the stop price, if it is a `lmt` order then it is the limit price, and `mkt` is the market
price.(default: {0.0})
stop_limit_price {float} -- Only used if the order is a `stop-lmt` and represents the limit price of
the `stop-lmt` order. (default: {0.0})
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> new_trade = trading_robot_portfolio.create_trade(
trade_id='long_1',
enter_or_exit='enter',
long_or_short='long',
order_type='mkt'
)
>>> new_trade
>>> new_market_trade = trading_robot_portfolio.create_trade(
trade_id='long_2',
enter_or_exit='enter',
long_or_short='long',
order_type='mkt',
price=12.00
)
>>> new_market_trade
>>> new_stop_trade = trading_robot_portfolio.create_trade(
trade_id='long_3',
enter_or_exit='enter',
long_or_short='long',
order_type='stop',
price=2.00
)
>>> new_stop_trade
>>> new_stop_limit_trade = trading_robot_portfolio.create_trade(
trade_id='long_4',
enter_or_exit='enter',
long_or_short='long',
order_type='stop-lmt',
price=2.00,
stop_limit_price=1.90
)
>>> new_stop_limit_trade
Returns:
----
Trade -- A pyrobot.Trade object with the specified template.
"""
# Initalize a new trade object.
trade = Trade()
# Create a new trade.
trade.new_trade(trade_id=trade_id,
order_type=order_type,
side=long_or_short,
enter_or_exit=enter_or_exit,
price=price,
stop_limit_price=stop_limit_price)
self.trades[trade_id] = trade
return trade
def delete_trade(self, index: int) -> None:
"""Deletes an exisiting trade from the `trades` collection.
Arguments:
----
index {int} -- The index of the order.
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> new_trade = trading_robot_portfolio.create_trade(
enter_or_exit='enter',
long_or_short='long',
order_type='mkt'
)
>>> trading_robot.delete_trade(index=1)
"""
if index in self.trades:
del self.trades[index]
def grab_current_quotes(self) -> dict:
"""Grabs the current quotes for all positions in the portfolio.
Makes a call to the TD Ameritrade Get Quotes endpoint with all
the positions in the portfolio. If only one position exist it will
return a single dicitionary, otherwise a nested dictionary.
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> trading_robot_portfolio.add_position(
symbol='MSFT',
asset_type='equity'
)
>>> current_quote = trading_robot.grab_current_quotes()
>>> current_quote
{
"MSFT": {
"assetType": "EQUITY",
"assetMainType": "EQUITY",
"cusip": "594918104",
...
"regularMarketPercentChangeInDouble": 0,
"delayed": true
}
}
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> trading_robot_portfolio.add_position(
symbol='MSFT',
asset_type='equity'
)
>>> trading_robot_portfolio.add_position(
symbol='AAPL',
asset_type='equity'
)
>>> current_quote = trading_robot.grab_current_quotes()
>>> current_quote
{
"MSFT": {
"assetType": "EQUITY",
"assetMainType": "EQUITY",
"cusip": "594918104",
...
"regularMarketPercentChangeInDouble": 0,
"delayed": False
},
"AAPL": {
"assetType": "EQUITY",
"assetMainType": "EQUITY",
"cusip": "037833100",
...
"regularMarketPercentChangeInDouble": 0,
"delayed": False
}
}
Returns:
----
dict -- A dictionary containing all the quotes for each position.
"""
# First grab all the symbols.
symbols = self.portfolio.positions.keys()
# Grab the quotes.
quotes = self.session.get_quotes(instruments=list(symbols))
return quotes
def grab_historical_prices(
self,
start: datetime,
end: datetime,
bar_size: int = 1,
bar_type: str = 'minute',
symbols: Optional[List[str]] = None) -> List[dict]:
"""Grabs the historical prices for all the postions in a portfolio.
Overview:
----
Any of the historical price data returned will include extended hours
price data by default.
Arguments:
----
start {datetime} -- Defines the start date for the historical prices.
end {datetime} -- Defines the end date for the historical prices.
Keyword Arguments:
----
bar_size {int} -- Defines the size of each bar. (default: {1})
bar_type {str} -- Defines the bar type, can be one of the following:
`['minute', 'week', 'month', 'year']` (default: {'minute'})
symbols {List[str]} -- A list of ticker symbols to pull. (default: None)
Returns:
----
{List[Dict]} -- The historical price candles.
