Abstract: An optical collection apparatus including one or more elongated light transmissive prismatic optical reflector and one or more planar bifacial solar cells. The one or more elongated light transmissive optical reflectors are shaped and positioned to transmit light to the planar bifacial solar cells. In some embodiments, each planar bifacial solar cell has a first photovoltaic side and a second photovoltaic side, where the first photovoltaic side is positioned to receive direct light having been reflected by a corresponding elongated light transmissive optical reflector.

Abstract: A method includes, at a first time: receiving, from a first viewer population, a first request for a first playback segment of a video; generating a first rendition segment corresponding to the first playback segment; transmitting the first rendition segment to the first viewer population; aggregating a first set of viewership data for the first playback segment; and generating a first viewership count based the first set of viewership data, the first viewership count corresponding to a viewership data filter. In addition, the method includes, at the second time: receiving a second request from the second viewer population for a second playback segment of the video; generating the second rendition segment corresponding to the first playback segment; modifying frames of the second rendition segment to include the first viewership count; and transmitting the second modified rendition segment to the second viewer population and the first viewership count.

Abstract: The invention concerns method and system for determining a lens of customized color, said method comprising the steps of determining a target colorimetric data set; providing access to a database comprising data representing colors; using a plurality of simulation modules to calculate, based on said data from the database, a plurality of simulated colorimetric data of the lens substrate combined with a mixture of dyes of determined dye(s) combination, composition and amount or with a multilayer stack as a function of determined layers composition and thicknesses; and, color matching the plurality of simulated colorimetric data with the target colorimetric data set so as to determine one or a plurality of combinations of said lens substrate with a determined mixture of dyes or with a determined multilayer stack.

Abstract: A method includes, at a first time: receiving, from a first viewer population, a first request for a first playback segment of a video; generating a first rendition segment corresponding to the first playback segment; transmitting the first rendition segment to the first viewer population; aggregating a first set of viewership data for the first playback segment; and generating a first viewership count based the first set of viewership data, the first viewership count corresponding to a viewership data filter. In addition, the method includes, at the second time: receiving a second request from the second viewer population for a second playback segment of the video; generating the second rendition segment corresponding to the first playback segment; modifying frames of the second rendition segment to include the first viewership count; and transmitting the second modified rendition segment to the second viewer population and the first viewership count.

Abstract: An optical collection apparatus includes a plurality of light transmissive optical reflectors and a plurality of planar bifacial solar cells. Each light transmissive optical reflector is configured to transmit indirect light impinging on first and second collection sides thereof. First and second photovoltaic sides of each of the plurality of bifacial solar cells are positioned to collect indirect light impinging thereon. The planar bifacial solar cells are arranged such that at least one light transmissive optical reflector of the plurality of light transmissive optical reflectors is positioned between consecutive ones of the planar bifacial solar cells. Each light transmissive optical reflector of the plurality of light transmissive optical reflectors is configured to reflect direct incoming light impinging on the first collection side thereof towards the first photovoltaic side of a corresponding one of the planar bifacial solar cells. A solar collection and shading system is also contemplated.

Abstract: A transfer device includes a device body, and an articulated transfer platform. The articulated transfer platform include a distal platform segment and a plurality of intermediate platform segments. A distal locking mechanism is releasably securable to a locking mechanism of a lead intermediate platform segment, and locking mechanisms of successive intermediate platform segment are releasably securable to locking mechanisms of preceding intermediate platform segment. In a stowed position, the successive intermediate platform segments are positioned below the lead intermediate platform segment. In an extended position, the distal platform segment is located laterally away from the device body, the distal locking mechanism is secured to the locking mechanism of the lead intermediate platform segment, and the locking mechanism of a successive intermediate platform segment is secured to the locking mechanism of the lead intermediate platform segment.

Abstract: Disclosed is a transfer device having a device body, a transfer platform including a platform plate, and a platform lateral actuator. The platform lateral actuator is configured to selectively move the platform plate laterally relative to the device body, such that the platform plate can be moved between a plurality of positions including (i) a stowed position in which the platform plate is retracted relative to the device body, (ii) a first extended position in which a first transverse edge of the platform plate is a leading edge that extends outward from a first side of the device body, and (iii) a second extended position in which a second transverse edge of the platform plate is a leading edge that extends outward from a second side of the device body. The transfer device also a treatment system configured to apply a cleaning and/or disinfecting treatment.

