public interface OptionPricingRemote
extends com.mathworks.toolbox.javabuilder.pooling.Poolable
OptionPricingRemote
class provides a Java RMI-compliant interface to
the M-functions from the files:
/Users/Siren/Desktop/option_pricing_package/american_call_baw.m /Users/Siren/Desktop/option_pricing_package/american_call_bin.m /Users/Siren/Desktop/option_pricing_package/american_call_bin_contpay.m /Users/Siren/Desktop/option_pricing_package/american_call_bin_partials.m /Users/Siren/Desktop/option_pricing_package/american_call_bin_propdiv.m /Users/Siren/Desktop/option_pricing_package/american_call_bjerkesun_stensland.m /Users/Siren/Desktop/option_pricing_package/american_call_futures_bin.m /Users/Siren/Desktop/option_pricing_package/american_call_futures_currcy_bin.m /Users/Siren/Desktop/option_pricing_package/american_call_onediv.m /Users/Siren/Desktop/option_pricing_package/american_call_perpetual.m /Users/Siren/Desktop/option_pricing_package/american_put_bin.m /Users/Siren/Desktop/option_pricing_package/american_put_johnson.m /Users/Siren/Desktop/option_pricing_package/asian_geom_avg_call.m /Users/Siren/Desktop/option_pricing_package/bermudan_put_bin.m /Users/Siren/Desktop/option_pricing_package/bs_call_partials.m /Users/Siren/Desktop/option_pricing_package/bs_european_call.m /Users/Siren/Desktop/option_pricing_package/bs_european_put.m /Users/Siren/Desktop/option_pricing_package/european_call_bin.m /Users/Siren/Desktop/option_pricing_package/european_call_contpay.m /Users/Siren/Desktop/option_pricing_package/european_call_div.m /Users/Siren/Desktop/option_pricing_package/european_call_futures.m /Users/Siren/Desktop/option_pricing_package/european_call_futures_currcy.m /Users/Siren/Desktop/option_pricing_package/european_call_loopback.m /Users/Siren/Desktop/option_pricing_package/european_call_merton.m /Users/Siren/Desktop/option_pricing_package/example.mThe
dispose()
method must be called on a
OptionPricingRemote
instance when it is no longer needed to ensure that
native resources allocated by this class are properly freed, and the server-side proxy
is unexported. (Failure to call dispose may result in server-side threads not being
properly shut down, which often appears as a hang.)
This interface is designed to be used together with
com.mathworks.toolbox.javabuilder.remoting.RemoteProxy
to automatically
generate RMI server proxy objects for instances of OptionPricing.OptionPricing.| Modifier and Type | Method and Description |
|---|---|
java.lang.Object[] |
american_call_baw(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_call_baw
M-function with 7 input arguments. |
java.lang.Object[] |
american_call_bin_contpay(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_call_bin_contpay M-function with 7 input arguments. |
java.lang.Object[] |
american_call_bin_partials(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_call_bin_partials M-function with 6 input arguments. |
java.lang.Object[] |
american_call_bin_propdiv(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_call_bin_propdiv M-function with 8 input arguments. |
java.lang.Object[] |
american_call_bin(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_call_bin
M-function with 6 input arguments. |
java.lang.Object[] |
american_call_bjerkesun_stensland(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_call_bjerkesun_stensland M-function with 6 input arguments. |
java.lang.Object[] |
american_call_futures_bin(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_call_futures_bin M-function with 6 input arguments. |
java.lang.Object[] |
american_call_futures_currcy_bin(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_call_futures_currcy_bin M-function with 7 input arguments. |
java.lang.Object[] |
american_call_onediv(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_call_onediv
M-function with 7 input arguments. |
java.lang.Object[] |
american_call_perpetual(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_call_perpetual M-function with 5 input arguments. |
java.lang.Object[] |
american_put_bin(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_put_bin
M-function with 6 input arguments. |
java.lang.Object[] |
american_put_johnson(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
american_put_johnson
M-function with 5 input arguments. |
java.lang.Object[] |
asian_geom_avg_call(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
asian_geom_avg_call
M-function with 6 input arguments. |
java.lang.Object[] |
bermudan_put_bin(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
bermudan_put_bin
M-function with 8 input arguments. |
java.lang.Object[] |
bs_call_partials(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
bs_call_partials
M-function with 5 input arguments. |
java.lang.Object[] |
bs_european_call(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
bs_european_call
M-function with 5 input arguments. |
java.lang.Object[] |
bs_european_put(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
bs_european_put
M-function with 5 input arguments. |
void |
dispose()
Frees native resources associated with the remote server object
|
java.lang.Object[] |
european_call_bin(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
european_call_bin
M-function with 6 input arguments. |
java.lang.Object[] |
european_call_contpay(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
european_call_contpay
M-function with 6 input arguments. |
java.lang.Object[] |
european_call_div(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
european_call_div
M-function with 7 input arguments. |
java.lang.Object[] |
european_call_futures_currcy(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
european_call_futures_currcy M-function with 6 input arguments. |
java.lang.Object[] |
european_call_futures(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
european_call_futures
M-function with 5 input arguments. |
java.lang.Object[] |
european_call_loopback(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
european_call_loopback M-function with 6 input arguments. |
java.lang.Object[] |
european_call_merton(int nargout,
java.lang.Object... rhs)
Provides the standard interface for calling the
european_call_merton
M-function with 9 input arguments. |
java.lang.Object[] |
example(java.lang.Object... rhs)
Provides the standard interface for calling the
example M-function
with 0 input argument. |
java.lang.Object[] american_call_baw(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_call_baw
M-function with 7 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Barone-Adesi and Whaley (1987) quadratic approximation to the price % of a call option. % % % Reference: % % Giovanni Barone-Adesi and Robert E. Whaley, % "Efficient analytic approximation of American option values", % Journal of Finance, 42(2):301-320, June 1987. % % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % X: exercise price % r: interest rate % b: dividend yield % sigma: volatility % time: time to maturity % accuracy: approximation accuracy % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_call_bin(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_call_bin
M-function with 6 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Price of American call option using a binomial approximation % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: interest rate % sigma: volatility % t: time to maturity % steps: number of steps in binomial tree % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_call_bin_contpay(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_call_bin_contpay
M-function with 7 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Binomial option price with continous payout from the underlying commodity % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: interest rate % y: continous payout % sigma: volatility % t: time to maturity % steps: number of steps in binomial tree % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_call_bin_partials(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_call_bin_partials
M-function with 6 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Hedge parameters for an American call option using a binomial tree % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercise price % r: interest rate % sigma: volatility % time: time to maturity % no_steps: number of steps in binomial tree % %-------------------------------------------------------------------------- % % OUTPUT: % % hedge.delta: partial with respect to S % hedge.gamma: second artial with respect to S % hedge.theta: partial with respect to time % hedge.vega: partial with respect to sigma % hedge.rho: partial with respect to r % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_call_bin_propdiv(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_call_bin_propdiv
M-function with 8 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Binomial price of stock option with an underlying stock that % pays proportional dividends % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: interest rate % sigma: volatility % time: time_to_maturity % no_steps: number of steps in binomial tree % dividend_times: periods when dividend is paid out % dividend_yields: dividend yields in each period % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_call_bjerkesun_stensland(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_call_bjerkesun_stensland
M-function with 6 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Approximation of American call due to Bjerksund and Stensland (1993) % % % Reference: % % Petter Bjerksund and Gunnar Stensland, % "Closed form approximations of american options", % Scandinavian Journal of Management, 20(5):761-764, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: interest rate % b: dividend yield % sigma: volatility % T: time to maturity % % This function uses phi1.m % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_call_futures_bin(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_call_futures_bin
M-function with 6 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Pricing an american call option on futures using a binomial approximation % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % F: price futures contract % K: exercise price % r: interest rate % sigma: volatility % time: time to maturity % no_steps: number of steps in binomial tree % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_call_futures_currcy_bin(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_call_futures_currcy_bin
