Imaging subsystem
OwnerMohammad A. Mazedinventor
Life of this patent
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Abstract
An imaging subsystem is disclosed, wherein the imaging subsystem is coherent and it generally includes an optical phased array (OPA), frequency modulation (FM) and/or amplitude modulation (AM). The imaging subsystem is operable with a Super System on Chip (SSoC) or a photonic neural learning processor (PNLP). The Super System on Chip (SSoC) includes memristors. The imaging subsystem is further operable with a camera (e.g., a metamaterial camera, wherein the metamaterial camera includes one or more metasurfaces). Furthermore, the imaging subsystem may be included with a vehicle system, wherein the vehicle system can recommend a service or an offer to a user/driver by anticipating any need of the user/driver.
Claims60
An imaging subsystem,
- wherein the imaging subsystem is a coherent subsystem,
- wherein the imaging subsystem is based on frequency modulation (FM), and/or amplitude modulation (AM),
- the imaging subsystem comprising:
- (a) (i) one or more lasers, and (ii) one or more first photodiodes (PDs), or one or more balanced photodiodes (BPDs);
- and
- wherein at least one of the one or more lasers has a distinct wavelength, or a tunable wavelength,
- wherein at least one of the one or more lasers has a laser linewidth less than 200 Hz,
- wherein at least one of the one or more lasers is communicatively interfaced with a Lorentzian Least Squares Fitting Processor (LLSF Processor),
- wherein the Lorentzian Least Squares Fitting Processor (LLSF Processor) comprises (i) an integrated electronic circuit (IC), and (ii) a first set of computer implementable instructions to calculate, or compute Lorentzian Least Squares Fit (LLSF), wherein the first set of computer implementable instructions is stored in one or more non-transitory storage media,
- (b) an optical phased array (OPA) for laser beam steering,
- wherein the optical phased array (OPA) for laser beam steering is a two-dimensional (2-D) optical phased array (OPA), or a three-dimensional (3-D) optical phased array (OPA),
- wherein the imaging subsystem is communicatively interfaced with:
- (i) a second set of computer implementable instructions to detect, or image an object in fog, or rain, or snow;
- and
- wherein the second set of computer implementable instructions at least includes an image reconstruction instruction,
- wherein the second set of computer implementable instructions is stored in the one or more non-transitory storage media,
- (ii) a near real time map, or an augmented reality (AR) enhanced near real time map, viewed on a display, or a head-up display (HUD).
An imaging subsystem,
- wherein the imaging subsystem is a coherent subsystem,
- wherein the imaging subsystem is based on frequency modulation (FM), and/or amplitude modulation (AM),
- the imaging subsystem comprising:
- (a) (i) one or more lasers, and (ii) one or more photodiodes (PDs), or one or more balanced photodiodes (BPDs);
- and
- wherein at least one of the one or more lasers has a distinct wavelength, or a tunable wavelength,
- wherein at least one of the one or more lasers has a laser linewidth less than 200 Hz,
- wherein at least one of the one or more lasers is communicatively interfaced with a Lorentzian Least Squares Fitting Processor (LLSF Processor),
- wherein the Lorentzian Least Squares Fitting Processor (LLSF Processor) comprises (i) an integrated electronic circuit (IC), and (ii) a first set of computer implementable instructions to calculate, or compute Lorentzian Least Squares Fit (LLSF),
- wherein the first set of computer implementable instructions is stored in one or more non-transitory storage media,
- (b) an optical phased array (OPA) for laser beam steering,
- wherein the optical phased array (OPA) for laser beam steering is a two-dimensional (2-D) optical phased array (OPA), or a three-dimensional (3-D) optical phased array (OPA),
- wherein the optical phased array (OPA) for laser beam steering comprises (i) a first layer of a first optical material, and (ii) a second layer of a second optical material,
- wherein the first layer comprises a first array of first antennas consisting of a material selected from the group consisting of a phase transition material, a phase change material, and a second harmonic (SH) generation material, wherein a first spatial separation between the first antennas of the first array of the first antennas is uniformly spaced, or non-uniformly spaced,
- wherein each antenna of the first array of the first antennas is passively controlled, or actively controlled by an electrical stimulus, or an optical stimulus,
- wherein the each antenna of the first array of the first antennas has a dimension less than 1000 nanometers, and greater than 2 nanometers,
- wherein the second layer comprises a second array of second antennas consisting of a material selected from the group consisting of the phase transition material, the phase change material, and the second harmonic (SH) generation material, wherein a second spatial separation between the second antennas of the second array of the second antennas is uniformly spaced, or non-uniformly spaced,
- wherein each antenna of the second array of the second antennas is passively controlled, or actively controlled by the electrical stimulus, or the optical stimulus,
- wherein the each antenna of the second array of the second antennas has a dimension less than 1000 nanometers, and greater than 2 nanometers,
- wherein the first layer of the first optical material, and the second layer of the second optical material are electrically isolated by an electrically insulating layer.