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> start_date = datetime.today()
>>> end_date = start_date - timedelta(days=30)
>>> historical_prices = trading_robot.grab_historical_prices(
start=end_date,
end=start_date,
bar_size=1,
bar_type='minute'
)
"""
self._bar_size = bar_size
self._bar_type = bar_type
start = str(milliseconds_since_epoch(dt_object=start))
end = str(milliseconds_since_epoch(dt_object=end))
new_prices = []
if not symbols:
symbols = self.portfolio.positions
for symbol in symbols:
historical_prices_response = self.session.get_price_history(
symbol=symbol,
period_type='day',
start_date=start,
end_date=end,
frequency_type=bar_type,
frequency=bar_size,
extended_hours=True)
self.historical_prices[symbol] = {}
self.historical_prices[symbol][
'candles'] = historical_prices_response['candles']
for candle in historical_prices_response['candles']:
new_price_mini_dict = {}
new_price_mini_dict['symbol'] = symbol
new_price_mini_dict['open'] = candle['open']
new_price_mini_dict['close'] = candle['close']
new_price_mini_dict['high'] = candle['high']
new_price_mini_dict['low'] = candle['low']
new_price_mini_dict['volume'] = candle['volume']
new_price_mini_dict['datetime'] = candle['datetime']
new_prices.append(new_price_mini_dict)
self.historical_prices['aggregated'] = new_prices
return self.historical_prices
def get_latest_bar(self) -> List[dict]:
"""Returns the latest bar for each symbol in the portfolio.
Returns:
---
{List[dict]} -- A simplified quote list.
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> latest_bars = trading_robot.get_latest_bar()
>>> latest_bars
"""
# Grab the info from the last quest.
bar_size = self._bar_size
bar_type = self._bar_type
# Define the start and end date.
start_date = datetime.today()
end_date = start_date - timedelta(minutes=bar_size * 15)
start = str(milliseconds_since_epoch(dt_object=start_date))
end = str(milliseconds_since_epoch(dt_object=end_date))
latest_prices = []
# Loop through each symbol.
for symbol in self.portfolio.positions:
# Grab the request.
historical_prices_response = self.session.get_price_history(
symbol=symbol,
period_type='day',
start_date=start,
end_date=end,
frequency_type=bar_type,
frequency=bar_size,
extended_hours=True)
if 'error' in historical_prices_response:
time_true.sleep(2)
# Grab the request.
historical_prices_response = self.session.get_price_history(
symbol=symbol,
period_type='day',
start_date=start,
end_date=end,
frequency_type=bar_type,
frequency=bar_size,
extended_hours=True)
# parse the candles.
for candle in historical_prices_response['candles'][-1:]:
new_price_mini_dict = {}
new_price_mini_dict['symbol'] = symbol
new_price_mini_dict['open'] = candle['open']
new_price_mini_dict['close'] = candle['close']
new_price_mini_dict['high'] = candle['high']
new_price_mini_dict['low'] = candle['low']
new_price_mini_dict['volume'] = candle['volume']
new_price_mini_dict['datetime'] = candle['datetime']
latest_prices.append(new_price_mini_dict)
return latest_prices
def wait_till_next_bar(self, last_bar_timestamp: pd.DatetimeIndex) -> None:
"""Waits the number of seconds till the next bar is released.
Arguments:
----
last_bar_timestamp {pd.DatetimeIndex} -- The last bar's timestamp.
"""
last_bar_time = last_bar_timestamp.to_pydatetime()[0].replace(
tzinfo=timezone.utc)
next_bar_time = last_bar_time + timedelta(seconds=60)
curr_bar_time = datetime.now(tz=timezone.utc)
last_bar_timestamp = int(last_bar_time.timestamp())
next_bar_timestamp = int(next_bar_time.timestamp())
curr_bar_timestamp = int(curr_bar_time.timestamp())
_time_to_wait_bar = next_bar_timestamp - last_bar_timestamp
time_to_wait_now = next_bar_timestamp - curr_bar_timestamp
if time_to_wait_now < 0:
time_to_wait_now = 0
print("=" * 80)
print("Pausing for the next bar")
print("-" * 80)
print("Curr Time: {time_curr}".format(
time_curr=curr_bar_time.strftime("%Y-%m-%d %H:%M:%S")))
print("Next Time: {time_next}".format(
time_next=next_bar_time.strftime("%Y-%m-%d %H:%M:%S")))
print("Sleep Time: {seconds}".format(seconds=time_to_wait_now))
print("-" * 80)
print('')
time_true.sleep(time_to_wait_now)
def create_stock_frame(self, data: List[dict]) -> StockFrame:
"""Generates a new StockFrame Object.