M-function with 7 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Pricing a futures currency option using a binomial approximation % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: domestic interest rate % r_f: foreign interest rate % sigma: volatility % time: time to maturity % no_steps: number of steps in binomial tree % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_call_onediv(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_call_onediv
M-function with 7 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Roll (1977) - Geske (1979) - Whaley (1981) price of american call option % on a stock that pays one fixed-dividend % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: domestic interest rate % sigma: volatility % tau: time to maturity % D1: amount of dividend paid % tau1: time to dividend payment % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_call_perpetual(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_call_perpetual
M-function with 5 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Price for an american perpetual call option % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: interest rate % q: dividend yield % sigma: volatility % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_put_bin(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_put_bin
M-function with 6 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Price of American put using a binomial approximation % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: interest rate % sigma: volatility % t: time to maturity % steps: number of steps in binomial tree % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a put option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] american_put_johnson(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
american_put_johnson
M-function with 5 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Johnson (1983) approximation to an american put price % % % Reference: % % H. E. Johnson, % "An analytic approximation of the american put price", % Journal of Financial and Quantitative Analysis, 18(1):141-48, 1983. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % X: exercise price % r: interest rate % sigma: volatility % time: time to maturity % %-------------------------------------------------------------------------- % % OUTPUT: % % put_price: price of a put option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] asian_geom_avg_call(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
asian_geom_avg_call
M-function with 6 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Analytical price of an Asian geometric average price call by Kemma and % Vorst (1990) % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: interest rate % q: dividend yield % sigma: volatility % time: time to maturity % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] bermudan_put_bin(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
bermudan_put_bin
M-function with 8 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Binomial approximation to a Bermudan put option % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % X: exercise price % r: interest rate % q: dividend yield % sigma: volatility % time: time to maturity % potential_exercise_times: periods of potential option exercise % steps: number of steps in binomial tree % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] bs_call_partials(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
bs_call_partials
M-function with 5 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Partials of a European call option priced using Black-Scholes formula % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: Strike (exercise) price, % r: interest rate % sigma: volatility % time: time to maturity % %-------------------------------------------------------------------------- % % OUTPUT: % % hedge.Delta: partial with respect to S % hedge.Gamma: second partial derivative with respect to S % hedge.Theta: partial with respect to time % hedge.Vega: partial with respect to sigma % hedge.Rho: partial with respect to r % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] bs_european_call(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
bs_european_call
M-function with 5 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % European put option using Black-Scholes' formula % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: strike price % r: interest rate % sigma: volatility % time: time to maturity % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] bs_european_put(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
bs_european_put
M-function with 5 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % European put option using Black-Scholes' formula % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercise price % r: interest rate % sigma: volatility % time: time to maturity % %-------------------------------------------------------------------------- % % OUTPUT: % % put_price: price of a put option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] european_call_bin(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
european_call_bin
M-function with 6 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Call option price for binomial european % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: interest rate % sigma: volatility % t: time to maturity % steps: number of steps in binomial tree % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] european_call_contpay(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
european_call_contpay
M-function with 6 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Option price with continous payout from underlying asset % % % Reference: % % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % X: strike (exercise) price % r: interest rate % q: yield on underlying % sigma: volatility % time: time to maturity % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] european_call_div(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
european_call_div
M-function with 7 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % European option price with an underlying stock paying a discrete-time % dividend % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % K: exercice price % r: interest rate % y: continous payout % sigma: volatility % time_to_maturity: time to maturity % dividend_times: periods of dividend payment % dividend_amounts: amounts of dividend payment % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] european_call_futures(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
european_call_futures
M-function with 5 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Price of European call option on futures contract % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % F: futures price % K: exercise price % r: interest rate % sigma: volatility % time: time to maturity % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] european_call_futures_currcy(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
european_call_futures_currcy
M-function with 6 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % European futures call option on currency % % % Reference: % % John Hull, "Options, Futures and other Derivative Securities", % Prentice-Hall, second edition, 1993. % %-------------------------------------------------------------------------- % % INPUTS: % % S: exchange rate % X: exercise % r: domestic interest rate % r_f: foreign interest rate % sigma: volatility % time: time to maturity % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] european_call_loopback(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
european_call_loopback
M-function with 6 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Price of a European lookback call option by Goldman, Sosin and Gatto (1979) % % % Reference: % % M Barry Goldman, Howard B Sosin and Mary Ann Gatto, % "Path-dependent options: Buy at the low, sell at the high", % Journal of Finance, 34, December 1979. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % Smin: minimum spot price % r: interest rate % q: dividend yield % sigma: volatility % time: time to maturity % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] european_call_merton(int nargout, java.lang.Object... rhs) throws java.rmi.RemoteException
european_call_merton
M-function with 9 input arguments.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % % DESCRIPTION: % % Merton (1976) jump diffusion formula for a European call option % % % Reference: % Robert C. Merton, % "Option pricing when underlying stock returns are discontinous", % Journal of Financial Economics, 3:125-144, 1976. % %-------------------------------------------------------------------------- % % INPUTS: % % S: spot price % X: exercise price % r: interest rate % sigma: volatility % time_to_maturity: time to maturity % lambda: parameter of the jump distribution % kappa: parameter of the jump distribution % delta: parameter used to normalize volatility % maxn: terminal point of the infinite sum used in the % approximation of the option price % %-------------------------------------------------------------------------- % % OUTPUT: % % call_price: price of a call option % %-------------------------------------------------------------------------- % % Author: Paolo Z., February 2012 % %--------------------------------------------------------------------------
nargout
- Number of outputs to return.rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
java.lang.Object[] example(java.lang.Object... rhs) throws java.rmi.RemoteException
example
M-function
with 0 input argument.
Input arguments to standard interface methods may be passed as sub-classes of
com.mathworks.toolbox.javabuilder.MWArray
, or as arrays of any
supported Java type (i.e. scalars and multidimensional arrays of any numeric,
boolean, or character type, or String). Arguments passed as Java types are
converted to MATLAB arrays according to default conversion rules.
All inputs to this method must implement either Serializable (pass-by-value) or
Remote (pass-by-reference) as per the RMI specification.
M-documentation as provided by the author of the M function:
%-------------------------------------------------------------------------- % Barone-Adesi and Whaley (1987) quadratic approximation to the price % of a call option.
rhs
- The inputs to the M function.com.mathworks.toolbox.javabuilder.MWArray
.
Each output array should be freed by calling its dispose()
method.java.jmi.RemoteException
- An error has occurred during the function call or
in communication with the server.java.rmi.RemoteException
void dispose() throws java.rmi.RemoteException
java.rmi.RemoteException