An imaging subsystem,
- wherein the imaging subsystem is a coherent subsystem,
- wherein the imaging subsystem is based on frequency modulation (FM), and/or amplitude modulation (AM),
- the imaging subsystem comprising:
- (a) (i) one or more lasers, and (ii) one or more photodiodes (PDs), or one or more balanced photodiodes (BPDs);
- and
- wherein at least one of the one or more lasers has a distinct wavelength, or a tunable wavelength,
- wherein at least one of the one or more lasers has a laser linewidth less than 200 Hz,
- wherein at least one of the one or more lasers is communicatively interfaced with a Lorentzian Least Squares Fitting Processor (LLSF Processor),
- wherein the Lorentzian Least Squares Fitting Processor (LLSF Processor) comprises (i) an integrated electronic circuit (IC), and (ii) a first set of computer implementable instructions to calculate, or compute Lorentzian Least Squares Fit (LLSF), wherein the first set of computer implementable instructions is stored in one or more non-transitory storage media,
- (b) an optical phased array (OPA) for laser beam steering, wherein the optical phased array (OPA) for laser beam steering is a two-dimensional (2-D) optical phased array (OPA), or a three-dimensional (3-D) optical phased array (OPA),
- wherein the imaging subsystem is communicatively interfaced with:
- (i) a second set of computer implementable instructions to detect, or image an object in fog, or rain, or snow;
- and
- wherein the second set of computer implementable instructions at least includes an image reconstruction instruction,
- wherein the second set of computer implementable instructions is stored in the one or more non-transitory storage media,
- (ii) a third set of computer implementable instructions comprising artificial intelligence, or machine learning, or deep learning,
- wherein the third set of computer implementable instructions is stored in the one or more non-transitory storage media.
An imaging subsystem,
- wherein the imaging subsystem is a coherent subsystem,
- wherein the imaging subsystem is based on frequency modulation (FM), and/or amplitude modulation (AM),
- the imaging subsystem comprising:
- (a) (i) one or more lasers, and (ii) one or more photodiodes (PDs), and/or one or more balanced photodiodes (BPDs);
- and
- wherein at least one of the one or more lasers has a distinct wavelength, or a tunable wavelength,
- wherein at least one of the one or more lasers has a laser linewidth less than 200 Hz,
- wherein at least one of the one or more lasers is communicatively interfaced with a Lorentzian Least Squares Fitting Processor (LLSF Processor),
- wherein the Lorentzian Least Squares Fitting Processor (LLSF Processor) comprises (i) an integrated electronic circuit (IC), and (ii) a first set of computer implementable instructions to calculate, or compute Lorentzian Least Squares Fit (LLSF), wherein the first set of computer implementable instructions is stored in one or more non-transitory storage media,
- (b) an optical phased array (OPA) for laser beam steering, wherein the optical phased array (OPA) for laser beam steering is a two-dimensional (2-D) optical phased array (OPA), or a three-dimensional (3-D) optical phased array (OPA),
- wherein the imaging subsystem is communicatively interfaced with:
- (i) a second set of computer implementable instructions to detect, or image an object in fog, or rain, or snow;
- wherein the second set of computer implementable instructions at least includes an image reconstruction instruction,
- wherein the second set of computer implementable instructions is stored in the one or more non-transitory storage media,
- (ii) a third set of computer implementable instructions comprising artificial intelligence, or machine learning, or deep learning;
- and
- wherein the third set of computer implementable instructions is stored in the one or more non-transitory storage media,
- (iii) a fourth set of computer implementable instructions comprising evolutionary instructions, or self-learning instructions,
- wherein the fourth set of computer implementable instructions is stored in the one or more non-transitory storage media.
