void setJacSparsity(const Sparsity& sp, const std::string &iind, const std::string &oind,
bool compact=false) {
setJacSparsity(sp, inputSchemeEntry(iind), outputSchemeEntry(oind), compact); }
void setJacSparsity(const CRSSparsity& sp, const std::string &iname, const std::string &oname, bool compact=false) { setJacSparsity(sp,inputSchemeEntry(iname),outputSchemeEntry(oname),compact); }
inline const Matrix<double>& input(const std::string &iname) const
{ return input(inputSchemeEntry(iname)); }
FX hessian(const std::string& iname, const std::string& oname) { return hessian(inputSchemeEntry(iname),outputSchemeEntry(oname)); }
CRSSparsity& jacSparsity(const std::string &iname, const std::string &oname, bool compact=false, bool symmetric=false) { return jacSparsity(inputSchemeEntry(iname),outputSchemeEntry(oname),compact,symmetric); }
FX hessian(const std::string& iname, int oind=0) { return hessian(inputSchemeEntry(iname),oind); }
FX gradient(const std::string& iname, const std::string& oname) { return gradient(inputSchemeEntry(iname),outputSchemeEntry(oname)); }
FX gradient(const std::string& iname, int oind=0) { return gradient(inputSchemeEntry(iname),oind); }
FX jacobian(const std::string& iname, const std::string& oname, bool compact=false, bool symmetric=false) { return jacobian(inputSchemeEntry(iname),outputSchemeEntry(oname),compact,symmetric); }
FX jacobian(const std::string& iname, int oind=0, bool compact=false, bool symmetric=false) { return jacobian(inputSchemeEntry(iname),oind,compact,symmetric); }