Arguments:
----
data {List[dict]} -- The data to add to the StockFrame object.
Returns:
----
StockFrame -- A multi-index pandas data frame built for trading.
"""
# Create the Frame.
self.stock_frame = StockFrame(data=data)
return self.stock_frame
def execute_signals(self, signals: List[pd.Series],
trades_to_execute: dict) -> List[dict]:
"""Executes the specified trades for each signal.
Arguments:
----
signals {list} -- A pandas.Series object representing the buy signals and sell signals.
Will check if series is empty before making any trades.
Trades:
----
trades_to_execute {dict} -- the trades you want to execute if signals are found.
Returns:
----
{List[dict]} -- Returns all order responses.
Usage:
----
>>> trades_dict = {
'MSFT': {
'trade_func': trading_robot.trades['long_msft'],
'trade_id': trading_robot.trades['long_msft'].trade_id
}
}
>>> signals = indicator_client.check_signals()
>>> trading_robot.execute_signals(
signals=signals,
trades_to_execute=trades_dict
)
"""
buys: pd.Series = signals[0][1]
sells: pd.Series = signals[1][1]
order_responses = []
# If we have buys or sells continue.
if not buys.empty:
# Grab the buy Symbols.
symbols_list = buys.index.get_level_values(0).to_list()
# Loop through each symbol.
for symbol in symbols_list:
# Check to see if there is a Trade object.
if symbol in trades_to_execute:
if self.portfolio.in_portfolio(symbol=symbol):
self.portfolio.set_ownership_status(symbol=symbol,
ownership=True)
# Set the Execution Flag.
trades_to_execute[symbol]['has_executed'] = True
trade_obj: Trade = trades_to_execute[symbol]['trade_func']
if not self.paper_trading:
# Execute the order.
order_response = self.execute_orders(
trade_obj=trade_obj)
order_response = {
'order_id': order_response['order_id'],
'request_body': order_response['request_body'],
'timestamp': datetime.now().isoformat()
}
order_responses.append(order_response)
else:
order_response = {
'order_id': trade_obj._generate_order_id(),
'request_body': trade_obj.order,
'timestamp': datetime.now().isoformat()
}
order_responses.append(order_response)
elif not sells.empty:
# Grab the buy Symbols.
symbols_list = sells.index.get_level_values(0).to_list()
# Loop through each symbol.
for symbol in symbols_list:
# Check to see if there is a Trade object.
if symbol in trades_to_execute:
# Set the Execution Flag.
trades_to_execute[symbol]['has_executed'] = True
if self.portfolio.in_portfolio(symbol=symbol):
self.portfolio.set_ownership_status(symbol=symbol,
ownership=False)
trade_obj: Trade = trades_to_execute[symbol]['trade_func']
if not self.paper_trading:
# Execute the order.
order_response = self.execute_orders(
trade_obj=trade_obj)
order_response = {
'order_id': order_response['order_id'],
'request_body': order_response['request_body'],
'timestamp': datetime.now().isoformat()
}
order_responses.append(order_response)
else:
order_response = {
'order_id': trade_obj._generate_order_id(),
'request_body': trade_obj.order,
'timestamp': datetime.now().isoformat()
}
order_responses.append(order_response)
# Save the response.
self.save_orders(order_response_dict=order_responses)
return order_responses
def execute_orders(self, trade_obj: Trade) -> dict:
"""Executes a Trade Object.
Overview:
----
The `execute_orders` method will execute trades as they're signaled. When executed,
the `Trade` object will have the order response saved to it, and the order response will
be saved to a JSON file for further analysis.
Arguments:
----
trade_obj {Trade} -- A trade object with the `order` property filled out.
Returns:
----
{dict} -- An order response dicitonary.
"""
# Execute the order.
order_dict = self.session.place_order(account=self.trading_account,
order=trade_obj.order)
return order_dict
def save_orders(self, order_response_dict: dict) -> bool:
"""Saves the order to a JSON file for further review.
Arguments:
----
order_response {dict} -- A single order response.
Returns:
----
{bool} -- `True` if the orders were successfully saved.