Shriya Nandwani is a junior at
Archbishop Mitty High School. The fields of computer science and entrepreneurship hold her interests.  Shriya knows that she wants to make a differenvce in the world!
Jayna Dave is an incoming junior at Mountain View High School. She loves to play tennis, dance, bake, and code. She likes to spend her time playing with her cats, and watch tennis matches with her dad.
Jasleen Kaur is a rising senior at Granada Hills Charter High School. She loves to play basketball with her friends, along with singing and dancing. She volunteers every week, teaching kids Punjabi and helping out at the food pantry. She loves to code as well.
Trisha Wasson is a rising
senior at Mission San Jose High School. Her friends describe her as an outgoing person who is
funny and really fun to be around. She loves to swim, draw, volunteer helping kids, hangout with my friends. But the most amusing thing to her is being able to code whenever she gets to.


"""
Construction of the Rapidely Exploring Random Tree
"""
from collections import deque
import matplotlib.pyplot as plt
import numpy as np
from dubins import Dubins, dist
[docs]class Node:
"""
Node of the rapidly exploring random tree.
Attributes
----------
destination_list : list
The reachable nodes from the current one.
position : tuple
The position of the node.
time : float
The instant at which this node is reached.
cost : float
The cost needed to reach this node.
"""
def __init__(self, position, time, cost):
self.destination_list = []
self.position = position
self.time = time
self.cost = cost
[docs]class Edge:
"""
Edge of the rapidly exploring random tree.
Attributes
----------
node_from : tuple
Id of the starting node of the edge.
node_to : tuple
Id of the end node of the edge.
path : list
The successive positions yielded by the local planner representing the
path between the nodes.
cost : float
Cost associated to the transition between the two nodes.
"""
def __init__(self, node_from, node_to, path, cost):
self.node_from = node_from
self.node_to = node_to
self.path = deque(path)
self.cost = cost
[docs]class RRT:
"""
Class implementing a Rapidely Exploring Random Tree in two dimensions using
dubins paths as an expansion method. The state space considered here is
straightforward, as every state can be represented by a simple tuple made
of three continuous variables: (x, y, psi)
Attributes
----------
nodes : dict
Dictionnary containing all the nodes of the tree. The keys are hence
simply the reached state, i.e. tuples of the form (x, y, psi).
environment : Environment
Instance of the Environment class.
goal_rate : float
The frequency at which the randomly selected node is choosen among
the goal zone.
precision : tuple
The precision needed to stop the algorithm. In the form
(delta_x, delta_y, delta_psi).
goal : tuple
The position of the goal (the center of the goal zone), in the form of
a tuple (x, y, psi).
root : tuple
The position of the root of the tree, (the initial position of the
vehicle), in the form of a tuple (x, y, psi).
local_planner : Planner
The planner used for the expansion of the tree, here it is a Dubins
path planner.
Methods
-------
in_goal_region
Method helping to determine if a point is within a goal region or not.
run
Executes the algorithm with an empty graph, which needs to be
initialized with the start position at least before.
plot_tree
Displays the RRT using matplotlib.
select_options
Explores the existing nodes of the tree to find the best option to grow
from.
"""
def __init__(self, environment, precision=(5, 5, 1)):
self.nodes = {}
self.edges = {}
self.environment = environment
self.local_planner = Dubins(4, 1)
self.goal = (0, 0, 0)
self.root = (0, 0, 0)
self.precision = precision
[docs] def set_start(self, start):
"""
Resets the graph, and sets the start node as root of the tree.
Parameters
----------
start: tuple
The initial position (x, y, psi), used as root.
"""
self.nodes = {}
self.edges = {}
self.nodes[start] = Node(start, 0, 0)
self.root = start
[docs] def run(self, goal, nb_iteration=100, goal_rate=.1, metric='local'):
"""
Executes the algorithm with an empty graph, initialized with the start
position at least.
Parameters
----------
goal : tuple
The final requested position (x, y, psi).
nb_iteration : int
The number of maximal iterations (not using the number of nodes as
potentialy the start is in a region of unavoidable collision).
goal_rate : float
The probability to expand towards the goal rather than towards a
randomly selected sample.
metric : string
One of 'local' or 'euclidian'.
The method used to select the closest node on the tree from which a
path will be grown towards a sample.
Notes
-----
It is not necessary to use several nodes to try and connect a sample to
the existing graph; The closest node only could be choosen. The notion
of "closest" can also be simpy the euclidian distance, which would make
the computation faster and the code a simpler, this is why several
metrics are available.
"""
assert len(goal) == len(self.precision)
self.goal = goal
for _ in range(nb_iteration):
# Select sample : either the goal, or a sample of free space
if np.random.rand() > 1 - goal_rate:
sample = goal
else:
sample = self.environment.random_free_space()
# Find the closest Node in the tree, with the selected metric
options = self.select_options(sample, 10, metric)
# Now that all the options are sorted from the shortest to the
# longest, we can try to connect one node after the other. We stop
# after 20 in order to reduce the number of computations.
for node, option in options:
if option[0] == float('inf'):
break
path = self.local_planner.generate_points(node,
sample,
option[1],
option[2])
for i, point in enumerate(path):
if not self.environment.is_free(point[0],
point[1],
self.nodes[node].time+i):
break
else:
# Adding the node
# To compute the time, we use a constant speed of 1 m/s
# As the cost, we use the distance
self.nodes[sample] = Node(sample,
self.nodes[node].time+option[0],
self.nodes[node].cost+option[0])
self.nodes[node].destination_list.append(sample)
# Adding the Edge
self.edges[node, sample] = \
Edge(node, sample, path, option[0])
if self.in_goal_region(sample):
return
break
[docs] def select_options(self, sample, nb_options, metric='local'):
"""
Chooses the best nodes for the expansion of the tree, and returns
them in a list ordered by increasing cost.
Parameters
----------
sample : tuple
The (x, y, psi) coordinates of the node we wish to connect to the
tree.
nb_options : int
The number of options requested.
metric : str
One of 'local', 'euclidian'. The euclidian metric is a lot faster
but is also less precise and can't be used with an RRT star.
Returns
-------
options : list
Sorted list of the options, by increasing cost.
"""
if metric == 'local':
# The local planner is used to measure the real distance needed
options = []
for node in self.nodes:
options.extend(
[(node, opt)\
for opt in self.local_planner.all_options(node, sample)])
# sorted by cost
options.sort(key=lambda x: x[1][0])
options = options[:nb_options]
else:
# Euclidian distance as a metric
options = [(node, dist(node, sample)) for node in self.nodes]
options.sort(key=lambda x: x[1])
options = options[:nb_options]
new_opt = []
for node, _ in options:
db_options = self.local_planner.all_options(node, sample)
new_opt.append((node, min(db_options, key=lambda x: x[0])))
options = new_opt
return options
[docs] def in_goal_region(self, sample):
"""
Method to determine if a point is within a goal region or not.
Parameters
----------
sample : tuple
(x, y, psi) the position of the point which needs to be tested.
"""
for i, value in enumerate(sample):
if abs(self.goal[i]-value) > self.precision[i]:
return False
return True
[docs] def plot(self, file_name='', close=False, nodes=False):
"""
Displays the tree using matplotlib, on a currently open figure.
Parameters
----------
file_name : string
The name of the file used to save an image of the tree.
close : bool
If the plot needs to be automaticaly closed after the drawing.
nodes : bool
If the nodes need to be displayed as well.
"""
if nodes and self.nodes:
nodes = np.array(list(self.nodes.keys()))
plt.scatter(nodes[:, 0], nodes[:, 1])
plt.scatter(self.root[0], self.root[1], c='g')
plt.scatter(self.goal[0], self.goal[1], c='r')
for _, val in self.edges.items():
if val.path:
path = np.array(val.path)
plt.plot(path[:, 0], path[:, 1], 'r')
if file_name:
plt.savefig(file_name)
if close:
plt.close()
[docs] def select_best_edge(self):
"""
Selects the best edge of the tree among the ones leaving from the root.
Uses the number of children to determine the best option.
Returns
-------
edge :Edge
The best edge.
"""
node = max([(child, self.children_count(child))\
for child in self.nodes[self.root].destination_list],
key=lambda x: x[1])[0]
best_edge = self.edges[(self.root, node)]
# we update the tree to remove all the other siblings of the old root
for child in self.nodes[self.root].destination_list:
if child == node:
continue
self.edges.pop((self.root, child))
self.delete_all_children(child)
self.nodes.pop(self.root)
self.root = node
return best_edge
[docs] def delete_all_children(self, node):
"""
Removes all the nodes of the tree below the requested node.
"""
if self.nodes[node].destination_list:
for child in self.nodes[node].destination_list:
self.edges.pop((node, child))
self.delete_all_children(child)
self.nodes.pop(node)
[docs] def children_count(self, node):
"""
Not optimal at all as it recounts a lot of the tree every time a path
needs to b selected.
"""
if not self.nodes[node].destination_list:
return 0
total = 0
for child in self.nodes[node].destination_list:
total += 1 + self.children_count(child)
return total