Abstract: Disclosed is a transfer device having a device body, a transfer platform including a platform plate, and a platform lateral actuator. The platform lateral actuator is configured to selectively move the platform plate laterally relative to the device body, such that the platform plate can be moved between a plurality of positions including (i) a stowed position in which the platform plate is retracted relative to the device body, (ii) a first extended position in which a first transverse edge of the platform plate is a leading edge that extends outward from a first side of the device body, and (iii) a second extended position in which a second transverse edge of the platform plate is a leading edge that extends outward from a second side of the device body. The transfer device also a treatment system configured to apply a cleaning and/or disinfecting treatment.

Abstract: A method includes, at a first time: receiving, from a first viewer population, a first request for a first playback segment of a video; generating a first rendition segment corresponding to the first playback segment; transmitting the first rendition segment to the first viewer population; aggregating a first set of viewership data for the first playback segment; and generating a first viewership count based the first set of viewership data, the first viewership count corresponding to a viewership data filter. In addition, the method includes, at the second time: receiving a second request from the second viewer population for a second playback segment of the video; generating the second rendition segment corresponding to the first playback segment; modifying frames of the second rendition segment to include the first viewership count; and transmitting the second modified rendition segment to the second viewer population and the first viewership count.

Abstract: A transfer device includes an extendable transfer platform. The transfer platform includes a fixed plate, a moveable plate, and at least one platform actuator configured to selectively move the moveable plate relative to the fixed plate between a retracted position and an extended position in which a leading edge of the moveable plate is located distally from a leading edge of the fixed plate. The transfer platform also includes a transfer belt having a first end secured to a first driven roller, and a second end secured to a second driven roller. The transfer device also includes a platform support structure secured to the transfer platform for supporting the transfer platform above a floor surface. The platform support structure includes at least one support actuator configured to selectively move the transfer platform relative to the floor surface between a lowered position and a raised position.

Abstract: Disclosed is a transfer device having a device body, a transfer platform including a platform plate, and a platform lateral actuator. The platform lateral actuator is configured to selectively move the platform plate laterally relative to the device body, such that the platform plate can be moved between a plurality of positions including (i) a stowed position in which the platform plate is retracted relative to the device body, (ii) a first extended position in which a first transverse edge of the platform plate is a leading edge that extends outward from a first side of the device body, and (iii) a second extended position in which a second transverse edge of the platform plate is a leading edge that extends outward from a second side of the device body. The transfer device also has a transfer belt that goes over the platform plate of the transfer platform.

Abstract: An optical collection apparatus includes a plurality of light transmissive optical reflectors and a plurality of planar bifacial solar cells. Each light transmissive optical reflector is configured to transmit indirect light impinging on first and second collection sides thereof. First and second photovoltaic sides of each of the plurality of bifacial solar cells are positioned to collect indirect light impinging thereon. The planar bifacial solar cells are arranged such that at least one light transmissive optical reflector of the plurality of light transmissive optical reflectors is positioned between consecutive ones of the planar bifacial solar cells. Each light transmissive optical reflector of the plurality of light transmissive optical reflectors is configured to reflect direct incoming light impinging on the first collection side thereof towards the first photovoltaic side of a corresponding one of the planar bifacial solar cells. A solar collection and shading system is also contemplated.

Abstract: The invention concerns method and system for determining a lens of customized color, said method comprising the steps of determining a target colorimetric data set; providing access to a database comprising data representing colors; using a plurality of simulation modules to calculate, based on said data from the database, a plurality of simulated colorimetric data of the lens substrate combined with a mixture of dyes of determined dye(s) combination, composition and amount or with a multilayer stack as a function of determined layers composition and thicknesses; and, color matching the plurality of simulated colorimetric data with the target colorimetric data set so as to determine one or a plurality of combinations of said lens substrate with a determined mixture of dyes or with a determined multilayer stack.

