Universes
Equity Options
Create Universes
To add a universe of Equity Option contracts, in the Initialize
initialize
method, call the AddOption
add_option
method.
This method returns an Option
object, which contains the canonical Symbol
symbol
.
You can't trade with the canonical Option Symbol
symbol
, but save a reference to it so you can easily access the Option contracts in the OptionChain that LEAN passes to the OnData
on_data
method.
public class BasicOptionAlgorithm : QCAlgorithm { private Symbol _symbol; public override void Initialize() { UniverseSettings.Asynchronous = true; var option = AddOption("SPY"); option.SetFilter(Filter); _symbol = option.Symbol; } private OptionFilterUniverse Filter(OptionFilterUniverse universe) { return universe.IncludeWeeklys().Expiration(0, 7).Delta(0.35m, 0.75m); } public override void OnData(Slice data) { if (data.OptionChains.TryGetValue(_symbol, out var chain)) { var contract = chain.OrderBy(x => x.Greeks.Delta).FirstOrDefault(); } } }
class BasicOptionAlgorithm(QCAlgorithm): def initialize(self): self.universe_settings.asynchronous = True option = self.add_option("SPY") option.set_filter(self._filter) self._symbol = option.symbol def _filter(self, universe): return universe.include_weeklys().expiration(0, 7).delta(0.35, 0.75) def on_data(self, data): chain = data.option_chains.get(self._symbol) if chain: contract = sorted(chain, key=lambda x: (x.expiry, x.greeks.delta))[0]
The following table describes the AddOption
add_option
method arguments:
Argument | Data Type | Description | Default Value |
---|---|---|---|
ticker | string str | The underlying Equity ticker. To view the supported underlying Equity tickers, see Supported Assets. | |
resolution | Resolution? Resolution/NoneType | The resolution of the market data. To view the supported resolutions, see Resolutions. The Equity resolution must be less than or equal to the Equity Option resolution. For example, if you set the Equity resolution to minute, then you must set the Equity Option resolution to minute, hour, or daily. | None null |
market | string str | The underlying Equity market. | None null |
fillForward fill_forward | bool | If true, the current slice contains the last available data even if there is no data at the current time. | True true |
leverage | decimal float | The leverage for this Equity. | Security.NullLeverage Security.NULL_LEVERAGE |
extendedMarketHours extended_market_hours | bool | A flag that signals if LEAN should send data during pre- and post-market trading hours. | False false |
If you add an Equity Option universe but don't have a subscription to the underlying Equity, LEAN automatically subscribes to the underlying Equity with the following settings:
Setting | Value |
---|---|
Fill forward | Same as the Option universe |
Leverage | 0 |
Extended Market Hours | Same as the Option universe |
Data Normalization | DataNormalizationMode.Raw DataNormalizationMode.RAW |
If you already have a subscription to the underlying Equity but it's not Raw
RAW
data normalization, LEAN automatically changes it to Raw
RAW
.
Filter by Investment Strategy
Options trading strategies consist of simultaneously buying or selling one or more Option contracts of the same underlying Equity, but with different features.
// Example 1: Select a Straddle option.SetFilter(optionFilterUniverse => optionFilterUniverse.Straddle(30, 5, 10)); // Example 2: Select the contracts (including weeklys) that expire in the next 30 days that form an Iron Condor option.SetFilter(optionFilterUniverse => optionFilterUniverse.IncludeWeeklys().Strikes(-20, 20).Expiration(0, 30).IronCondor(30, 5, 10)); // Example 3: Select the 0DTE contracts that form an Strangle option.SetFilter(optionFilterUniverse => optionFilterUniverse.IncludeWeeklys().Expiration(0, 0).Strangle(30, 5, -10));
# Example 1: Select a Straddle option.set_filter(lambda option_filter_universe: option_filter_universe.straddle(30, 5, 10)) # Example 2: Select the contracts (including weeklys) that expire in the next 30 days that form an Iron Condor option.set_filter(lambda option_filter_universe: option_filter_universe.include_weeklys().strikes(-20, 20).expiration(0, 30).iron_condor(30, 5, 10)) # Example 3: Select the 0DTE contracts that form an Strangle option.set_filter(lambda option_filter_universe: option_filter_universe.include_weeklys().expiration(0, 0).strangle(30, 5, -10))
The following table describes the filter methods of the OptionFilterUniverse
class that select contracts for Option strategies:
