Patents by Inventor Igor Kudryashov
Igor Kudryashov has filed for patents to protect the following inventions. This listing includes patent applications that are pending as well as patents that have already been granted by the United States Patent and Trademark Office (USPTO).
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Publication number: 20240069179Abstract: An optical transmitter including a laser diode array configured to emit corresponding laser pulses; a micro-optics module configured to focus the laser pulses into a scanning beam; and a drive motor configured to rotate the optical transmitter so the scanning beam covers a horizontal field of view.Type: ApplicationFiled: May 23, 2023Publication date: February 29, 2024Applicant: LG INNOTEK CO., LTD.Inventors: Mark ltzler, Igor Kudryashov, Yu Jin, Viorel C. Negoita
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Patent number: 11604266Abstract: A method for developing a map of objects in a region surrounding a location is disclosed. The method includes interrogating the region along a detection axis with a series of optical pulses and detecting reflections of the optical pulses that originate at objects located along the detection axis. A multi-dimensional map of the region is developed by scanning the detection axis about the location in at least one dimension. The reflections are detected via a single-photon detector that is armed using a sub-gating scheme such that the single-photon detector selectively detects photons of reflections that originate only within each of a plurality of zones that collectively define the detection field. In some embodiments, the optical pulses have a wavelength within the range of 1350 nm to 1390 nm, which is a spectral range having a relatively high eye-safety threshold and a relatively low solar background.Type: GrantFiled: December 3, 2019Date of Patent: March 14, 2023Assignee: ARGO AI, LLCInventors: Evgenii Yuryevich Kotelnikov, William Paul Mordarski, Igor Kudryashov, Mark D. Entwistle, Sabbir Sajjad Rangwala
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Publication number: 20220357424Abstract: Implementing systems and methods for operating a LiDAR system. The methods comprise: supplying current from a laser diode bar driver of the LiDAR system to a light source of the LiDAR system; passing the current through a laser diode bar of the light source (the laser diode bar comprising a plurality of laser diodes electrically connected in series); emitting a light beam from the light source when current is passing through the plurality of laser diodes; and/or receiving light reflected off an object.Type: ApplicationFiled: August 31, 2021Publication date: November 10, 2022Inventors: Evgenii Y. Kotelnikov, Igor Kudryashov
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Patent number: 11009592Abstract: Disclosed are improved LiDAR systems and methods that achieve an improved signal-to-noise by interrogating a sub-region of a scene with an optical signal. An instantaneous field-of-view (FOV) of each detector pixel is narrowed along a first direction to reduce detection of solar-generated photons. Instantaneous FOVs of the pixels are compressed along the first direction to provide a composite FOV that is narrower than a total FOV. To sample the total FOV of a scene, the optical signal and composite FOV of the receiver are scanned across the scene along the first direction.Type: GrantFiled: June 6, 2017Date of Patent: May 18, 2021Assignee: ARGO AI, LLCInventors: Samuel Richard Wilton, Evgenii Yuryevich Kotelnikov, Igor Kudryashov
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Patent number: 10727649Abstract: A monolithic series-connected laser-diode array is presented, where the array is formed on a non-conductive substrate that includes a plurality of discrete electrically conductive regions. Each laser diode of the array is disposed on a different conductive region such that the laser cavity of each laser diode is optically isolated from its respective conductive region, thereby avoiding optical loss in the laser cavity due to interaction with the highly doped conductive material. Each conductive region is configured to extend past the lateral extent of its respective laser-diode structure. Electrical connection between adjacent laser diodes of the array is made by forming a conductive trace that extends from the top contact of one of the laser diodes to the conductive region on which the other laser diode is disposed.Type: GrantFiled: September 21, 2018Date of Patent: July 28, 2020Assignee: ARGO AI, LLCInventors: Igor Kudryashov, John Hostetler
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Publication number: 20200103501Abstract: A method for developing a map of objects in a region surrounding a location is disclosed. The method includes interrogating the region along a detection axis with a series of optical pulses and detecting reflections of the optical pulses that originate at objects located along the detection axis. A multi-dimensional map of the region is developed by scanning the detection axis about the location in at least one dimension. The reflections are detected via a single-photon detector that is armed using a sub-gating scheme such that the single-photon detector selectively detects photons of reflections that originate only within each of a plurality of zones that collectively define the detection field. In some embodiments, the optical pulses have a wavelength within the range of 1350 nm to 1390 nm, which is a spectral range having a relatively high eye-safety threshold and a relatively low solar background.Type: ApplicationFiled: December 3, 2019Publication date: April 2, 2020Inventors: Evgenii Yuryevich Kotelnikov, William Paul Mordarski, Igor Kudryashov, Mark D. Entwistle, Sabbir Sajjad Rangwala
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Publication number: 20200099197Abstract: A monolithic series-connected laser-diode array is presented, where the array is formed on a non-conductive substrate that includes a plurality of discrete electrically conductive regions. Each laser diode of the array is disposed on a different conductive region such that the laser cavity of each laser diode is optically isolated from its respective conductive region, thereby avoiding optical loss in the laser cavity due to interaction with the highly doped conductive material. Each conductive region is configured to extend past the lateral extent of its respective laser-diode structure. Electrical connection between adjacent laser diodes of the array is made by forming a conductive trace that extends from the top contact of one of the laser diodes to the conductive region on which the other laser diode is disposed.Type: ApplicationFiled: September 21, 2018Publication date: March 26, 2020Inventors: Igor KUDRYASHOV, John HOSTETLER
