optical¶
Optical solvers.
This package combines all optical solvers and helper functions that can create solver classes without a need to explicitly import the proper binary module.
Example
>>> import optical
>>> optical.BesselCyl('mysolver')
<optical.modal.BesselCyl at 0x42ac2b8>
Solver classes¶
effective.EffectiveIndex2D([name]) |
Calculate optical modes and optical field distribution using the effective index method in two-dimensional Cartesian space. |
effective.EffectiveFrequencyCyl([name]) |
Calculate optical modes and optical field distribution using the effective frequency method in two-dimensional cylindrical space. |
modal.Fourier2D([name]) |
Optical Solver using Fourier expansion in 2D. |
modal.Fourier3D([name]) |
Optical Solver using Fourier expansion in 3D. |
modal.BesselCyl([name]) |
Optical Solver using Bessel expansion in cylindrical coordinates. |
Functions¶
BesselCyl([name]) |
Create BesselCyl solver. |
EffectiveFrequencyCyl([name]) |
Create EffectiveFrequencyCyl solver. |
EffectiveIndex2D([name]) |
Create EffectiveIndex2D solver. |
Fourier2D([name]) |
Create Fourier2D solver. |
Fourier3D([name]) |
Create Fourier3D solver. |
Descriptions¶
Function Details¶
-
optical.BesselCyl(name='')¶ Create BesselCyl solver.
This function automatically loads
modalsubmodule and createsBesselCylclass.Parameters: name (str) – Solver name.
-
optical.EffectiveFrequencyCyl(name='')¶ Create EffectiveFrequencyCyl solver.
This function automatically loads
effectivesubmodule and createsEffectiveFrequencyCylclass.Parameters: name (str) – Solver name.
-
optical.EffectiveIndex2D(name='')¶ Create EffectiveIndex2D solver.
This function automatically loads
effectivesubmodule and createsEffectiveIndex2Dclass.Parameters: name (str) – Solver name.