|
|||||||||
| PREV CLASS NEXT CLASS | FRAMES NO FRAMES | ||||||||
| SUMMARY: NESTED | FIELD | CONSTR | METHOD | DETAIL: FIELD | CONSTR | METHOD |
public interface SchemaLocalAttribute
Represents a local or global attribute definition.
| Field Summary | |
|---|---|
static int |
OPTIONAL
An optional attribute. |
static int |
PROHIBITED
A prohibited attribute. |
static int |
REQUIRED
A required attribute. |
| Method Summary | |
|---|---|
int |
getUse()
Returns PROHIBITED , OPTIONAL , or REQUIRED . |
| Methods inherited from interface org.apache.xmlbeans.SchemaField |
|---|
getDefaultText, getDefaultValue, getMaxOccurs, getMinOccurs, getName, getType, getUserData, isAttribute, isDefault, isFixed, isNillable |
| Methods inherited from interface org.apache.xmlbeans.SchemaAnnotated |
|---|
getAnnotation |
| Field Detail |
|---|
static final int PROHIBITED
getUse()
.
static final int OPTIONAL
getUse()
.
static final int REQUIRED
getUse()
.
| Method Detail |
|---|
int getUse()
PROHIBITED
, OPTIONAL
, or REQUIRED
.
(Actually, never returns PROHIBITED because the schema specificaion
states that a prohibited attribute is equivalent to no attribute
at all, so a prohibited attribute will never be present in the compiled
model.)
|
|||||||||
| PREV CLASS NEXT CLASS | FRAMES NO FRAMES | ||||||||
| SUMMARY: NESTED | FIELD | CONSTR | METHOD | DETAIL: FIELD | CONSTR | METHOD |


The study is to develop and implement
“MERSy: Mobile-based Emergency Response System”
to help the constituents of Olongapo City
have an effective and convenient way
of reporting emergency cases and incidents.
The proposed system aims to carry out the following:
1. A mobile-based safety, medical, and fire service reporting system
that will not offer crime tip submittals through text, but also through video, audio, images, and surely with anonymity capabilities.
about 2. A system that is accessible both online and offline.
about 3. A system that will attend to all the emergency reports.
about 4. A system that has an emergency mass notification system feature to be able to broadcast the messages to the users, alerting them of a pending or existing emergency.
about 5. A system that has a distress alert or panic button that will submit the user’s information and current location to contact police, medics, and fire department without dialing any emergency number(s).


char * TextSearchInSTring( const char *str1, conat char *startPtr, const char *endPtr, word strSize, const char *str2, word str2Size, word searchOptions, word *matchLen);
This routine searches in a single text chunk for a passed text string. If a match is found, a pointer to that match (and the length of the match) are returned in passed buffers.
str1 is a pointer to the main string you will be searching in.
startPtr and endPtr are pointers to locations within str1 to begin and end the search.
strSize stores the size of str1 , or zero if null-terminated.
str2
stores the match string, which may include wildcards (type
WildCard
).
str2Size stores the size of str2 , or zero if null-terminated.
searchOptions
stores the
SearchOptions
to use by the search mechanism. The high byte should be zeroed.
matchLen stores a buffer to store the size of the matched word. (The matched word itself is returned by the routine.)
Include: Objects/vTextC.goh
dword TextSearchInSTring( char *str2, word str2Size, dword str1Size, dword curOffset, dword endOffset, FileHandle hugeArrayFile, VMBlockHandle hugeArrayBlock, word searchOptions, word *matchLen);
This routine searches in a huge array for a passed text string. If a match is found, a dword offset to the match (and the length of the match) are returned in passed buffers.
str2
stores the match string, which may include wildcards (type
WildCard
).
str2Size stores the size of str2 , or zero if null-terminated.
str1Size stores the total length of the string being searched.
curOffset stores the offset from the start of str1 to the first character to check.
endOffset stores the offset from the start of str1 to the last character to check.
hugeArrayFile stores the file handle of the huge array.
hugeArrayBlock stores the VM block handle of the huge array.
searchOptions
stores the
SearchOptions
to use by the search mechanism. The high byte should be zeroed.
matchLen stores a buffer to store the size of the matched word. (The matched word itself is returned by the routine.)
Include: Objects/vTextC.goh
byte TGI_PRIORITY(val); word val;
This macro extracts the thread priority from the value returned by
ThreadGetInfo()
.
byte TGI_RECENT_CPU_USAGE(val); word val;
This macro extracts the recent CPU usage from the value returned by
ThreadGetInfo()
.
SemaphoreHandle ThreadAllocSem( word value); /* allowable locks on the semaphore */
This routine allocates and initializes a new semaphore for private use by a multithreaded application. Pass the value with which to initialize the semaphore; this value represents the number of threads that can grab the semaphore before other grab attempts will block. Typically, the passed value will be one. The routine returns the handle of the new semaphore.
Include: sem.h
See Also: ThreadPSem()
,
ThreadVSem()
,
ThreadFreeSem()
,
ThreadPTimedSem()
.
ThreadLockHandle ThreadAllocThreadLock();
This routine allocates a special semaphore called a thread lock. With a normal semaphore, a thread that grabs the semaphore twice without releasing it will deadlock; with a thread lock, a thread can grab it more than once in succession. The thread has to release it once for each time it grabs the thread lock, however.
In all other aspects, however, the thread lock resembles a normal semaphore.
ThreadAllocThreadLock()
returns the handle of the new thread lock.
Include: sem.h
See Also: ThreadGrabThreadLock()
,
ThreadReleaseThreadLock()
.


