wispr_analysis.stationary_point#
Submodules#
Classes#
A variant of InteractiveClicker that automatically "clicks" the peak pixel. |
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Functions#
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Package Contents#
- class wispr_analysis.stationary_point.StationaryPointState(epsilon=np.nan, delta_phi=np.nan, beta=np.nan, v_sc=np.nan, v_pxy=np.nan, r_sc=np.nan, alpha=np.nan, theta=np.nan, v_pphi=0 * u.m / u.s)#
- epsilon#
- delta_phi#
- beta#
- v_sc#
- v_pxy#
- r_sc#
- v_pphi#
- property v_pxy_constr1#
- property v_a#
- property v_p#
- property v_prxy#
- property v_pr#
- property v_z#
- property d_xy#
- property d_p_sc#
- property r_pxy#
- property r_p#
- property d_z#
- property alpha#
- property theta#
- property gamma_prime#
- property gamma#
- property psi#
- property dalpha_dt#
- property kappa#
- property delta#
- copy()#
- class wispr_analysis.stationary_point.DivergingStationaryPointState(epsilon=np.nan, delta_phi=np.nan, beta=np.nan, v_sc=np.nan, v_pxy=np.nan, r_sc=np.nan, alpha=np.nan, theta=np.nan, v_pphi=0 * u.m / u.s)#
Bases:
StationaryPointState- property v_pxy_constr1#
- property d_xy#
- property v_a#
- property r_pxy#
- abstract property gamma_prime#
- property gamma#
- property beta_prime#
- property delta#
- class wispr_analysis.stationary_point.ConstraintsResult#
- delta_phi_c1: astropy.units.Quantity#
- v_pxy_c1: astropy.units.Quantity#
- delta_phi_c2: astropy.units.Quantity#
- v_pxy_c2: astropy.units.Quantity#
- delta_phi_c3: astropy.units.Quantity#
- v_pxy_c3: astropy.units.Quantity#
- vxy2vp: None#
- vp2vxy: None#
- dphi_grid: astropy.units.Quantity#
- vpxy_grid: astropy.units.Quantity#
- dalpha_dt_err: astropy.units.Quantity#
- con_state: StationaryPointState#
- div_state: StationaryPointState#
- measured_angles: MeasuredAngles#
- con_div_divider_x: numpy.ndarray#
- con_div_divider_y: numpy.ndarray#
- get_intersect_vxy(return_all=False)#
- plot(vel_in_plane=True, mark_intersect=True, ax=None, show_full_c2=False, show_con_div_divider=False)#
- property v_p_c1#
- property v_p_c2#
- property v_p_c3#
- class wispr_analysis.stationary_point.ThreeConstraintsResult#
- delta_phi_c1: astropy.units.Quantity#
- theta_c1: astropy.units.Quantity#
- delta_phi_c2: astropy.units.Quantity#
- theta_c2: astropy.units.Quantity#
- dphi_grid: astropy.units.Quantity#
- theta_grid: astropy.units.Quantity#
- alpha_grid: astropy.units.Quantity#
- dalpha_dt_grid: astropy.units.Quantity#
- con_state: StationaryPointState#
- div_state: StationaryPointState#
- measured_angles: MeasuredAngles#
- get_intersect(return_all=False)#
- plot(mark_intersect=True, ax=None, show_alpha_grid=False, show_dalpha_dt_grid=False)#
- wispr_analysis.stationary_point.measurements_to_states(measured_angles, vphi=0 * u.km / u.s)#
- wispr_analysis.stationary_point.calc_constraints(measured_angles, cutoff_c2_variants=True, vphi=0 * u.km / u.s)#
- wispr_analysis.stationary_point.calc_three_constraints(measured_angles, vphi=0 * u.km / u.s)#
- class wispr_analysis.stationary_point.InteractiveClicker(frames, wcs, times, plot_opts={})#
- frames#
- wcs#
- plot_opts#
- times#
- clicked_alphas#
- clicked_lons#
- clicked_times = []#
- show()#
- conclude()#
- class wispr_analysis.stationary_point.AutoClicker(frames, wcs, times, plot_opts={})#
Bases:
InteractiveClickerA variant of InteractiveClicker that automatically “clicks” the peak pixel.
Results can be collected with
conclude.- frames#
- wcs#
- plot_opts#
- times#
- clicked_alphas#
- clicked_lons#
- clicked_times#
- abstract show()#
- class wispr_analysis.stationary_point.MeasuredAngles#
- stationary_point: astropy.units.Quantity#
- stationary_point_std: astropy.units.Quantity#
- alpha: astropy.units.Quantity#
- dalpha_dt: astropy.units.Quantity#
- alpha_cov_matrix: numpy.ndarray#
- t0: astropy.units.Quantity#
- tstart: astropy.units.Quantity#
- tstop: astropy.units.Quantity#
- __str__()#
- class wispr_analysis.stationary_point.InferredValues#
- vp: astropy.units.Quantity#
- vpxy: astropy.units.Quantity#
- delta_phi: astropy.units.Quantity#
- rp: astropy.units.Quantity#
- theta: astropy.units.Quantity#
- wispr_analysis.stationary_point.find_uncertainty(measured_angles, n_samples=1000, progress_bar=True)#