"""
# Define the folder.
folder: pathlib.PurePath = pathlib.Path(__file__).parents[1].joinpath(
"data")
# See if it exist, if not create it.
if not folder.exists():
folder.mkdir()
# Define the file path.
file_path = folder.joinpath('orders.json')
# First check if the file alread exists.
if file_path.exists():
with open('data/orders.json', 'r') as order_json:
orders_list = json.load(order_json)
else:
orders_list = []
# Combine both lists.
orders_list = orders_list + order_response_dict
# Write the new data back.
with open(file='data/orders.json', mode='w+') as order_json:
json.dump(obj=orders_list, fp=order_json, indent=4)
return True
def get_accounts(self,
account_number: str = None,
all_accounts: bool = False) -> dict:
"""Returns all the account balances for a specified account.
Keyword Arguments:
----
account_number {str} -- The account number you want to query. (default: {None})
all_accounts {bool} -- Specifies whether you want to grab all accounts `True` or not
`False`. (default: {False})
Returns:
----
Dict -- A dictionary containing all the information in your account.
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> trading_robot_accounts = trading_robot.session.get_accounts(
account_number="<YOUR ACCOUNT NUMBER>"
)
>>> trading_robot_accounts
[
{
'account_number': 'ACCOUNT_ID',
'account_type': 'CASH',
'available_funds': 0.0,
'buying_power': 0.0,
'cash_available_for_trading': 0.0,
'cash_available_for_withdrawl': 0.0,
'cash_balance': 0.0,
'day_trading_buying_power': 0.0,
'long_market_value': 0.0,
'maintenance_call': 0.0,
'maintenance_requirement': 0.0,
'short_balance': 0.0,
'short_margin_value': 0.0,
'short_market_value': 0.0
}
]
"""
# Depending on how the client was initalized, either use the state account
# or the one passed through the function.
if all_accounts:
account = 'all'
elif self.trading_account:
account = self.trading_account
else:
account = account_number
# Grab the accounts.
accounts = self.session.get_accounts(account=account)
# Parse the account info.
accounts_parsed = self._parse_account_balances(
accounts_response=accounts)
return accounts_parsed
def _parse_account_balances(
self, accounts_response: Union[Dict, List]) -> List[Dict]:
"""Parses an Account response into a more simplified dictionary.
Arguments:
----
accounts_response {Union[Dict, List]} -- A response from the `get_accounts` call.
Returns:
----
List[Dict] -- A list of simplified account dictionaries.
"""
account_lists = []
if isinstance(accounts_response, dict):
account_dict = {}
for account_type_key in accounts_response:
account_info = accounts_response[account_type_key]
account_id = account_info['accountId']
account_type = account_info['type']
account_current_balances = account_info['currentBalances']
# account_inital_balances = account_info['initialBalances']
account_dict['account_number'] = account_id
account_dict['account_type'] = account_type
account_dict['cash_balance'] = account_current_balances[
'cashBalance']
account_dict['long_market_value'] = account_current_balances[
'longMarketValue']
account_dict[
'cash_available_for_trading'] = account_current_balances.get(
'cashAvailableForTrading', 0.0)
account_dict[
'cash_available_for_withdrawl'] = account_current_balances.get(
'cashAvailableForWithDrawal', 0.0)
account_dict['available_funds'] = account_current_balances.get(
'availableFunds', 0.0)
account_dict['buying_power'] = account_current_balances.get(
'buyingPower', 0.0)
account_dict[
'day_trading_buying_power'] = account_current_balances.get(
'dayTradingBuyingPower', 0.0)
account_dict[
'maintenance_call'] = account_current_balances.get(
'maintenanceCall', 0.0)
account_dict[
'maintenance_requirement'] = account_current_balances.get(
'maintenanceRequirement', 0.0)
account_dict['short_balance'] = account_current_balances.get(
'shortBalance', 0.0)
account_dict[
'short_market_value'] = account_current_balances.get(
'shortMarketValue', 0.0)
account_dict[
