Abstract: An optical system for receiving light scanned from different light origination locations in space can include a Liquid Crystal (LC) waveguide (LCW), including first and second LCW light ports. A beamsteering LC electrode can be included in or coupled to the LCW and can be configured to vary a receiving direction of light received at the second LCW light port in response to a varying electrical input signal applied to the LC electrode to scan receiving of light at the second LCW light port from different light origination locations in space. A photodetector can be optically coupled to the first LCW light port, such as to detect waveguided light from different light origination locations in space received in response to the varying electrical input signal applied to the first LC electrode. Ranger, bright-spot locking, laser detection, direct detect and coherent lidar, wavelength detection, and other techniques and use cases are possible.

Abstract: A Liquid Crystal Waveguide (LCW) system can provide sub-aperture incoupling or outcoupling of light having an input wavelength and input beamsize defining an aperture characteristic of the system. A Liquid Crystal Waveguide (LCW) can include a generally planar LCW core to receive light via a light input zone for communication toward a light output zone. Sub-aperture interfacial light couplers can be planarly arranged in or parallel to the planar LCW core in the light input zone or the light output zone. Sub-aperture interfacial light couplers can include teeth, prisms, or facets, a photonic crystal metasurface, or a geometric-phased holograph (GPH)). Overall LCW thickness can be reduced, which can be helpful in space-limited applications or for reducing material costs.

Abstract: Aspects of the disclosure relate to saddle type vehicles having at least one seat and at least two wheels, at least one electric motor, and a rechargeable electric energy storage system, such as a battery and battery management system. A vehicle seat may be mounted on an adjustable inner seat post, where the adjustable movement may be vertical, substantially vertical, or at least partially vertical. Vehicle handlebars may be mounted on an inner shaft which allows movement parallel to the steering axis and is indexed to an outer steering stem that allows the handlebars, a chassis fork and front wheel to be steered together. In some examples, the inner seat post and handlebar inner shaft are electronically raised and lowered, for example by one or more electrical stepper motors, such that position of handlebars and seat may be selected by rider.

Abstract: An optical system for receiving light scanned from different light origination locations in space can include a Liquid Crystal (LC) waveguide (LCW), including first and second LCW light ports. A beamsteering LC electrode can be included in or coupled to the LCW and can be configured to vary a receiving direction of light received at the second LCW light port in response to a varying electrical input signal applied to the LC electrode to scan receiving of light at the second LCW light port from different light origination locations in space. A photodetector can be optically coupled to the first LCW light port, such as to detect waveguided light from different light origination locations in space received in response to the varying electrical input signal applied to the first LC electrode. Ranger, bright-spot locking, laser detection, direct detect and coherent lidar, wavelength detection, and other techniques and use cases are possible.

Abstract: A liquid crystal waveguide (LCW) can include actively controlled incoupling of light into a LCW, such as by using a voltage-controlled electrode to actively vary a property of an LC material arranged to affect the incoupling of light into the LCW. Actively varying light incoupling into the LCW can be used, for example, such as for calibration or compensation or to provide closed-loop feedback such as to stabilize the amount of light into the LCW while accommodating or reducing sensitivity of the LCW to variations in one or more of: input laser light incidence angle, input laser wavelength, LCW or input laser temperature, input laser optical power level, or the like. This can advantageously help improve or maximize light incoupling efficiency, which can improve performance and robustness of the LCW under actual operating conditions. The LCW can be used for, among other things, beamsteering in in-plane and out-of-plane directions.

Abstract: A Liquid Crystal Waveguide (LCW) system can provide sub-aperture incoupling or outcoupling of light having an input wavelength and input beamsize defining an aperture characteristic of the system. A Liquid Crystal Waveguide (LCW) can include a generally planar LCW core to receive light via a light input zone for communication toward a light output zone. Sub-aperture interfacial light couplers can be planarly arranged in or parallel to the planar LCW core in the light input zone or the light output zone. Sub-aperture interfacial light couplers can include teeth, prisms, or facets, a photonic crystal metasurface, or a geometric-phased holograph (GPH)). Overall LCW thickness can be reduced, which can be helpful in space-limited applications or for reducing material costs.