NakedCall(int minDaysTillExpiry, decimal strikeFromAtm) naked_call(min_days_till_expiry: int, strike_from_atm: float) Selects a call contract to form Naked Call, Covered Call, or Protective Call Option strategies. |
NakedPut(int minDaysTillExpiry, decimal strikeFromAtm) naked_put(min_days_till_expiry: int, strike_from_atm: float) Selects a put contract to form Naked Put, Covered Put, or Protective Put Option strategies. |
CallSpread(int minDaysTillExpiry, decimal higherStrikeFromAtm, decimal lowerStrikeFromAtm) call_spread(min_days_till_expiry: int, higher_strike_from_atm: float, lower_strike_from_atm: float) Selects two call contracts to form Bull Call Spread or Bear Call Spread Option strategies. |
PutSpread(int minDaysTillExpiry, decimal higherStrikeFromAtm, decimal lowerStrikeFromAtm) put_spread(min_days_till_expiry: int, higher_strike_from_atm: float, lower_strike_from_atm: float) Selects two put contracts to form Bull Put Spread or Bear Put Spread Option strategies. |
CallCalendarSpread(decimal strikeFromAtm, int minNearDaysTillExpiry, int minFarDaysTillExpiry) call_calendar_spread(strike_from_atm: int, min_near_days_till_expiry: int, min_far_days_till_expiry: int) Selects two call contracts to form Long Call Calendar Spread or Short Call Calendar Spread Option strategies. |
PutCalendarSpread(decimal strikeFromAtm, int minNearDaysTillExpiry, int minFarDaysTillExpiry) put_calendar_spread(strike_from_atm: int, min_near_days_till_expiry: int, min_far_days_till_expiry: int) Selects two put contracts to form Long Put Calendar Spread or Short Put Calendar Spread Option strategies. |
Strangle(int minDaysTillExpiry, decimal higherStrikeFromAtm, decimal lowerStrikeFromAtm) strangle(min_days_till_expiry: int, higher_strike_from_atm: float, lower_strike_from_atm: float) Selects two contracts to form Long Strangle or Short Strangle Option strategies. |
Straddle(int minDaysTillExpiry) straddle(min_days_till_expiry: int) Selects two contracts to form Long Straddle or Short Straddle Option strategies. |
ProtectiveCollar(int minDaysTillExpiry, decimal higherStrikeFromAtm, decimal lowerStrikeFromAtm) protective_collar(min_days_till_expiry: int, higher_strike_from_atm: float, lower_strike_from_atm: float) Selects two contracts to form Protective Collar Option strategies. |
Conversion(int minDaysTillExpiry, decimal strikeFromAtm) conversion(min_days_till_expiry: int, strike_from_atm: float) Selects two contracts to form Conversion or Reverse Conversion Option strategies. |
CallButterfly(int minDaysTillExpiry, decimal strikeSpread) call_butterfly(min_days_till_expiry: int, strike_spread: float) Selects three contracts to form Long Call Butterfly or Short Call Butterfly Option strategies. |
PutButterfly(int minDaysTillExpiry, decimal strikeSpread) put_butterfly(min_days_till_expiry: int, strike_spread: float) Selects three contracts to form Long Put Butterfly or Short Put Butterfly Option strategies. |
IronButterfly(int minDaysTillExpiry, decimal strikeSpread) iron_butterfly(min_days_till_expiry: int, strike_spread: float) Selects four contracts to form Long Iron Butterfly or Short Iron Butterfly Option strategies. |
IronCondor(int minDaysTillExpiry, decimal nearStrikeSpread, decimal farStrikeSpread) iron_condor(min_days_till_expiry: int, near_strike_spread: float, far_strike_spread: float) Selects four contracts to form Long Iron Condor or Short Iron Condor Option strategies. |
BoxSpread(int minDaysTillExpiry, decimal strikeSpread) box_spread(min_days_till_expiry: int, strike_spread: float) Selects four contracts to form Box Spread or Short Box Spread Option strategies. |
JellyRoll(decimal strikeFromAtm, int minNearDaysTillExpiry, int minFarDaysTillExpiry) jelly_roll(strike_from_atm: float, min_near_days_till_expiry: int, min_far_days_till_expiry: int) Selects four contracts to form Jelly Roll or Short Jelly Roll Option strategies. |
CallLadder(int minDaysTillExpiry, decimal higherStrikeFromAtm, decimal middleStrikeFromAtm, decimal lowerStrikeFromAtm) call_ladder(min_days_till_expiry: int, higher_strike_from_atm: float, middle_strike_from_atm: float, lower_strike_from_atm: float) Selects four contracts to form Bear Call Ladder or Bull Call Ladder Option strategies. |
PutLadder(int minDaysTillExpiry, decimal higherStrikeFromAtm, decimal middleStrikeFromAtm, decimal lowerStrikeFromAtm) put_ladder(min_days_till_expiry: int, higher_strike_from_atm: float, middle_strike_from_atm: float, lower_strike_from_atm: float) Selects four contracts to form Bear Put Ladder or Bull Put Ladder Option strategies. |
The preceding methods return an OptionFilterUniverse
, so you can chain the methods together.
