Data Objects Summary
Data objects for representing simulation data. Total: 25 classes.
Class |
Description |
|---|---|
Convolution Kernel data object. This object stores
the convolution kernels for Laser Guide Star (LGS)
Shack-Hartmann wavefront sensing and performs the
related computations.
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Electric field data object. This class represents
a 2D electric field, storing both amplitude and
phase information for each pixel in a rectangular
grid.
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Gaussian Convolution Kernel data object. This
object stores a Gaussian convolution kernel for
Shack-Hartmann wavefront sensing and performs the
related computations.
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Influence functions data object. This class holds
the influence function matrix and the
corresponding mask. Influence functions data are
stored as [modes, pixels].
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Inverse Influence Function data object. This class
holds the inverse influence function matrix and
the corresponding mask. Inverse influence
functions data are stored as [pixels, modes].
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Infinite Impulse Response (IIR) Filter Data
object. This class stores IIR filter coefficients
and provides methods to analyze the filter’s
transfer function, frequency response and
stability.
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Infinite Phase Screen Data object. This class
generates and holds an infinite phase screen
generated using a stochastic process that
simulates atmospheric turbulence.
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Intensity field data object. |
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Interaction matrix data object. This class holds
the interaction matrix (intmat) and related
metadata for wavefront reconstruction.
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Laser Launch Telescope data object. This class
holds the parameters of the laser launch
telescope, such as spot size, position, focus and
tilt.
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Layer data object. This object represents a layer
in the atmosphere for wavefront propagation
simulations. It inherits from the ElectricField
class and adds additional properties such as
height, shifts, rotation, and magnification.
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Lenslet data object. This class holds the
information about the lenslet array, such as the
number of lenses and their positions.
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Modal to Command (M2C) matrix data object. This
class holds the M2C matrix, which is used to
convert modal coefficients to actuator commands.
The M2C matrix is stored as [actuators, modes].
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Phasescreen field data object. |
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Pixels data object. Holds a 2d array of pixels,
which can be signed or unsigned. The number of
bits per pixel can be set, up to 64 bits.
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Pupil data object. This class holds the
information about the pupils of a Pyramid WFS (or
a Zernike WFS). PupData includes an ind_pup array
with the pixel indexes of each pupil, of shape
[index, pupil].
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Pupil stop data object. This class holds the
information about the pupil stop, i.e. the
amplitude mask in the pupil plane.
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Reconstruction matrix data object. This class
holds the information about the reconstruction
matrix, which maps slopes to modes. The
reconstruction matrix axes are [modes, slopes].
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Simulation Parameters data object. This class
holds the parameters of the simulation, such as
pixel size, time step, total time, zenith angle,
etc.
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Slopes data object. Holds a slopes vector, which
can be interleaved (XYXYXY…) or not
(XXX…YYY…). X and Y slopes can be accessed
independently, and a 2d map is available.
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Source data object. Holds the properties of a
source, such as polar coordinates, magnitude,
wavelength, height, band, zero point, and error in
coordinates.
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Spatio-temporal array data object. This class
holds a multi-dimensional spatio-temporal array
with an associated time vector. Input arrays can
have temporal evolution on the first or last axis.
Internally, data are always stored in time-first
layout: array[i, …] is associated with
time_vector[i].
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State Space Representation Filter Data data
object. This class stores discrete-time
state-space filter coefficients.
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Subaperture data object. This class holds the
information about the subapertures, i.e. the
indices of the pixels belonging to each
subaperture of a Shack-Hartmann sensor.
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Time history data object. This class holds the
time history of a variable, such as the seeing
value, during the simulation. The time history is
stored as a 1D array,
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