Abstract: A light beam can be steered using a non-mechanical beam steerer structure. For example, a combination of sub-aperture and full-aperture beam steering structures can be used (e.g., corresponding to regions of controlled variation in an index of refraction). The sub-aperture elements can include tapered structures defining a saw-tooth or triangular footprint in the plane in which the in-plane steering is performed. Respective rows of sub-aperture tapered structures can be configured to controllably steer the light beam in the first in-plane direction, wherein at least one row of sub-aperture tapered structures defines a first base region edge that is tipped at a first specified in-plane angle relative to a second base region edge defined by another row. Use of the tipped configuration can simplify a configuration of the beam steerer structure, such as allowing a configuration lacking a compensation plate at the input.

Abstract: A liquid crystal waveguide (LCW) can include actively controlled incoupling of light into a LCW, such as by using a voltage-controlled electrode to actively vary a property of an LC material arranged to affect the incoupling of light into the LCW. Actively varying light incoupling into the LCW can be used, for example, such as for calibration or compensation or to provide closed-loop feedback such as to stabilize the amount of light into the LCW while accommodating or reducing sensitivity of the LCW to variations in one or more of: input laser light incidence angle, input laser wavelength, LCW or input laser temperature, input laser optical power level, or the like. This can advantageously help improve or maximize light incoupling efficiency, which can improve performance and robustness of the LCW under actual operating conditions. The LCW can be used for, among other things, beamsteering in in-plane and out-of-plane directions.

Abstract: An electro-optical beamsteerer can be coupled with other optical structures. For example, such optical structures can be used to shape a beam being steered by the beamsteerer or shape a field-of-regard (FOR) addressable from the perspective of the beamsteerer. Optical elements placed at an output of the LCW can be used as a “spot mapper” to increase or decrease the field of view that can be scanned by a beam steered by the LCW, as an illustrative example, Lenses or other optical elements can also be used to correct distortion in the steered beam distribution across the field of view, such as to provide a “smile corrector.” In a similar manner, optical elements can be placed at an input to the beamsteerer, such as to provide a beam expander to change the size of the beam profile inside the beamsteerer device.

Abstract: A system and method for providing a dynamic composite field of view in a scanning lidar system, such as to improve a signal-to-noise ration of detected light. The dynamic composite field of view can include a subset of the available detector pixels, and can thereby reduce noise introduce by noise sources that can scale with a detector area, such as dark current and gain peaking that can be caused by a capacitance of the photodetector.

Abstract: A self-configuring sensor and method of operation of the sensor is described. In one embodiment, the self-configuring sensor comprises a first sub-sensor for determining a first status of a door or window, a second sub-sensor for determining a second status of the door or window, a wireless transmitter, a memory for storing processor-executable instructions, and a processor coupled to the first sub-sensor, the second sub-sensor, the wireless transmitter and the memory for executing the processor-executable instructions that cause the sensor to monitor the first and second sub-sensors for detecting changes in a first sub-sensor state and a second sub-sensor state, respectively, and determine an installation configuration based on the changes in the first sub-sensor state and the second sub-sensor state, the installation configuration comprising a type of hardware where the self-configuring sensor has been installed.

Abstract: Apparatus, method, and computer program product embodiments for implementing a command line interface (CLI) browser for a client/server pair in a computing environment are provided. A protocol is initialized. The protocol operates on a CLI command, breaking a close coupling between the client/server pair. The protocol facilitates receiving a command query about the CLI command from the client to the server, and sending data representative of the CLI command from the server to the client.

Abstract: A non-mechanical beamsteerer can be provided to adjust an angle of a light beam, such as to scan the light beam over a field of regard. The non-mechanical beamsteerer can include a first collection of steering elements that are smaller than a size of a light beam. The first collection of steering elements can adjust the angle of the light beam by diffracting the light beam. The non-mechanical beamsteerer can also include a second collection of steering elements that are larger than a size of the light beam. The second collection of steering elements can adjust an angle of the light beam by refracting the light beam. The non-mechanical beamsteerer can operate without a compensation plate, such as to provide a reduced size of the beamsteerer and an increased acceptance angle of the beamsteerer.