Filter by Implied Volatility and Greeks
Option price models compute the theoretical price of Option contracts, their implied volatility, and their Greek values. Theoretical prices can help you detect undervalued and overvalued contracts, implied volatility can provide you insight into the upcoming volatility of the underlying security, and Greek values can help you hedge your portfolio.
// Example 1: Select the contracts with delta between 0.25 and 0.75 option.SetFilter(optionFilterUniverse => optionFilterUniverse.Delta(0.25m, 0.75m)); // Example 2: Select the contracts (including weeklys) that expire in the next 90 days with implied volatility below 20% option.SetFilter(optionFilterUniverse => optionFilterUniverse.IncludeWeeklys().IV(0, 20).Expiration(0, 90)); // Example 3: Select the contracts (including weeklys) that expire in the next 30 days with implied volatility below 20% that forms an Iron Condor option.SetFilter(optionFilterUniverse => optionFilterUniverse.IncludeWeeklys().IV(0, 20).Expiration(0, 30).IronCondor(30, 5, 10));
# Example 1: Select the contracts with delta between 0.25 and 0.75 option.set_filter(lambda option_filter_universe: option_filter_universe.delta(0.25, 0.75)) # Example 2: Select the contracts (including weeklys) that expire in the next 90 days with implied volatility below 20% option.set_filter(lambda option_filter_universe: option_filter_universe.include_weeklys().iv(0, 20).expiration(0, 90)) # Example 3: Select the contracts (including weeklys) that expire in the next 30 days with implied volatility below 20% that forms an Iron Condor option.set_filter(lambda option_filter_universe: option_filter_universe.include_weeklys().iv(0, 20).expiration(0, 30).iron_condor(30, 5, 10))
The following table describes the filter methods of the OptionFilterUniverse
class that select contract for a range of implied volatility, Greek values, and open interest:
IV(decimal min, decimal max) iv(min: float, max: float) ImpliedVolatility(decimal min, decimal max) implied_volatility(min: float, max: float) Selects a contract with implied volatility within the range you set. |
D(decimal min, decimal max) d(min: float, max: float) Delta(decimal min, decimal max) delta(min: float, max: float) Selects a contract with delta within the range you set. |
G(decimal min, decimal max) g(min: float, max: float) Gamma(decimal min, decimal max) gamma(min: float, max: float) Selects a contract with gamma within the range you set. |
R(decimal min, decimal max) r(min: float, max: float) Rho(decimal min, decimal max) rho(min: float, max: float) Selects a contract with rho within the range you set. |
V(decimal min, decimal max) v(min: float, max: float) Vega(decimal min, decimal max) vega(min: float, max: float) Selects a contract with vega within the range you set. |
T(decimal min, decimal max) t(min: float, max: float) Theta(decimal min, decimal max) theta(min: float, max: float) Selects a contract with theta within the range you set. |
OI(long min, long max) oi(min: int, max: int) OpenInterest(decimal min, decimal max) open_interest(min: float, max: float) Selects a contract with open interest within the range you set. |
The preceding methods return an OptionFilterUniverse
, so you can chain the methods together.
To perform thorough filtering on the OptionFilterUniverse
, define an isolated filter method.
// Select the put contracts with the lowest strike price. option.SetFilter(Selector); private OptionFilterUniverse Selector(OptionFilterUniverse optionFilterUniverse) { return universe .Delta(0.5m, 1.5m) .Gamma(0.0001m, 0.0006m) .Vega(0.01m, 1.5m) .Theta(-2.0m, -0.5m) .Rho(0.5m, 3.0m) .ImpliedVolatility(1.0m, 3.0m) .OpenInterest(100, 500); }
# Select the put contracts with the lowest strike price. option.set_filter(self._contract_selector) def _contract_selector(self, option_filter_universe: OptionFilterUniverse) -> OptionFilterUniverse: return option_filter_universe \ .delta(0.5, 1.5) \ .gamma(0.0001, 0.0006) \ .vega(0.01, 1.5) \ .theta(-2.0, -0.5) \ .rho(0.5, 3.0) \ .implied_volatility(1, 3) \ .open_interest(100,500)
Filter by Other Contract Properties
To set a contract filter, in the Initialize
initialize
method, call the SetFilter
set_filter
method of the Option
object.