'short_margin_value'] = account_current_balances.get(
'shortMarginValue', 0.0)
account_lists.append(account_dict)
elif isinstance(accounts_response, list):
for account in accounts_response:
account_dict = {}
for account_type_key in account:
account_info = account[account_type_key]
account_id = account_info['accountId']
account_type = account_info['type']
account_current_balances = account_info['currentBalances']
# account_inital_balances = account_info['initialBalances']
account_dict['account_number'] = account_id
account_dict['account_type'] = account_type
account_dict['cash_balance'] = account_current_balances[
'cashBalance']
account_dict[
'long_market_value'] = account_current_balances[
'longMarketValue']
account_dict[
'cash_available_for_trading'] = account_current_balances.get(
'cashAvailableForTrading', 0.0)
account_dict[
'cash_available_for_withdrawl'] = account_current_balances.get(
'cashAvailableForWithDrawal', 0.0)
account_dict[
'available_funds'] = account_current_balances.get(
'availableFunds', 0.0)
account_dict[
'buying_power'] = account_current_balances.get(
'buyingPower', 0.0)
account_dict[
'day_trading_buying_power'] = account_current_balances.get(
'dayTradingBuyingPower', 0.0)
account_dict[
'maintenance_call'] = account_current_balances.get(
'maintenanceCall', 0.0)
account_dict[
'maintenance_requirement'] = account_current_balances.get(
'maintenanceRequirement', 0.0)
account_dict[
'short_balance'] = account_current_balances.get(
'shortBalance', 0.0)
account_dict[
'short_market_value'] = account_current_balances.get(
'shortMarketValue', 0.0)
account_dict[
'short_margin_value'] = account_current_balances.get(
'shortMarginValue', 0.0)
account_lists.append(account_dict)
return account_lists
def get_positions(self,
account_number: str = None,
all_accounts: bool = False) -> List[Dict]:
"""Gets all the positions for a specified account number.
Arguments:
----
account_number (str, optional): The account number of the account you want
to pull positions for. Defaults to None.
all_accounts (bool, optional): If you want to return all the positions for every
account then set to `True`. Defaults to False.
Returns:
----
List[Dict]: A list of Position objects.
Usage:
----
>>> trading_robot = PyRobot(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
>>> trading_robot_positions = trading_robot.session.get_positions(
account_number="<YOUR ACCOUNT NUMBER>"
)
>>> trading_robot_positions
[
{
'account_number': '111111111',
'asset_type': 'EQUITY',
'average_price': 0.00,
'current_day_profit_loss': -0.96,
'current_day_profit_loss_percentage': -5.64,
'cusip': '565849106',
'description': '',
'long_quantity': 3.0,
'market_value': 16.05,
'settled_long_quantity': 3.0,
'settled_short_quantity': 0.0,
'short_quantity': 0.0,
'sub_asset_type': '',
'symbol': 'MRO',
'type': ''
},
{
'account_number': '111111111',
'asset_type': 'EQUITY',
'average_price': 5.60667,
'current_day_profit_loss': -0.96,
'current_day_profit_loss_percentage': -5.64,
'cusip': '565849106',
'description': '',
'long_quantity': 3.0,
'market_value': 16.05,
'settled_long_quantity': 3.0,
'settled_short_quantity': 0.0,
'short_quantity': 0.0,
'sub_asset_type': '',
'symbol': 'MRO',
'type': ''
}
]
"""
if all_accounts:
account = 'all'
elif self.trading_account and account_number is None:
account = self.trading_account
else:
account = account_number
# Grab the positions.
positions = self.session.get_accounts(account=account,
fields=['positions'])
# Parse the positions.
positions_parsed = self._parse_account_positions(
positions_response=positions)
return positions_parsed
def _parse_account_positions(
self, positions_response: Union[List, Dict]) -> List[Dict]:
"""Parses the response from the `get_positions` into a more simplified list.
Arguments:
----
positions_response {Union[List, Dict]} -- Either a list or a dictionary that represents a position.
Returns:
----
List[Dict] -- A more simplified list of positions.