An imaging subsystem,
- wherein the imaging subsystem is a coherent subsystem,
- wherein the imaging subsystem is based on frequency modulation (FM), and/or amplitude modulation (AM),
- the imaging subsystem comprising:
- (a) (i) one or more lasers, and (ii) one or more photodiodes (PDs), or one or more balanced photodiodes (BPDs);
- and
- wherein at least one of the one or more lasers has a distinct wavelength, or a tunable wavelength,
- wherein at least one of the one or more lasers has a laser linewidth less than 200 Hz,
- wherein at least one of the one or more lasers is communicatively interfaced with a Lorentzian Least Squares Fitting Processor (LLSF Processor),
- wherein the Lorentzian Least Squares Fitting Processor (LLSF Processor) comprises (i) an integrated electronic circuit (IC), and (ii) a set of computer implementable instructions to calculate, or compute Lorentzian Least Squares Fit (LLSF), wherein the set of computer implementable instructions is stored in one or more non-transitory storage media,
- (b) an optical component selected from the group consisting of an optical phased array (OPA), an optical switch, an antenna and a metamaterial surface,
- wherein the optical phased array (OPA) is a two-dimensional (2-D) optical phased array (OPA), or a three-dimensional (3-D) optical phased array (OPA),
- wherein the imaging subsystem is communicatively interfaced with
- a Super System on Chip (SSoC) for fast data processing, image processing/image recognition, deep learning/meta-learning or self-learning, wherein the Super System on Chip (SSoC) comprises (i) a processor-specific electronic integrated circuit (EIC), and (ii) a memristor, or a super memristor, wherein the super memristor comprises a capacitor, the memristor, and a resistor.
An imaging subsystem,
- wherein the imaging subsystem is a coherent subsystem,
- wherein the imaging subsystem is based on frequency modulation (FM), and/or amplitude modulation (AM),
- the imaging subsystem comprising:
- (a) (i) one or more lasers, and (ii) one or more photodiodes (PDs), or one or more balanced photodiodes (BPDs);
- and
- wherein at least one of the one or more lasers has a distinct wavelength, or a tunable wavelength,
- wherein at least one of the one or more lasers has a laser linewidth less than 200 Hz,
- wherein at least one of the one or more lasers is communicatively interfaced with a Lorentzian Least Squares Fitting Processor (LLSF Processor),
- wherein the Lorentzian Least Squares Fitting Processor (LLSF Processor) comprises (i) an integrated electronic circuit (IC), and (ii) a set of computer implementable instructions to calculate, or compute Lorentzian Least Squares Fit (LLSF), wherein the set of computer implementable instructions is stored in one or more non-transitory storage media,
- (b) an optical component selected from the group consisting of an optical phased array (OPA), an optical switch, an antenna and a metamaterial surface,
- wherein the optical phased array (OPA) is a two-dimensional (2-D) optical phased array (OPA), or a three-dimensional (3-D) optical phased array (OPA),
- wherein the imaging subsystem is communicatively interfaced with
- a photonic neural learning processor (PNLP) for photonic neural processing, wherein the photonic neural learning processor (PNLP) comprises:
- (i) an interferometer, and a laser,
- or
- (ii) one or more phase transition material based optical switches, or one or more phase change material based optical switches,
- wherein at least one of the one or more phase transition material based optical switches is electrically, and/or optically controlled,
- wherein at least one of the of one or more phase change material based optical switches is electrically, or optically controlled.
An imaging subsystem,
- wherein the imaging subsystem is a coherent subsystem,
- wherein the imaging subsystem is based on frequency modulation (FM), and/or amplitude modulation (AM),
- the imaging subsystem comprising:
- (a) (i) one or more lasers, and (ii) one or more first photodiodes (PDs), or one or more balanced photodiodes (BPDs);
- and
- wherein at least one of the one or more lasers has a distinct wavelength, or a tunable wavelength,
- wherein at least one of the one or more lasers has a laser linewidth less than 200 Hz,
- (b) an optical component selected from the group consisting of an optical phased array (OPA), an optical switch, an antenna and a metamaterial surface,
- wherein the optical phased array (OPA) is a two-dimensional (2-D) optical phased array (OPA), or a three-dimensional (3-D) optical phased array (OPA),
- wherein the imaging subsystem is communicatively interfaced with:
- (i) a first set of computer implementable instructions to detect, or image an object in fog, or rain, or snow;
- and
- wherein the first set of computer implementable instructions at least includes an image reconstruction instruction,
- wherein the first set of computer implementable instructions is stored in the one or more non-transitory storage media,
- (ii) a second set of computer implementable instructions comprising artificial intelligence, or machine learning, or deep learning,
- wherein the second set of computer implementable instructions is stored in the one or more non-transitory storage media.
Dependencies are inferred from the claim text.