// Select contracts that have a strike price within 1 strike level above and below the underlying price option.SetFilter(minStrike: -1, maxStrike: 1); // Select contracts that expire within 30 days option.SetFilter(minExpiry: TimeSpan.FromDays(0), maxExpiry: TimeSpan.FromDays(30)); // Select contracts that have a strike price within 1 strike level and expire within 30 days option.SetFilter(minStrike: -1, maxStrike: 1, minExpiry: TimeSpan.FromDays(0), maxExpiry: TimeSpan.FromDays(30)); // Select call contracts option.SetFilter(optionFilterUniverse => optionFilterUniverse.CallsOnly());
# Select contracts that have a strike price within 1 strike level above and below the underlying price option.set_filter(min_strike=-1, max_strike=1) # Select contracts that expire within 30 days option.set_filter(min_expiry=timedelta(days=0), maxExpiry=timedelta(days=30)) # Select contracts that have a strike price within 1 strike level and expire within 30 days option.set_filter(min_strike=-1, max_strike=1, min_expiry=timedelta(days=0), maxExpiry=timedelta(days=30)) # Select call contracts option.set_filter(lambda option_filter_universe: option_filter_universe.calls_only())
The following table describes the available filter techniques:
SetFilter(int minStrike, int maxStrike) set_filter(minStrike: int, maxStrike: int) Selects the contracts that have a strike price within a minimum and maximum strike level relative to the underlying price. For example, say the underlying price is $302 and there are strikes at every $5. If you set |
SetFilter(TimeSpan minExpiry, TimeSpan maxExpiry) set_filter(minExpiry: timedelta, maxExpiry: timedelta) Selects the contracts that expire within the range you set. This filter runs asynchronously by default. |
SetFilter(int minStrike, int maxStrike, TimeSpan minExpiry, TimeSpan maxExpiry) set_filter(minStrike: int, maxStrike: int, minExpiry: timedelta, maxExpiry: timedelta) Selects the contracts that expire and have a strike within the range you set. This filter runs asynchronously by default. |
SetFilter(Func<OptionFilterUniverse, OptionFilterUniverse> universeFunc) set_filter(universeFunc: Callable[[OptionFilterUniverse], OptionFilterUniverse]) Selects the contracts that a function selects. |
The following table describes the filter methods of the OptionFilterUniverse
class:
Strikes(int minStrike, int maxStrike) strikes(min_strike: int, max_strike: int) Selects contracts that are within |
CallsOnly() calls_only() Selects call contracts. |
PutsOnly() puts_only() Selects put contracts. |
StandardsOnly() standards_only() Selects standard contracts. |
IncludeWeeklys() include_weeklys() Selects non-standard weeklys contracts. |
WeeklysOnly() weeklys_only() Selects weekly contracts. |
FrontMonth() front_month() Selects the front month contract. |
BackMonths() back_months() Selects the non-front month contracts. |
BackMonth() back_month() Selects the back month contracts. |
Expiration(int minExpiryDays, int maxExpiryDays) expiration(min_expiryDays: int, max_expiryDays: int) Selects contracts that expire within a range of dates relative to the current day. |
Contracts(IEnumerable<Symbol> contracts) contracts(contracts: List[Symbol]) Selects a list of contracts. |
Contracts(Func<IEnumerable<Symbol>, IEnumerable< Symbol>> contractSelector) contracts(contract_selector: Callable[[List[Symbol]], List[Symbol]]) Selects contracts that a selector function selects. |
The preceding methods return an OptionFilterUniverse
, so you can chain the methods together.
