Enhanced imaging devices, and image construction methods and processes employing hermetic transforms
AssigneeVertoCOMM, Inc.
InventorsHarvey C. Woodsum, Christopher M. Woodsum
Life of this patent
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Abstract
In an exemplary embodiment, a tomography device comprises a scanner that obtains image slices. The device additionally comprises at least one processor configured to: perform a Hermetic Transform on the image slices to obtain hermetically transformed data using; filter and perform an Inverse Hermetic Transform on the Hermetic Transform data to obtain filtered inverse Hermetic Transform data; and perform back projection and angle integration on the filtered inverse Hermetic Transform data.
Claims37
A tomography device comprising:
- a scanner that obtains at least one image slice of an object, the at least one image slice comprising oversampled image data;
- and
- at least one processor configured to:
- perform Hermetic Transform Tomography comprising calculating a robust Hermetic Transform on the at least one image slice to obtain hermetically transformed data, the robust Hermetic Transform comprising solutions to a Moore-Penrose Pseudo-Inverse performed with a Singular Value Decomposition according to the following equations:
- ΣHΩσ=ρ;
- (a)
- H=ΣKΩ;
- and (b)
- σ=[(Σ+N1)(Σ+N2) . . . ];
- (c)
- filter and perform an inverse operation comprising a pseudo-inverse of a robust Inverse Hermetic Transform using the Moore-Penrose Pseudo-Inverse performed with a Singular Value Decomposition on the Hermetic Transform data to obtain filtered inverse Hermetic Transform data;
- and
- perform back projection and angle integration on the filtered inverse Hermetic Transform data to produce a three-dimensional image of the object.
A method of obtaining a tomographic image comprising:
- obtaining at least one image slice of an object, the at least one image slice comprising oversampled image data;
- performing Hermetic Transform Tomography comprising calculating a robust Hermetic Transform on the at least one image slice to obtain hermetically transformed data, the robust Hermetic Transform comprising solutions to a Moore-Penrose Pseudo-Inverse performed with a Singular Value Decomposition according to the following equations:
- ΣHΩσ=ρ;
- (a)
- H=ΣKΩ;
- and (b)
- σ=[(Σ+N1)(Σ+N2) . . . ];
- (c)
- filtering and performing an inverse operation comprising a pseudo-inverse of a robust Inverse Hermetic Transform using the Moore-Penrose Pseudo-Inverse performed with a Singular Value Decomposition on the Hermetic Transform data to obtain filtered inverse Hermetic Transform data;
- and
- performing back projection and angle integration on the filtered inverse Hermetic Transform data to produce a three-dimensional image of the object.
A measuring device comprising:
- a scanner that obtains at least one signal parameter, the at least one signal parameter comprising oversampled signal data;
- and
- at least one processor configured to perform a robust Hermetic Transform on the at least one signal parameter to obtain a measurement associated with the signal parameter, the robust Hermetic Transform comprising solutions to a Moore-Penrose Pseudo-Inverse performed with a Singular Value Decomposition according to the following equations:
- ΣHΩσ=ρ;
- (a)
- H=ΣKΩ;
- and (b)
- σ=[(Σ+N1)(Σ+N2) . . . ]. (c)
A method of measuring signal parameters comprising:
- obtaining at least one signal parameter, the at least one signal parameter comprising oversampled signal data;
- and
- performing a robust Hermetic Transform on the at least one signal parameter to obtain a measurement associated with the signal parameter, the robust Hermetic Transform comprising solutions to a Moore-Penrose Pseudo-Inverse performed with a Singular Value Decomposition according to the following equations:
- ΣHΩσ=ρ;
- (a)
- H=ΣKΩ;
- and (b)
- σ=[(Σ+N1)(Σ+N2) . . . ]. (c)
An ultrasonic imaging device comprising:
- an ultrasonic array and beam-former that transmits an ultrasonic signal;
- an ultrasonic receiving array that receives ultrasonic echoes, the ultrasonic receiving array generating oversampled signal data based on the ultrasonic echoes;
- and
- at least one processor configured to perform a robust Hermetic Transform on the echoes to produce an image, the robust Hermetic Transform comprising solutions to a Moore-Penrose Pseudo-Inverse performed with a Singular Value Decomposition according to the following equations:
- ΣHΩσ=ρ;
- (a)
- H=ΣKΩ;
- and (b)
- σ=[(Σ+N1)(Σ+N2) . . . ]. (c)
A method of ultrasonic imaging comprising:
- transmitting an ultrasonic signal;
- receiving ultrasonic echoes, wherein receiving the ultrasonic echoes comprises generating oversampled signal data based on the ultrasonic echoes;
- and
- performing a robust Hermetic Transform on the echoes to produce an image, the robust Hermetic Transform comprising solutions to a Moore-Penrose Pseudo-Inverse performed with a Singular Value Decomposition according to the following equations:
- ΣHΩσ=ρ;
- (a)
- H=ΣKΩ;
- and (b)
- σ=[(Σ+N1)(Σ+N2) . . . ]. (c)
An imaging device comprising:
- a scanner having a receiver array that generates oversampled image data, the receiver array being associated with a plurality of channels;
- and
- at least one processor configured to apply Hermetic Matched Filtering based on a robust Hermetic Transform to each channel of the plurality of channels and create beams for additional spatial filtering and signal separation via a time-delay beamforming approach to produce an image, the robust Hermetic Transform comprising solutions to a Moore-Penrose Pseudo-Inverse performed with a Singular Value Decomposition according to the following equations:
- ΣHΩσ=ρ;
- (a)
- H=ΣKΩ;
- and (b)
- σ=[(Σ+N1)(Σ+N2) . . . ]. (c)
An imaging method comprising apply a Hermetic Matched Filtering to each channel of a receiver array and creating beams for additional spatial filtering and signal separation via a time-delay beamforming approach to produce an image.
Dependencies are inferred from the claim text.