Command-line Interface
Login
The CLI needs to be logged on in order to create gateways, applications, devices and API keys. With the stack running in one terminal session, login with the following command:
$ ttn-lw-cli login
This will open the OAuth login page where you can login with your credentials. Once you logged in in the browser, return to the terminal session to proceed.

Create gateway
First, list the available frequency plans:
$ ttn-lw-cli gateways list-frequency-plans
Then, create the first gateway with the chosen frequency plan:
$ ttn-lw-cli gateways create gtw1 \
--user-id admin \
--frequency-plan-id EU_863_870 \
--gateway-eui 00800000A00009EF \
--enforce-duty-cycle
This creates a gateway gtw1
with user admin
as collaborator, frequency plan EU_863_870
, EUI 00800000A00009EF
and respecting duty-cycle limitations. You can now connect your gateway to the stack.
Note: The CLI returns the created and updated entities by default in JSON. This can be useful in scripts.
Create application
Create the first application:
$ ttn-lw-cli applications create app1 --user-id admin
This creates an application app1
with the admin
user as collaborator.
Devices are created within applications.
Link application
In order to send uplinks and receive downlinks from your device, you must link the Application Server to the Network Server. In order to do this, create an API key for the Application Server:
$ ttn-lw-cli applications api-keys create \
--name link \
--application-id app1 \
--right-application-link
The CLI will return an API key such as NNSXS.VEEBURF3KR77ZR...
. This API key has only link rights and can therefore only be used for linking.
You can now link the Application Server to the Network Server:
$ ttn-lw-cli applications link set app1 --api-key NNSXS.VEEBURF3KR77ZR..
Your application is now linked. You can now use the builtin MQTT server and webhooks to receive uplink traffic and send downlink traffic.
Create end device
First, list the available frequency plans and LoRaWAN versions:
$ ttn-lw-cli end-devices list-frequency-plans
$ ttn-lw-cli end-devices create --help
Over-the-air-activation (OTAA) device
To create an end device using over-the-air-activation (OTAA):
$ ttn-lw-cli end-devices create app1 dev1 \
--dev-eui 0004A30B001C0530 \
--app-eui<PHONE_NUMBER>00000C \
--frequency-plan-id EU_863_870 \
--root-keys.app-key.key 752BAEC23EAE7964AF27C325F4C23C9A \
--lorawan-version 1.0.3 \
--lorawan-phy-version 1.0.3-a
This will create a LoRaWAN 1.0.3 end device dev1
in application app1
with the EU_863_870
frequency plan.
The end device should now be able to join the private network.
Note: The
AppEUI
is returned asjoin_eui
(V3 uses LoRaWAN 1.1 terminology).Hint: You can also pass
--with-root-keys
to have root keys generated.
Activation by personalization (ABP device)
It is also possible to register an ABP activated device using the --abp
flag as follows:
$ ttn-lw-cli end-devices create app1 dev2 \
--frequency-plan-id EU_863_870 \
--lorawan-version 1.0.3 \
--lorawan-phy-version 1.0.3-a \
--abp \
--session.dev-addr 00E4304D \
--session.keys.app-s-key.key A0CAD5A30036DBE03096EB67CA975BAA \
--session.keys.nwk-s-key.key B7F3E161BC9D4388E6C788A0C547F255
Note: The
NwkSKey
is returned asf_nwk_s_int_key
(TTN Stack uses LoRaWAN 1.1 terminology).Hint: You can also pass
--with-session
to have a session generated.
Working with data
With your TTN Stack setup, a gateway connected and a device registered on your network, it’s time to start working with data.
Learn how to work with the builtin MQTT server and HTTP webhooks.


UK BOE Interest Rates %
Release Date
Market Expectation
Kshitij Expectation
Previous
Announced
2-Nov-17
0.50
-
0.25
0.50
14-Dec-17
0.50
-
0.50
0.50
8-Feb-18
0.50
-
0.50
0.50
22-Mar-18
-
-
0.50
-
Copyright:
Kshitij Consultancy Services


Get advice from an architect<PHONE_NUMBER>
You found 28,732 house plans!
To narrow down your search at our state- of-the-art advanced search platform, simply select the desired house plan features in the given categories, like – the plan type, number of bedrooms & baths, levels/stories, foundations, building shape, lot characteristics, interior features, exterior features, etc. Each time you select a feature in any of these categories, we display all the house plans matching your needs.
What a retired couple will want is different than what a newly-wed couple will need. Determine what these priorities are before looking for your floor plan.
Consider a U-shape or L-shape design if you’re looking for overall lot privacy, or an open floor plan if you want to share your space.
Different environments need different plans – a house situated on wetlands or hilly areas will call for a house plan that accommodates this land status.
Decide how many levels your home will need to have based on your vision, but stay open.
One of the most significant and consistent reasons why thousands of homeowners search on Monster House Plans is because of cost.
You know you’d like to be in charge of your dream home’s design, but starting the process from scratch with an architect or designer feels like a hefty commitment – especially when it comes to your budget.
But what if you could start with a specific floor plan, chosen by you, and then work with an architect or designer to help guide you through the process?
When you buy a house plan online, you have extensive and detailed search parameters that can help you narrow down your design choices.
Add to this the fact that you can customize plans through our intelligent 3D modeling and optional add-ons, and you have the chance to build a truly custom home – on a budget!
With Monster House Plans, you can focus on the designing phase of your dream home construction. You’re not waiting on an architect to draw up your plans, and you’re not spending time going back and forth on tweaks, consults, and changes.
Instead, you’re the one who gets to choose the features you want. You can take your time when selecting your plans, then consulting with our architects and design teams on the safety and viability of your home plan for your land status.
Then you can move on to the construction phase. You’re never at risk of interrupting a construction schedule with unexpected or ongoing changes.
Even if you’re planning on working with an architect, online home plans give you a starting point for your dream home’s design.
It’s fine to envision several features you’ve always wanted – but this can be incredibly overwhelming. Your journey with designing your own home may take a couple of months, but it helps to start with clear plans.
Having a library of house plans to choose from can help you have that clear starting point. From here, you can get clear on what features and rooms are non-negotiables and which are "nice to have."