"""
positions_lists = []
if isinstance(positions_response, dict):
for account_type_key in positions_response:
account_info = positions_response[account_type_key]
account_id = account_info['accountId']
positions = account_info['positions']
for position in positions:
position_dict = {}
position_dict['account_number'] = account_id
position_dict['average_price'] = position['averagePrice']
position_dict['market_value'] = position['marketValue']
position_dict[
'current_day_profit_loss_percentage'] = position[
'currentDayProfitLossPercentage']
position_dict['current_day_profit_loss'] = position[
'currentDayProfitLoss']
position_dict['long_quantity'] = position['longQuantity']
position_dict['short_quantity'] = position['shortQuantity']
position_dict['settled_long_quantity'] = position[
'settledLongQuantity']
position_dict['settled_short_quantity'] = position[
'settledShortQuantity']
position_dict['symbol'] = position['instrument']['symbol']
position_dict['cusip'] = position['instrument']['cusip']
position_dict['asset_type'] = position['instrument'][
'assetType']
position_dict['sub_asset_type'] = position[
'instrument'].get('subAssetType', "")
position_dict['description'] = position['instrument'].get(
'description', "")
position_dict['type'] = position['instrument'].get(
'type', "")
positions_lists.append(position_dict)
elif isinstance(positions_response, list):
for account in positions_response:
for account_type_key in account:
account_info = account[account_type_key]
account_id = account_info['accountId']
positions = account_info['positions']
for position in positions:
position_dict = {}
position_dict['account_number'] = account_id
position_dict['average_price'] = position[
'averagePrice']
position_dict['market_value'] = position['marketValue']
position_dict[
'current_day_profit_loss_percentage'] = position[
'currentDayProfitLossPercentage']
position_dict['current_day_profit_loss'] = position[
'currentDayProfitLoss']
position_dict['long_quantity'] = position[
'longQuantity']
position_dict['short_quantity'] = position[
'shortQuantity']
position_dict['settled_long_quantity'] = position[
'settledLongQuantity']
position_dict['settled_short_quantity'] = position[
'settledShortQuantity']
position_dict['symbol'] = position['instrument'][
'symbol']
position_dict['cusip'] = position['instrument'][
'cusip']
position_dict['asset_type'] = position['instrument'][
'assetType']
position_dict['sub_asset_type'] = position[
'instrument'].get('subAssetType', "")
position_dict['description'] = position[
'instrument'].get('description', "")
position_dict['type'] = position['instrument'].get(
'type', "")
positions_lists.append(position_dict)
return positions_lists
class PyRobotPortfolioTest(TestCase):
"""Will perform a unit test for the Portfolio object."""
def setUp(self) -> None:
"""Set up the Portfolio."""
self.portfolio = Portfolio()
self.maxDiff = None
# Grab configuration values.
config = ConfigParser()
config.read('configs/config.ini')
CLIENT_ID = config.get('main', 'CLIENT_ID')
REDIRECT_URI = config.get('main', 'REDIRECT_URI')
CREDENTIALS_PATH = config.get('main', 'JSON_PATH')
self.ACCOUNT_NUMBER = config.get('main', 'ACCOUNT_NUMBER')
self.td_client = TDClient(
client_id=CLIENT_ID,
redirect_uri=REDIRECT_URI,
credentials_path=CREDENTIALS_PATH
)
self.td_client.login()
def test_create_portofolio(self):
"""Make sure it's a Portfolio."""
self.assertIsInstance(self.portfolio, Portfolio)
def test_td_client_property(self):
"""Test the TD Client property."""
# Should be None if wasn't initalized from the PyRobot.
self.assertIsNone(self.portfolio.td_client)
def test_stock_frame_property(self):
"""Test the Stock Frame property."""
# Should be None if wasn't initalized from the PyRobot.
self.assertIsNone(self.portfolio.stock_frame)
def test_historical_prices_property(self):
"""Test the Historical Prices property."""
# Should be False if wasn't initalized from the PyRobot.
self.assertFalse(self.portfolio.historical_prices)
def test_add_position(self):
"""Test adding a single position to the portfolio."""
new_position = self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
correct_position = {
'symbol': 'MSFT',
'asset_type': 'equity',
'ownership_status': True,
'quantity': 10,
'purchase_price': 3.00,
'purchase_date': '2020-01-31'
}
self.assertDictEqual(new_position, correct_position)
def test_add_position_default_arguments(self):
"""Test adding a single position to the portfolio, no date."""
new_position = self.portfolio.add_position(
symbol='MSFT',
asset_type='equity'
)
correct_position = {
'symbol': 'MSFT',
'asset_type': 'equity',
'ownership_status': False,
'quantity': 0,
'purchase_price': 0.00,
'purchase_date': None
}
self.assertDictEqual(new_position, correct_position)
def test_delete_existing_position(self):
"""Test deleting an exisiting position."""
self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
delete_status = self.portfolio.remove_position(symbol='MSFT')
correct_status = (True, 'MSFT was successfully removed.')
self.assertTupleEqual(delete_status, correct_status)
def test_delete_non_existing_position(self):
"""Test deleting a non-exisiting position."""
delete_status = self.portfolio.remove_position(symbol='AAPL')
correct_status = (False, 'AAPL did not exist in the porfolio.')
self.assertTupleEqual(delete_status, correct_status)
def test_in_portfolio_exisitng(self):
"""Checks to see if an exisiting position exists."""
self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
in_portfolio_flag = self.portfolio.in_portfolio(symbol='MSFT')
self.assertTrue(in_portfolio_flag)
def test_in_portfolio_non_exisitng(self):
"""Checks to see if a non exisiting position exists."""
in_portfolio_flag = self.portfolio.in_portfolio(symbol='AAPL')
self.assertFalse(in_portfolio_flag)
def test_is_profitable(self):
"""Checks to see if a position is profitable."""