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Patent number: 10520591Abstract: A method for developing a map of objects in a region surrounding a location is disclosed. The method includes interrogating the region along a detection axis with a series of optical pulses and detecting reflections of the optical pulses that originate at objects located along the detection axis. A multi-dimensional map of the region is developed by scanning the detection axis about the location in at least one dimension. The reflections are detected via a single-photon detector that is armed using a sub-gating scheme such that the single-photon detector selectively detects photons of reflections that originate only within each of a plurality of zones that collectively define the detection field. In some embodiments, the optical pulses have a wavelength within the range of 1350 nm to 1390 nm, which is a spectral range having a relatively high eye-safety threshold and a relatively low solar background.Type: GrantFiled: March 7, 2017Date of Patent: December 31, 2019Assignee: ARGO AI, LLCInventors: Evgenii Yuryevich Kotelnikov, William Paul Mordarski, Igor Kudryashov, Mark D. Entwistle, Sabbir Sajjad Rangwala
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Patent number: 9851556Abstract: A GmAPD imager with an increased field of view includes at least one array of movable mirrors. Each movable mirror in the array switches between at least two positions (states). The movable mirrors receive light coming from a first direction when the mirror is in the first state and a second direction when the mirror is in the second state, thus increasing the field of view of the imager.Type: GrantFiled: July 25, 2016Date of Patent: December 26, 2017Assignee: Argo Al, LLCInventors: Evgenii Yuryevich Kotelnikov, Igor Kudryashov, Samuel Richard Wilton, Sabbir Sajjad Rangwala
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Publication number: 20170350967Abstract: Disclosed are improved LiDAR systems and methods that achieve an improved signal-to-noise by interrogating a sub-region of a scene with an optical signal. An instantaneous field-of-view (FOV) of each detector pixel is narrowed along a first direction to reduce detection of solar-generated photons. Instantaneous FOVs of the pixels are compressed along the first direction to provide a composite FOV that is narrower than a total FOV. To sample the total FOV of a scene, the optical signal and composite FOV of the receiver are scanned across the scene along the first direction.Type: ApplicationFiled: June 6, 2017Publication date: December 7, 2017Applicant: Princeton Lightwave, Inc.Inventors: Samuel Richard WILTON, Evgenil Yuryevich KOTELNIKOV, Igor KUDRYASHOV
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Publication number: 20170176576Abstract: A method for developing a map of objects in a region surrounding a location is disclosed. The method includes interrogating the region along a detection axis with a series of optical pulses and detecting reflections of the optical pulses that originate at objects located along the detection axis. A multi-dimensional map of the region is developed by scanning the detection axis about the location in at least one dimension. The reflections are detected via a single-photon detector that is armed using a sub-gating scheme such that the single-photon detector selectively detects photons of reflections that originate only within each of a plurality of zones that collectively define the detection field. In some embodiments, the optical pulses have a wavelength within the range of 1350 nm to 1390 nm, which is a spectral range having a relatively high eye-safety threshold and a relatively low solar background.Type: ApplicationFiled: March 7, 2017Publication date: June 22, 2017Inventors: Evgenii Yuryevich Kotelnikov, William Paul Mordarski, Igor Kudryashov, Mark D. Entwistle, Sabbir Sajjad Rangwala
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Patent number: 9625580Abstract: A method for developing a map of objects in a region surrounding a location is disclosed. The method includes interrogating the region along a detection axis with a series of optical pulses and detecting reflections of the optical pulses that originate at objects located along the detection axis. A multi-dimensional map of the region is developed by scanning the detection axis about the location in at least one dimension. The reflections are detected via a single-photon detector that is armed using a sub-gating scheme such that the single-photon detector selectively detects photons of reflections that originate only within each of a plurality of zones that collectively define the detection field. In some embodiments, the optical pulses have a wavelength within the range of 1350 nm to 1390 nm, which is a spectral range having a relatively high eye-safety threshold and a relatively low solar background.Type: GrantFiled: January 3, 2014Date of Patent: April 18, 2017Assignee: Princeton Lightwave, Inc.Inventors: Evgenii Yuryevich Kotelnikov, William Paul Mordarski, Igor Kudryashov, Mark D. Entwistle, Sabbir Sajjad Rangwala
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Publication number: 20170026556Abstract: A GmAPD imager with an increased field of view includes at least one array of movable mirrors. Each movable mirror in the array switches between at least two positions (states). The movable mirrors receive light coming from a first direction when the mirror is in the first state and a second direction when the mirror is in the second state, thus increasing the field of view of the imager.Type: ApplicationFiled: July 25, 2016Publication date: January 26, 2017Inventors: Evgenii Yuryevich Kotelnikov, Igor Kudryashov, Samuel Richard Wilton, Sabbir Sajjad Rangwala
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Publication number: 20150192676Abstract: A method for developing a map of objects in a region surrounding a location is disclosed. The method includes interrogating the region along a detection axis with a series of optical pulses and detecting reflections of the optical pulses that originate at objects located along the detection axis. A multi-dimensional map of the region is developed by scanning the detection axis about the location in at least one dimension. The reflections are detected via a single-photon detector that is armed using a sub-gating scheme such that the single-photon detector selectively detects photons of reflections that originate only within each of a plurality of zones that collectively define the detection field. In some embodiments, the optical pulses have a wavelength within the range of 1350 nm to 1390 nm, which is a spectral range having a relatively high eye-safety threshold and a relatively low solar background.Type: ApplicationFiled: January 3, 2014Publication date: July 9, 2015Applicant: Princeton Lightwave, Inc.Inventors: Evgenii Yuryevich Kotelnikov, William Paul Mordarski, Igor Kudryashov, Mark D. Entwistle, Sabbir Sajjad Rangwala