Bank Account
Register your account
Name:
Initial deposit:
Submit
Deposit or withdraw funds
Deposit
Withdraw


--- layout: post title: "10 Android Apps Earn Money" author: Team Andrimo categories: [ Android Basics ] image: assets/images/android-apps-earn-money.jpg css: main.scss ---


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Hello everyone!! I am in need of a little help here. I would like to see if anyone can help me on a character build.. I'm not great on building a tank of a character, but I would like to play one..
What I'm looking for is a Drow or 1/2 Drow Fighter/Mage (or Sorcerer) Dual Weapons (Scimitars)
Oh yea the server I will be useing this character on has a level limit of 30 level with very low magic. Thanks in advance. _________________ Appearance2da
Edited By DM-Taino on 05/15/06 04:10
I wouldn't go for a fighter/mage with only 30 levels, spellswords really need 40 levels. _________________ Two wrongs don't make a right but three lefts do.
Also for got to add No Dev. Crit... Okay maybe any other suggestion, that I can go with? _________________ Appearance2da
*Bumps* Anyone?.. How about Fighter/Rouge??? _________________ Appearance2da
Fighter/mage won't be a tank (lower hitpoints, can't cast spells in heavy armor, stat focus splits between three abilities), and as noted, spellswords need a lot of levels.
Dualwielding scimitars is a bad idea, since they are non-finessable long blades - meaning that you need a 15 dex for ambidexterity but can't be a dex build (wasting points there) and suffer a -4 dualwielding penalty to your AB for both weapons. _________________ Experience is the mother of good judgement; bad judgement is the father of experience.
You can build a decent spellsword with 30 levels, IMO. The key is not to be obsessed with getting 4 attacks. If you're willing ot accept only 3 attacks, you can grab decent spellcasting levels and Autostill III. _________________ Where I'm playing now: World of Greyhawk.


|
FuelSDK-CSharp
|
Client interface class which manages the authentication process More...
Classes | |
| class | RefreshState |
Public Member Functions | |
| ETClient (string jwt) | |
| ETClient (NameValueCollection parameters=null, RefreshState refreshState=null) | |
| void | RefreshToken (bool force=false) |
| FuelReturn | AddSubscribersToList (string emailAddress, string subscriberKey, IEnumerable< int > listIDs) |
| FuelReturn | AddSubscribersToList (string emailAddress, IEnumerable< int > listIDs) |
| FuelReturn | CreateDataExtensions (ETDataExtension[] dataExtensions) |
Public Attributes | |
| const string | SDKVersion = "FuelSDX-C#-v1.0.0" |
Protected Member Functions | |
| FuelReturn | ProcessAddSubscriberToList (string emailAddress, string subscriberKey, IEnumerable< int > listIDs) |
Properties | |
| string | AuthToken [get] |
| SoapClient | SoapClient [get] |
| string | InternalAuthToken [get] |
| string | RefreshKey [get] |
| DateTime | AuthTokenExpiration [get] |
| JObject | Jwt [get] |
| string | EnterpriseId [get] |
| string | OrganizationId [get] |
| string | Stack [get] |
Client interface class which manages the authentication process


Biography
Education
-
Sep, 2014 - Present
Master at Computer Science, Shanghai Jiao Tong University
(Expected Graduation: Mar, 2017)
-
Sep, 2010 - June, 2014
Bachelar at Computer Science, Centrol South University
Workding Experience
-
Mar, 2015 - Jan, 2016
Software Development Engineer Intern at TouchPal
Focus on big data, through Hadoop and its eco-system(HBase, Pig, etc.) and Spark.
-
A off-line data process platform. (Hadoop + Hbase)
Using Hadoop Streaming to computing, Hbase to store historical data, including Python, Pig, MapReduce.
-
A real-time data process platform.(Kafka + Spark + Cassandra)
Let Kafka be the input source of data, start a Spark Streaming job to get Dstream from Kafka, insert into Cassandra to discard some reduplicative record and backup all records. Another job gets the data newly inserted from Cassandra and make a statistic every an interval. Finally, update the total statistic. For more detail, see the Real Time Data Process Platform.
-
Project of TouchPal Internship Hackathon 2015
We have 24 hours to develop an AI to play a game named Battle Line. Finally our team get the second place of seven teams. For more detail and source code, please see the Battleline-AI.
-
-
Sep, 2014 - Jan, 2016
Teaching Assistant of Database, Python at Shanghai Jiao Tong University
Skills
- Program Laguage: Python, Java, Scala
- Focus On: Big Data Process, Hadoop Eco-System And Spark
- A Little About: Machine Learning
- Operating System: Linux/Unix


Details
-
Type: Bug
-
Status: Resolved
-
Priority: Major
-
Resolution: Fixed
-
Affects Version/s: current
-
Fix Version/s: None
-
Labels:
-
Environment:Jenkins ver. 1.449
Description
We have Jenkins setup to use only HTTPS port with arguments "--httpPort=-1 --httpsPort=8080" that starts server with self signed certificate.
Using web browser is all ok but when connecting with jenkins-cli.jar it fails due to hostname not being the same as server actual hostname.
Steps to reproduce (using bash):
JENKINS_HOST=foo.bar.host JENKINS_PORT=8080 JENKINS_URL=https://${JENKINS_HOST}:${JENKINS_PORT} # Get HTTPS certificate for java openssl s_client -connect ${JENKINS_HOST}:${JENKINS_PORT} </dev/null | sed -ne '/-BEGIN CERTIFICATE-/,/-END CERTIFICATE-/p' > ${JENKINS_HOST}.cer keytool -import -noprompt -trustcacerts -alias ${JENKINS_HOST} -file ${JENKINS_HOST}.cer -keystore myKeystore -storepass 123456 keytool -list -v -keystore myKeystore -storepass 123456 # Get jenkins-cli wget --no-check-certificate ${JENKINS_URL}/jnlpJars/jenkins-cli.jar # Test access alias jcli="java -Djavax.net.ssl.trustStore=myKeystore -Djavax.net.ssl.trustStorePassword=123456 -jar jenkins-cli.jar -s ${JENKINS_URL,,}" jcli help
Error displayed:
Exception in thread "main" java.io.IOException: Failed to connect to https://foo.bar.host:8080/ at hudson.cli.CLI.getCliTcpPort(CLI.java:211) at hudson.cli.CLI.<init>(CLI.java:115) at hudson.cli.CLI._main(CLI.java:375) at hudson.cli.CLI.main(CLI.java:314) Caused by: javax.net.ssl.SSLHandshakeException: java.security.cert.CertificateException: No name mat ching localhost found at com.sun.net.ssl.internal.ssl.Alerts.getSSLException(Unknown Source) at com.sun.net.ssl.internal.ssl.SSLSocketImpl.fatal(Unknown Source) at com.sun.net.ssl.internal.ssl.Handshaker.fatalSE(Unknown Source) at com.sun.net.ssl.internal.ssl.Handshaker.fatalSE(Unknown Source) at com.sun.net.ssl.internal.ssl.ClientHandshaker.serverCertificate(Unknown Source) at com.sun.net.ssl.internal.ssl.ClientHandshaker.processMessage(Unknown Source) at com.sun.net.ssl.internal.ssl.Handshaker.processLoop(Unknown Source) at com.sun.net.ssl.internal.ssl.Handshaker.process_record(Unknown Source) at com.sun.net.ssl.internal.ssl.SSLSocketImpl.readRecord(Unknown Source) at com.sun.net.ssl.internal.ssl.SSLSocketImpl.performInitialHandshake(Unknown Source) at com.sun.net.ssl.internal.ssl.SSLSocketImpl.startHandshake(Unknown Source) at com.sun.net.ssl.internal.ssl.SSLSocketImpl.startHandshake(Unknown Source) at sun.net.www.protocol.https.HttpsClient.afterConnect(Unknown Source) at sun.net.www.protocol.https.AbstractDelegateHttpsURLConnection.connect(Unknown Source) at sun.net.www.protocol.https.HttpsURLConnectionImpl.connect(Unknown Source) at hudson.cli.CLI.getCliTcpPort(CLI.java:209) ... 3 more Caused by: java.security.cert.CertificateException: No name matching localhost found at sun.security.util.HostnameChecker.matchDNS(Unknown Source) at sun.security.util.HostnameChecker.match(Unknown Source) at com.sun.net.ssl.internal.ssl.X509TrustManagerImpl.checkIdentity(Unknown Source) at com.sun.net.ssl.internal.ssl.X509TrustManagerImpl.checkServerTrusted(Unknown Source) ... 15 more
I think the root cause is related to how the self-certificate is being generated that should be using the machine actual hostname in the CN part instead of "Test site":
Owner: CN=Test site, OU=Unknown, O=Unknown, C=Unknown Issuer: CN=Test site, OU=Unknown, O=Unknown, C=Unknown
This bit me today as well, glad I'm not the only one with these issues. I think the better option would be for jenkins-cli to actually support self-signed certificates, since most installations will have that by default.
Kohsuke Kawaguchi is there any way I could beg for that option?