# Add a position.
self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
# Test for being Profitable.
is_profitable = self.portfolio.is_profitable(
symbol='MSFT',
current_price=5.00
)
# Test for not being profitable.
is_not_profitable = self.portfolio.is_profitable(
symbol='MSFT',
current_price=1.00
)
self.assertTrue(is_profitable)
self.assertFalse(is_not_profitable)
def test_projected_market_value(self):
"""Tests the generation of a market value summary, for all of the positions."""
# Add a position.
self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
correct_dict = {
'MSFT': {
'current_price': 5.0,
'is_profitable': True,
'purchase_price': 3.0,
'quantity': 10,
'total_invested_capital': 30.0,
'total_loss_or_gain_$': 20.0,
'total_loss_or_gain_%': 0.6667,
'total_market_value': 50.0
},
'total': {
'number_of_breakeven_positions': 0,
'number_of_non_profitable_positions': 0,
'number_of_profitable_positions': 1,
'total_invested_capital': 30.0,
'total_market_value': 50.0,
'total_positions': 1,
'total_profit_or_loss': 20.0
}
}
portfolio_summary = self.portfolio.projected_market_value(current_prices={'MSFT':{'lastPrice':5.0}})
self.assertDictEqual(correct_dict, portfolio_summary)
def test_grab_historical_prices(self):
pass
def test_portfolio_summary(self):
"""Tests the generation of a portfolio summary, for all of the positions."""
# Add a position.
self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
self.portfolio.td_client = self.td_client
correct_dict = [
'projected_market_value',
'portfolio_weights',
'portfolio_risk'
]
correct_dict = set(correct_dict)
summary_dict = self.portfolio.portfolio_summary()
self.assertTrue(correct_dict.issubset(summary_dict))
def test_ownership_status(self):
"""Tests getting and setting the ownership status."""
# Add a position.
self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
# Should be True, since `purchase_date` was set.
self.assertTrue(self.portfolio.get_ownership_status(symbol='MSFT'))
# Reassign it.
self.portfolio.set_ownership_status(symbol='MSFT', ownership=False)
# Should be False.
self.assertFalse(self.portfolio.get_ownership_status(symbol='MSFT'))
def tearDown(self) -> None:
"""Teardown the Portfolio object."""
self.portfolio = None
class PyRobotSession(TestCase):
"""Will perform a unit test for the Azure session."""
def setUp(self) -> None:
"""Set up the Robot."""
self.portfolio = Portfolio()
def test_create_portofolio(self):
"""Make sure it's a Portfolio."""
self.assertIsInstance(self.portfolio, Portfolio)
def test_add_position(self):
"""Test adding a single position to the portfolio."""
new_position = self.portfolio.add_position(symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31')
correct_position = {
'symbol': 'MSFT',
'asset_type': 'equity',
'quantity': 10,
'purchase_price': 3.00,
'purchase_date': '2020-01-31'
}
self.assertDictEqual(new_position, correct_position)
def test_add_position_default_arguments(self):
"""Test adding a single position to the portfolio, no date."""
new_position = self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
)
correct_position = {
'symbol': 'MSFT',
'asset_type': 'equity',
'quantity': 0,
'purchase_price': 0.00,
'purchase_date': None
}
self.assertDictEqual(new_position, correct_position)
def test_delete_existing_position(self):
"""Test deleting an exisiting position."""
new_position = self.portfolio.add_position(symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31')
delete_status = self.portfolio.remove_position(symbol='MSFT')
correct_status = (True, 'MSFT was successfully removed.')
self.assertTupleEqual(delete_status, correct_status)
def test_delete_non_existing_position(self):
"""Test deleting a non-exisiting position."""
delete_status = self.portfolio.remove_position(symbol='AAPL')
correct_status = (False, 'AAPL did not exist in the porfolio.')