Abstract: Device for concentrating and harvesting sunlight comprising: A panel having rigid layer having a patterned electrical circuit thereon. An array of sunlight concentrating and harvesting units, each unit being formed by at least one rigid element and a portion of the rigid layer; and including: a rigid optical concentrating element, a photovoltaic cell sandwiched within the panel for converting sunlight into electrical energy, and an electrical conductor. The electrical conductor being the primary heat sink for the photovoltaic cell, the photovoltaic cell being primarily cooled via conduction. The electrical conductor and the optical concentrating element being dimensioned and arranged within the unit such that the electrical conductor does not materially impede transmission of sunlight to the photovoltaic cell. The electrical conductor transmitting electrical and thermal energy received from the photovoltaic cell away from the unit.

Abstract: Illumination panel comprises: (1) a receiver substrate assembly including: (a) a rigid sheet of light transmissive material having a first surface, a second surface opposite the first surface, and a conductor pattern attached to the first surface; and (b) at least one receiver assembly affixed to the rigid sheet, each receiver assembly including a light source in electrical communication with the conductor pattern; and (2) at least one light-guide optic attached to and supported by the receiver substrate assembly, each light-guide optic in optical communication with the photovoltaic cell of an associated one of the at least one receiver assembly for guiding light for output via the rigid sheet.

Abstract: Device for providing comprising: A panel having rigid layer having a patterned electrical circuit thereon. An array of illuminating units, each unit being formed by at least one rigid element and a portion of the rigid layer; and including: a rigid optical dispersing element, a light source sandwiched within the panel for generating light from electrical energy, and an electrical conductor. The electrical conductor being the primary heat sink for the light source, the light source being primarily cooled via conduction. The electrical conductor and the optical dispersing element being dimensioned and arranged within the unit such that the electrical conductor does not materially impede transmission of light generated by the light source to the outside of the device. The electrical conductor transmitting electrical and thermal energy received from the light source away from the unit.

Abstract: Disclosed are systems and methods for detecting and locating ingress of an over-the-air signal into a wired communications network. Computing devices located in a plurality of different areas may be configured to identify amplitude of signals transmitted over the wired communications network as it varies by signal frequency. In one embodiment, the system may determine expected amplitude of the over-the-air signal at the plurality of different areas. In other embodiments, the system may identify amplitudes received over the wired communication path at the computing devices. The system may determine a location at which the over-the-air signal has entered the wired communications network based on a comparison of the identified and expected amplitudes of the over-the-wire signal.

Abstract: Disclosed are systems and methods for detecting and locating ingress of an over-the-air signal into a wired communications network. Computing devices located in a plurality of different areas may be configured to identify amplitude of signals transmitted over the wired communications network as it varies by signal frequency. In one embodiment, the system may determine expected amplitude of the over-the-air signal at the plurality of different areas. In other embodiments, the system may identify amplitudes received over the wired communication path at the computing devices. The system may determine a location at which the over-the-air signal has entered the wired communications network based on a comparison of the identified and expected amplitudes of the over-the-wire signal.

Abstract: Concentrated photovoltaic panel comprises: (1) a receiver substrate assembly including: (a) a rigid sheet of light transmissive material having a first surface, a second surface opposite the first surface, and a conductor pattern attached to the first surface; and (b) at least one receiver assembly affixed to the rigid sheet, each receiver assembly including a photovoltaic cell in electrical communication with the conductor pattern; and (2) at least one light-guide optic attached to and supported by the receiver substrate assembly, each light-guide optic in optical communication with the photovoltaic cell of an associated one of the at least one receiver assembly for guiding light received via the receiver substrate assembly toward said photovoltaic cell.

Abstract: Illumination panel comprises: (1) a receiver substrate assembly including: (a) a rigid sheet of light transmissive material having a first surface, a second surface opposite the first surface, and a conductor pattern attached to the first surface; and (b) at least one receiver assembly affixed to the rigid sheet, each receiver assembly including a light source in electrical communication with the conductor pattern; and (2) at least one light-guide optic attached to and supported by the receiver substrate assembly, each light-guide optic in optical communication with the photovoltaic cell of an associated one of the at least one receiver assembly for guiding light for output via the rigid sheet.