Index C++ Code Documentation klab::kernel::Lab Derived from: protected lab::kernel::Lab , ::klab::ui::Ui File: LAB/klab/kernel/Lab.H public: Lab(); constructor virtual ~Lab(); destructor virtual parser::KeyParser const &data() const; virtual parser::KeyParser &data(); void set_state_from_data(); void lambda( Real lambda ); Real lambda(); virtual char const *lab_name() const; virtual char const *about_info() const; virtual char const *env_lib_path() const; virtual char const *env_help_url() const; protected: private: virtual void cleanup_on_stop(); void cleanup(); virtual void set_ui_from_data(); virtual void set_data_from_ui(); virtual void load_surface(); virtual base::String const &domain(); void initial_condition( Complex const &z, base::String const &x, base::String const &y ); Set the initial condition for the CMC initial value problem. 'z0' is the basepoint in the domain, the whence integration starts. 'Phi0' is the initial value of Phi at 'z0'. void initial_condition( Complex &z, base::String &x, base::String &y ); Get the initial condition for the CMC initial value problem. 'z0' is the basepoint in the domain, the whence integration starts. 'Phi0' is the initial value of Phi at 'z0'. void integrator_count( uint x ); uint integrator_count() const; void initial_integrator_count( uint x ); uint initial_integrator_count() const; void polynomial_length( uint x ); uint polynomial_length() const; void initialize_data(); reset internal parameters void initialize(); void initial_condition( Loop4 &gx0, Loop4 &gy0 ); Set initial condition this is delayed (not performed when the user sets the initial condition) so that the user can change polylen, and the stored Xstart will still be ok virtual Complex zstart_v() const; virtual void start_all_v( uint vertex_count, uint edge_count, uint thread_count ); virtual void end_all_v( uint vertex_count, uint edge_count, uint thread_count); virtual void start_v( Complex const &z0, uint k0, uint thread_id ); initial integration step (called by Domain1::start() ) virtual void step_v( Complex const &z0, Complex const &z1, uint k0, uint k1, uint thread_id ); single intermediate integration step (called by Domain1::step() ) virtual void end_v(); void compute_segment( Complex &z, Complex const &dz, Potential &potential_x, Potential &potential_y, Loop4 &gx, Loop4 &gy, Loop4 &F, uint steps, uint thread_count ); subroutine to compute one integration/Iwasawa step void export_fn_v( base::vector<Real> &v, uint k ); single Sym step Data _data; EvalLoop _potential_x; potentials EvalLoop _potential_y; Complex _zstart; initial point in domain base::String _initial_x; initial matrix values base::String _initial_y; uint _integrator_count; number of fourth-order Runge-Kutta steps to take for each edge of the domain mesh uint _initial_integrator_count; number of fourth-order Runge-Kutta steps to take for the initial step uint _polylen; length of loop fourier series Real _lambda; '_lambda_family' is a real number in [0,1]; the actual lambda family parameter is exp(2 pi i _lambda_family) Birkhoff *_factorizer; Sym _sym; struct MultiData; Complex z; CMC loopgroup data: the point z in the domain Loop4 gx; CMC loopgroup data Loop4 gy; Potential potential_x; CMC loopgroup data: the potential Potential potential_y; Loop4 F; CMC loopgroup data: the extended frame }; base::vector<MultiData> _multidata; struct MultiOp; multithread computational tool data type base::vector<MultiOp> _multiop; multithread computational tool static char const *_about_info; Lab( Lab const & ); disabled copy constructor Lab &operator=( Lab const & ); disabled assignment operator
	klab::kernel::Lab GANG