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Mum admits murdering son, 2, and baby daughter found dead in their car seats
Brittany Velasquez was due to stand trial next month, but agreed a plea deal with prosecutors over the deaths of Christopher and Brooklyn
by Kelly-Ann Mills, https://www.facebook.com/dailymirror/A mother has dramatically admitted murdering her two children after they were found dead in their car seats.
Brittany Velasquez was due to stand trial next month but accepted a plea deal with prosecutors over the deaths of Christopher and Brooklyn.
The 22-year-old mum is said to have left two-year-old son Christopher and 10-month-old daughter Brooklyn in a car outside her home in Arizona, USA on March 26, last year.
A coroner ruled both died of exposure.
Their mother admitted second-degree murder and is due to be sentenced in February next year.
She had been widowed just nine months before her children's deaths.
Pinal Deputy County Attorney Shawn Jensvold tells People, in the US: "She agreed to a stipulated term of 20 years flat followed by lifetime probation.
"She won’t be eligible for early release."
Velasquez had been investigated by the Arizona Department of Child Safety (DCS) twice for alleged neglect, and local police visited the house multiple times over the years, local media reported.
The DCS confirmed they received two reports of alleged neglect but found no evidence of abuse.
The first call came in October 2016, when the department received a report alleging that Velasquez would leave her son home with her mother for long periods of time.
A spokesman said: “The child was seen on multiple occasions during the investigation.
"The DCS investigator concluded there were no indications the child was being abused or neglected and there were no legal grounds to remove the child."
The case was eventually closed after local authorities visited the children’s grandmother’s home and found no evidence a child had been harmed.
In January she was reported again for leaving the children with her mother, while she worked.
The DCS spokesman added: "We searched Velasquez’s apartment, enrolled her in a home visitation program, signed the children up for daycare at no extra cost and determined that there were no signs of abuse or neglect."