self.assertTupleEqual(delete_status, correct_status)
def test_in_portfolio_exisitng(self):
"""Checks to see if an exisiting position exists."""
new_position = self.portfolio.add_position(symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31')
in_portfolio_flag = self.portfolio.in_portfolio(symbol='MSFT')
self.assertTrue(in_portfolio_flag)
def test_in_portfolio_non_exisitng(self):
"""Checks to see if a non exisiting position exists."""
in_portfolio_flag = self.portfolio.in_portfolio(symbol='AAPL')
self.assertFalse(in_portfolio_flag)
def tearDown(self) -> None:
"""Teardown the Robot."""
self.robot = None
class PyRobotPortfolioTest(TestCase):
"""Will perform a unit test for the Portfolio object."""
def setUp(self) -> None:
"""Set up the Portfolio."""
self.portfolio = Portfolio()
self.maxDiff = None
def test_create_portofolio(self):
"""Make sure it's a Portfolio."""
self.assertIsInstance(self.portfolio, Portfolio)
def test_add_position(self):
"""Test adding a single position to the portfolio."""
new_position = self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
correct_position = {
'symbol': 'MSFT',
'asset_type': 'equity',
'quantity': 10,
'purchase_price': 3.00,
'purchase_date': '2020-01-31'
}
self.assertDictEqual(new_position, correct_position)
def test_add_position_default_arguments(self):
"""Test adding a single position to the portfolio, no date."""
new_position = self.portfolio.add_position(
symbol='MSFT',
asset_type='equity'
)
correct_position = {
'symbol': 'MSFT',
'asset_type': 'equity',
'quantity': 0,
'purchase_price': 0.00,
'purchase_date': None
}
self.assertDictEqual(new_position, correct_position)
def test_delete_existing_position(self):
"""Test deleting an exisiting position."""
self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
delete_status = self.portfolio.remove_position(symbol='MSFT')
correct_status = (True, 'MSFT was successfully removed.')
self.assertTupleEqual(delete_status, correct_status)
def test_delete_non_existing_position(self):
"""Test deleting a non-exisiting position."""
delete_status = self.portfolio.remove_position(symbol='AAPL')
correct_status = (False, 'AAPL did not exist in the porfolio.')
self.assertTupleEqual(delete_status, correct_status)
def test_in_portfolio_exisitng(self):
"""Checks to see if an exisiting position exists."""
self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
in_portfolio_flag = self.portfolio.in_portfolio(symbol='MSFT')
self.assertTrue(in_portfolio_flag)
def test_in_portfolio_non_exisitng(self):
"""Checks to see if a non exisiting position exists."""
in_portfolio_flag = self.portfolio.in_portfolio(symbol='AAPL')
self.assertFalse(in_portfolio_flag)
def test_is_profitable(self):
"""Checks to see if a position is profitable."""
# Add a position.
self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
# Test for being Profitable.
is_profitable = self.portfolio.is_profitable(
symbol='MSFT',
current_price=5.00
)
# Test for not being profitable.
is_not_profitable = self.portfolio.is_profitable(
symbol='MSFT',
current_price=1.00
)
self.assertTrue(is_profitable)
self.assertFalse(is_not_profitable)
def test_projected_market_value(self):
"""Tests the generation of a portfolio summary, for all of the positions."""
# Add a position.
self.portfolio.add_position(
symbol='MSFT',
asset_type='equity',
quantity=10,
purchase_price=3.00,
purchase_date='2020-01-31'
)
correct_dict = {
'MSFT': {
'current_price': 5.0,
'is_profitable': True,
'purchase_price': 3.0,
'quantity': 10,
'total_invested_capital': 30.0,
'total_loss_or_gain_$': 20.0,
'total_loss_or_gain_%': 0.6667,
'total_market_value': 50.0
},
'number_of_breakeven_positions': 0,
'number_of_non_profitable_positions': 0,
'number_of_profitable_positions': 1,
'total_invested_capital': 30.0,
'total_market_value': 50.0,
'total_positions': 1,
'total_profit_or_loss': 20.0
}
portfolio_summary = self.portfolio.projected_market_value(current_prices={'MSFT':{'lastPrice':5.0}})
self.assertDictEqual(correct_dict, portfolio_summary)
def tearDown(self) -> None:
"""Teardown the Portfolio object."""
self.portfolio = None