// Example 1: Select the front month call contracts option.SetFilter(optionFilterUniverse => optionFilterUniverse.CallsOnly().FrontMonth()); // Example 2: Select the contracts (including weeklys) that expire in the next 90 days option.SetFilter(optionFilterUniverse => optionFilterUniverse.IncludeWeeklys().Strikes(-20, 20).Expiration(0, 90)); // Example 3: Select the contracts (including weeklys) that expire in the next 30 days that form an Iron Condor option.SetFilter(optionFilterUniverse => optionFilterUniverse.IncludeWeeklys().Strikes(-20, 20).Expiration(0, 30).IronCondor(30, 5, 10));
# Example 1: Select the front month call contracts option.set_filter(lambda option_filter_universe: option_filter_universe.calls_only().front_month()) # Example 2: Select the contracts (including weeklys) that expire in the next 90 days option.set_filter(lambda option_filter_universe: option_filter_universe.include_weeklys().strikes(-20, 20).expiration(0, 90))
Some of the preceding filter methods only set an internal enumeration in the OptionFilterUniverse
that it uses later on in the filter process. This subset of filter methods don't immediately reduce the number of contract Symbol
objects in the OptionFilterUniverse
.
Default Filter
By default, LEAN subscribes to the Option contracts that have the following characteristics:
- Standard type (exclude weeklys)
- Within 1 strike price of the underlying asset price
- Expire within 35 days
To adjust the universe of contracts, set a filter. The filter usually runs at the first bar of every day. When the filter selects a contract that isn't currently in your universe, LEAN adds the new contract data to the next Slice
that it passes to the OnData
on_data
method.
Navigate Intraday Option Chains
OptionChain
objects represent an entire chain of Option contracts for a single underlying security.
To get the OptionChain
, index the OptionChains
option_chains
property of the Slice
with the canonical Symbol
symbol
. After you get the OptionChain
, you can sort and filter the Option contracts in the chain.
public override void OnData(Slice slice) { // Try to get the OptionChain using the canonical symbol if (slice.OptionChains.TryGetValue(_symbol, out var chain)) { // Example: Find 5 put contracts that are closest to at-the-money (ATM) and have the farthest expiration var contracts = chain .Where(x => x.Right == OptionRight.Put) .OrderByDescending(x => x.Expiry) .ThenBy(x => Math.Abs(chain.Underlying.Price - x.Strike)) .Take(5); // Select the contract with the delta closest to -0.5 var contract = contracts.OrderBy(x => Math.Abs(-0.5m - x.Greeks.Delta)).FirstOrDefault(); } }
def on_data(self, slice: Slice) -> None: # Try to get the OptionChain using the canonical symbol chain = slice.option_chains.get(self._symbol) if chain: # Example: Find 5 put contracts that are closest to at-the-money (ATM) and have the farthest expiration contracts = [x for x in chain if x.right == OptionRight.PUT] contracts = sorted(sorted(contracts, \ key = lambda x: abs(chain.underlying.price - x.strike)), \ key = lambda x: x.expiry, reverse=True)[:5] # Select the contract with the delta closest to -0.5 contract = sorted(contracts, key=lambda x: abs(-0.5 - x.greeks.delta))[0]
You can also loop through the OptionChains
option_chains
property to get each OptionChain
.
public override void OnData(Slice slice) { // Iterate all received Canonical Symbol-OptionChain key-value pairs foreach (var kvp in slice.OptionChains) { var canoncialSymbol = kvp.Key; var chain = kvp.Value; var contracts = chain.Contracts; } }
def on_data(self, slice: Slice) -> None: # Iterate all received Canonical Symbol-OptionChain key-value pairs for canonical_symbol, chain in slice.option_chains.items(): contracts = chain.contracts
OptionChain
objects have the following properties:
Navigate Daily Option Chains
To get the daily, pre-calculated Greeks and implied volaility of all the currently tradable contracts, call the OptionChain
option_chain
method.
This method returns a collection of OptionUniverse
objects, where each object represents a contract.
This method returns a DataHistory[OptionUniverse]
object, which you can format into a DataFrame or iterate through.
Each row in the DataFrame and each OptionUniverse
object represents a single contract.
The data this method returns contains information on all the currently tradable contract, not just the contracts that pass your filter.