|
Max API
8.2.0
|
Typedefs | |
| typedef struct _jfont | t_jfont |
| An instance of a jgraphics font. | |
Enumerations | |
| enum | t_jgraphics_font_slant { JGRAPHICS_FONT_SLANT_NORMAL , JGRAPHICS_FONT_SLANT_ITALIC } |
| Enumeration of slanting options for font display. More... | |
| enum | t_jgraphics_font_weight { JGRAPHICS_FONT_WEIGHT_NORMAL , JGRAPHICS_FONT_WEIGHT_BOLD } |
| Enumeration of font weight options for font display. More... | |
Functions | |
| t_jfont * | jfont_create (const char *family, t_jgraphics_font_slant slant, t_jgraphics_font_weight weight, double size) |
| Create a new font object. More... | |
| t_jfont * | jfont_create_withstylename (const char *family, const char *stylename, double size) |
| Create a new font object using a style instead of style flags. More... | |
| t_jfont * | jfont_reference (t_jfont *font) |
| Create new reference to an existing font object. More... | |
| void | jfont_destroy (t_jfont *font) |
| Release or free a font object. More... | |
| long | jfont_isequalto (t_jfont *font, t_jfont *other) |
| Compare two fonts to see if they are equivalent. More... | |
| void | jfont_set_family (t_jfont *font, t_symbol *family) |
| Set the name of the font family (e.g. More... | |
| t_symbol * | jfont_get_family (t_jfont *font) |
| Get the name of the font family (e.g. More... | |
| void | jfont_set_style (t_jfont *font, t_symbol *style) |
| Set the style of a font family (e.g. More... | |
| t_symbol * | jfont_get_style (t_jfont *font) |
| Get the style of the given font (e.g. More... | |
| void | jfont_set_slant (t_jfont *font, t_jgraphics_font_slant slant) |
| Set the slant of the font. More... | |
| t_jgraphics_font_slant | jfont_get_slant (t_jfont *font) |
| Get the slant of the font. More... | |
| void | jfont_set_weight (t_jfont *font, t_jgraphics_font_weight weight) |
| Set the weight of the font. More... | |
| t_jgraphics_font_weight | jfont_get_weight (t_jfont *font) |
| Get the weight of the font. More... | |
| void | jfont_set_font_size (t_jfont *font, double size) |
| Set the size of a font object. More... | |
| double | jfont_get_font_size (t_jfont *font) |
| Get the size of a font object. More... | |
| void | jfont_set_underline (t_jfont *font, char ul) |
| Set the underlining of a font object. More... | |
| char | jfont_get_underline (t_jfont *font) |
| Get the underline state of a font object. More... | |
| void | jfont_extents (t_jfont *font, t_jgraphics_font_extents *extents) |
| Get extents of this font. More... | |
| void | jfont_text_measure (t_jfont *font, const char *utf8, double *width, double *height) |
| Given a font, find out how much area is required to render a string of text. More... | |
| void | jfont_text_measuretext_wrapped (t_jfont *font, const char *utf8, double wrapwidth, long includewhitespace, double *width, double *height, long *numlines) |
| Given a font, find out how much area is required to render a string of text, provided a horizontal maximum limit at which the text is wrapped. More... | |
| void | jfont_get_em_dimensions (t_jfont *font, double *width, double *height) |
| Given a font, find out the width and height of the 'M' character. More... | |
| t_max_err | jfont_getfontlist (long *count, t_symbol ***list) |
| Get a list of font names. More... | |
| t_max_err | jfont_getfontstylenames (t_symbol *fontname, long *count, t_symbol ***stylenames) |
| Get a list of font styles available for a given font face. More... | |
| void | jfont_normalizefontname (t_symbol *fontfacewithstyle, t_symbol **fontface, t_symbol **style) |
| Given a font name with style appended separate into the component parts. More... | |
| long | jbox_get_font_weight (t_object *b) |
| Get the slant box's font. More... | |
| long | jbox_get_font_slant (t_object *b) |
| Get the slant box's font. More... | |
| const char * | systemfontname (void) |
| Retrieve the name of Max's system font. More... | |
| const char * | systemfontname_bold (void) |
| Retrieve the name of Max's bold system font. More... | |
| const char * | systemfontname_light (void) |
| Retrieve the name of Max's light system font. More... | |
| t_symbol * | systemfontsym (void) |
| Retrieve the name of Max's system font as a symbol. More... | |
| long jbox_get_font_slant | ( | t_object * | b | ) |
Get the slant box's font.
| b | An object's box. |
| long jbox_get_font_weight | ( | t_object * | b | ) |
Get the slant box's font.
| b | An object's box. |
| t_jfont* jfont_create | ( | const char * | family, |
| t_jgraphics_font_slant | slant, | ||
| t_jgraphics_font_weight | weight, | ||
| double | size | ||
| ) |
Create a new font object.
| family | The name of the font family (e.g. Arial). |
| slant | The type of slant for the font. |
| weight | The type of weight for the font. |
| size | The size of the font. |
| t_jfont* jfont_create_withstylename | ( | const char * | family, |
| const char * | stylename, | ||
| double | size | ||
| ) |
Create a new font object using a style instead of style flags.
| family | The name of the font family (e.g. Arial). |
| stylename | The name of the font style (e.g. Narrow Bold Italic). |
| size | The size of the font. |
| void jfont_destroy | ( | t_jfont * | font | ) |
Release or free a font object.
| font | The font object to release. |
| void jfont_extents | ( | t_jfont * | font, |
| t_jgraphics_font_extents * | extents | ||
| ) |
Get extents of this font.
| font | The font object. |
| extents | The font extents upon return/ |
| void jfont_get_em_dimensions | ( | t_jfont * | font, |
| double * | width, | ||
| double * | height | ||
| ) |
Given a font, find out the width and height of the 'M' character.
This is equivalent to jfont_text_measure(font, "M", width, height) but is faster.
| font | The font object. |
| width | The address of a variable to hold the width upon return. |
| height | The address of a variable to hold the height upon return. |
Get the name of the font family (e.g.
Arial).
| font | The font object. |
| double jfont_get_font_size | ( | t_jfont * | font | ) |
Get the size of a font object.
| font | The font object. |
| t_jgraphics_font_slant jfont_get_slant | ( | t_jfont * | font | ) |
Get the slant of the font.
| font | The font object. |
Get the style of the given font (e.g.
Narrow Bold Italic).
| font | The font object. |
| char jfont_get_underline | ( | t_jfont * | font | ) |
Get the underline state of a font object.
| font | The font object. |
| t_jgraphics_font_weight jfont_get_weight | ( | t_jfont * | font | ) |
Get the weight of the font.
| font | The font object. |
Get a list of font names.
Note, this includes each font style in each font family.
| count | The address of a variable to hold the count of font names in list upon return. |
| list | The address of a t_symbol** initialized to NULL. Upon return this will be set to an array of count t_symbol pointers. This array should be freed using sysmem_freeptr() when you are done with it. |
Get a list of font styles available for a given font face.
| fontanme | A symbol with the name of the font whose styles are to be retrieved. |
| count | The address of a variable to hold the count of font styles in the list upon return. |
| list | The address of a t_symbol** initialized to NULL. Upon return this will be set to an array of count t_symbol pointers. This array should b freed using sysmem_freptr() when you are done with it. |
Compare two fonts to see if they are equivalent.
| font | The first font object that is being compared. |
| other | The second font object that is being compared. |
| void jfont_normalizefontname | ( | t_symbol * | fontfacewithstyle, |
| t_symbol ** | fontface, | ||
| t_symbol ** | style | ||
| ) |
Given a font name with style appended separate into the component parts.
(e.g. "Arial Narrow Bold Italic" -> "Arial" and "Narrow Bold Italic".
Create new reference to an existing font object.
| font | The font object for which to obtain a reference. |
Set the name of the font family (e.g.
Arial).
| font | The font object. |
| family | A t_symbol containing the name of the desired font family. |
| void jfont_set_font_size | ( | t_jfont * | font, |
| double | size | ||
| ) |
Set the size of a font object.
| font | The font object. |
| size | The new size for the font object. |
| void jfont_set_slant | ( | t_jfont * | font, |
| t_jgraphics_font_slant | slant | ||
| ) |
Set the slant of the font.
| font | The font object |
| slant | The desired slant. |
Set the style of a font family (e.g.
Narrow Bold Italic).
| font | The font object. |
| style | The desired style. |
| void jfont_set_underline | ( | t_jfont * | font, |
| char | ul | ||
| ) |
Set the underlining of a font object.
| font | The font object. |
| ul | Pass true to underline, or false for no underlining. |
| void jfont_set_weight | ( | t_jfont * | font, |
| t_jgraphics_font_weight | weight | ||
| ) |
Set the weight of the font.
| font | The font object |
| weight | The desired weight (e.g. bold). |
| void jfont_text_measure | ( | t_jfont * | font, |
| const char * | utf8, | ||
| double * | width, | ||
| double * | height | ||
| ) |
Given a font, find out how much area is required to render a string of text.
| font | The font object. |
| utf8 | The text whose rendering will be measured. |
| width | The address of a variable to hold the width upon return. |
| height | The address of a variable to hold the height upon return. |
| void jfont_text_measuretext_wrapped | ( | t_jfont * | font, |
| const char * | utf8, | ||
| double | wrapwidth, | ||
| long | includewhitespace, | ||
| double * | width, | ||
| double * | height, | ||
| long * | numlines | ||
| ) |
Given a font, find out how much area is required to render a string of text, provided a horizontal maximum limit at which the text is wrapped.
| font | The font object. |
| utf8 | The text whose rendering will be measured. |
| wrapwidth | The maximum width, above which text should wrap onto a new line. |
| includewhitespace | If non-zero, include whitespace in the measurement. |
| width | The address of a variable to hold the width upon return. |
| height | The address of a variable to hold the height upon return. |
| numlines | The address of a variable to hold the number of lines of text after wrapping upon return. |
| const char* systemfontname | ( | void | ) |
Retrieve the name of Max's system font.
| const char* systemfontname_bold | ( | void | ) |
Retrieve the name of Max's bold system font.
| const char* systemfontname_light | ( | void | ) |
Retrieve the name of Max's light system font.
| t_symbol* systemfontsym | ( | void | ) |
Retrieve the name of Max's system font as a symbol.


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