Price options according to the famous Black-Scholes formula, with the optional addition of a jump-to-default intensity and discrete dividends.
blackscholes(
  callput,
  S0,
  K,
  r,
  time,
  vola,
  default_intensity = 0,
  divrate = 0,
  borrow_cost = 0,
  dividends = NULL
)1 for calls, -1 for puts
initial underlying price
strike
risk-free interest rate
Time from 0 until expiration
Default-free volatility of the underlying
hazard rate of underlying default
A continuous rate for dividends and other cashflows such as foreign interest rates
A continuous rate for stock borrow costs
A data.frame with columns time, fixed,
and proportional.  Dividend size at the given time is
then expected to be equal to fixed + proportional * S / S0.  Fixed
dividends will be converted to proportional for purposes of this algorithm.
A list with elements
PriceThe present value(s)
DeltaSensitivity to underlying price
VegaSensitivity to volatility
Note that if the default_intensity is set larger than zero then
 put-call parity still holds.  Greeks are reduced according to cumulated default
 probability.
All inputs must either be scalars or have the same nonscalar shape.
Other European Options: 
black_scholes_on_term_structures(),
implied_volatilities_with_rates_struct(),
implied_volatilities(),
implied_volatility_with_term_struct(),
implied_volatility()
Other Equity Independent Default Intensity: 
american_implied_volatility(),
american(),
black_scholes_on_term_structures(),
equivalent_bs_vola_to_jump(),
equivalent_jump_vola_to_bs(),
implied_volatilities_with_rates_struct(),
implied_volatilities(),
implied_volatility_with_term_struct(),
implied_volatility()
# NOT RUN {
blackscholes(callput=-1, S0=100, K=90, r=0.03, time=1, # -1 is a PUT
             vola=0.5, default_intensity=0.07)
# }
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