Abstract: The present subject matter includes apparatus and techniques that can be used to reduce losses in systems that perform steering of a light beam. Such steering can be performed in a non-mechanical manner, such as using an electrically-controlled optical structure (e.g., an electro-optical structure). For example, a waveguide can be used to adjust an angle of a light beam (e.g., steer the light beam). The waveguide can include a core, a cladding including an electro-optic material, and electrodes defining an arrangement that, when selectively energized, adjusts an index of refraction of the electro-optic material. In particular, electrode arrangements as described herein can be used to reduce losses, such as losses that would occur due to diffraction.

Abstract: A self-configuring sensor and method of operation of the sensor is described. In one embodiment, the self-configuring sensor comprises a first sub-sensor for determining a first status of a door or window, a second sub-sensor for determining a second status of the door or window, a wireless transmitter, a memory for storing processor-executable instructions, and a processor coupled to the first sub-sensor, the second sub-sensor, the wireless transmitter and the memory for executing the processor-executable instructions that cause the sensor to monitor the first and second sub-sensors for detecting changes in a first sub-sensor state and a second sub-sensor state, respectively, and determine an installation configuration based on the changes in the first sub-sensor state and the second sub-sensor state, the installation configuration comprising a type of hardware where the self-configuring sensor has been installed.

Abstract: A self-configuring sensor and method of operation of the sensor is described. In one embodiment, the self-configuring sensor comprises a first sub-sensor for determining a first status of a door or window, a second sub-sensor for determining a second status of the door or window, a wireless transmitter, a memory for storing processor-executable instructions, and a processor coupled to the first sub-sensor, the second sub-sensor, the wireless transmitter and the memory for executing the processor-executable instructions that cause the sensor to monitor the first and second sub-sensors for detecting changes in a first sub-sensor state and a second sub-sensor state, respectively, and determine an installation configuration based on the changes in the first sub-sensor state and the second sub-sensor state, the installation configuration comprising a type of hardware where the self-configuring sensor has been installed.

Abstract: An optical coupler can be provided for coupling a light beam into a waveguide. The optical coupler can include a stepped structure, such as to reduce difficulties during manufacture, reduce expenses associated with manufacture, and additionally, to provide an increased acceptance angle of the optical coupler. The waveguide can include a guiding region where a cladding thickness can be increased relative to a coupling region, such as to reduce losses due to evanescent outcoupling in the guiding region.

Abstract: A self-configuring sensor and method of operation of the sensor is described. In one embodiment, the self-configuring sensor comprises a first sub-sensor for determining a first status of a door or window, a second sub-sensor for determining a second status of the door or window, a wireless transmitter, a memory for storing processor-executable instructions, and a processor coupled to the first sub-sensor, the second sub-sensor, the wireless transmitter and the memory for executing the processor-executable instructions that cause the sensor to monitor the first and second sub-sensors for detecting changes in a first sub-sensor state and a second sub-sensor state, respectively, and determine an installation configuration based on the changes in the first sub-sensor state and the second sub-sensor state, the installation configuration comprising a type of hardware where the self-configuring sensor has been installed.

Abstract: A method to establish a generic remote connection to a command line interface (CLI) application is provided. A server is implemented. The server is configured with a data input channel, a data output channel, and an error output channel, each connected to the CLI application. A first socket is configured for routing data streams through the data input channel and data output channel of the server. At least one client is implemented. The at least one client is configured with the data input channel, data output channel, and the error output channel.

Abstract: A system and methodology for network planning in which a software based tool provides network engineers with the capability to more precisely plan for traffic loading within the network on a cell site by cell site basis. Thus for each cell site, variations in geographic location, device mix, historical usage patterns and other factors are taken into account to allow for more accurate network planning and for more efficient use of capital. Cell sites with a higher traffic profile based upon historic device mix and usage patterns will be associated with lower OSF values thus enhancing the user experience for a device user in communication with that cell site. On the other hand, for cell sites with a lesser traffic profile, a higher OSF value is ascribed thus allowing for capital to be deployed elsewhere while still maintaining a positive user experience for users relying on that cell site.