Resonator2D
describes a two-dimensional resonator. If gamma
is zero and kappa
is non-zero it describes a thin, linear plate with frequency dependent and independent loss. If gamma
is non-zero and kappa
is zero or relatively small it describes a membrane with stiffness and frequency dependent and independent loss.
Create a new instance of Resonator2D
.
gamma |
A SimpleNumber denoting the spatially scaled wavespeed. WARNING: Note that it is generally not adviced to use very small, non-zero values for gamma as the smaller the value for gamma , the larger the number of modes will be. As a consequence, the calculation time might increase significantly and in the worst case either Python or SuperCollider will choke on the amount of data it needs to process resulting in no modal data at all. A zero value for gamma is perfectly fine though, provided that kappa is non-zero and relatively large (e.g. kappa > 10 ). |
kappa |
A SimpleNumber denoting a spatially scaled stiffness parameter. |
b1 |
A SimpleNumber denoting a frequency independent damping constant. |
b2 |
A SimpleNumber denoting a frequency dependent damping constant. |
boundaryCond |
A Symbol denoting a valid 2D boundary condition. |
epsilon |
A SimpleNumber denoting the aspect ratio: |
A new instance of Resonator2D
.
Get an overview of all valid 2D boundary condition combinations.
An immutable Array of valid 2D boundary conditions.
Generate a json representation of a Resonator2D
object instance.
A String representing the resonator object in json format.