// In the initialize method, create a Scheduled Event to get the Option // chain and rebalance the portfolio. Schedule.On(DateRules.WeekStart(_symbol), TimeRules.AfterMarketOpen(_symbol, 1), Rebalance); public void Rebalance() { foreach (var optionUniverse in OptionChain(_symbol)) { var close = optionUniverse.Close; var oi = optionUniverse.OpenInterest; var delta = optionUniverse.Greeks.Delta; } }
# In the initialize method, create a Scheduled Event to get the Option # chain and rebalance the portfolio. self.schedule.on( self.date_rules.week_start(self._symbol), self.time_rules.after_market_open(self._symbol, 1), self._rebalance ) # Define the method. def _rebalance(self): daily_option_chain = self.option_chain(self._symbol, flatten=True) # Get the DataFrame format. df = daily_option_chain.data_frame delta_by_symbol = df.delta # Get the OptionUniverse objects format. for option_universe in daily_option_chain: close = option_universe.close oi = option_universe.open_interest delta = option_universe.greeks.delta
The OptionChain
option_chain
method was previously known as the OptionChainProvider.GetOptionContractList
option_chain_provider.get_option_contract_list
method.
OptionUniverse
objects have the following properties:
Greeks and Implied Volatility
There are several ways to get the implied volatility and Greeks of contracts.
The Greeks and IV values in the filter function are the daily, pre-calculated values based on the end of the previous trading day.
public override void Initialize() { var option = AddOption("SPY"); option.SetFilter(universe => universe.IncludeWeeklys().Delta(0.3m, 0.7m).Expiration(0, 7); }
def initialize(self): option = self.add_option("SPY") option.set_filter(lambda universe: universe.include_weeklys().delta(0.3, 0.7).expiration(0,7))
To calculate the values, we use our implementation of the forward tree pricing model, which accounts for the interest rate and dividend payments.
You can't customize the Greeks and IV values that the filter function receives. However, you can create indicators to customize how the Greeks and IV are calculated for the contracts already in your universe.
To override the default pricing model of the Option, set a pricing model. If you set a price model, it sets the price model of the individual contracts in the universe.
// Set PriceModel property to use the Crank-Nicolson finite-difference model to price the Options. option.PriceModel = OptionPriceModels.CrankNicolsonFD();
// Set price_model field to use the Crank-Nicolson finite-difference model to price the Options. option.price_model = OptionPriceModels.crank_nicolson_fd()
To override the initial guess of implied volatility, set and warm up the underlying volatility model.
Historical Data
To get historical chains for an Equity Option, call the History<OptionUniverse>
history[OptionUniverse]
method with the canonical Option Symbol
.
This method returns the entire Option chain for each trading day, not the subset of contracts that pass your universe filter.
public class OptionHistoryAlgorithm : QCAlgorithm { public override void Initialize() { SetStartDate(2020, 1, 1); var option = AddOption("SPY"); var history = History<OptionUniverse>(option.Symbol, 5); foreach (var chain in history) { var endTime = chain.EndTime; var filteredContracts = chain.Data .Select(contract => contract as OptionUniverse) .Where(contract => contract.Greeks.Delta > 0.3m); foreach (var contract in filteredContracts) { var price = contract.Price; var iv = contract.ImpliedVolatility; } } } }
class OptionHistoryAlgorithm(QCAlgorithm): def initialize(self): self.set_start_date(2020, 1, 1) option = self.add_option('SPY') # DataFrame example: history_df = self.history(option.symbol, 5, flatten=True) # OptionUniverse objects example: history = self.history[OptionUniverse](option.symbol, 5) for chain in history: end_time = chain.end_time filtered_contracts = [c for c in chain if c.greeks.delta > 0.3] for contract in filtered_contracts: symbol = contract.symbol expiry = contract.id.date strike = contract.id.strike_price price = contract.close iv = contract.implied_volatility
The Greeks and IV values that you get from a history request of the Option universe are the daily, pre-calculated values based on the end of the previous trading day. To get the intraday values or to customize the Greeks and IV calculations, create some Option indicators.
The History<OptionUniverse>
method represents each contract with an OptionUniverse
object, which have the following properties:
Examples
The following examples demonstrate some common Equity Option universes.
Example 1: 0DTE Contracts
0DTE Options are Option contracts that expire on the same day you trade them. The following algorithm selects 0DTE Option contracts for the SPY that fall within 3 strikes of the underlying price.
public class ZeroDTEOptionUniverseAlgorithm : QCAlgorithm { public override void Initialize() { var option = AddOption("SPY"); option.SetFilter(u => u.IncludeWeeklys().Expiration(0, 0).Strikes(-3, 3)); } }
class ZeroDTEOptionUniverseAlgorithm(QCAlgorithm): def initialize(self): option = self.add_option('SPY') option.set_filter(lambda u: u.include_weeklys().expiration(0, 0).strikes(-3, 3))
Other Examples
For more examples, see the following algorithms: