Abstract: Systems, methods, and devices relating to a wireless network device configured for adjustable positioning are described herein. In an example, a network device comprises a body and a bendable element configured to carry electrical power to the body and components therein. The body houses an antenna and transceiver configured for wireless communication. The bendable element, attached to the body of the network device, is configured for adjustable positioning such that a position of the bendable element is substantially maintained when the positioning force is removed. A facing of the antenna within the body may be based on the positioning of the bendable element.

Abstract: Systems, methods, and devices relating to a wireless network device configured for adjustable positioning are described herein. In an example, a network device comprises a body and a bendable element configured to carry electrical power to the body and components therein. The body houses an antenna and transceiver configured for wireless communication. The bendable element, attached to the body of the network device, is configured for adjustable positioning such that a position of the bendable element is substantially maintained when the positioning force is removed. A facing of the antenna within the body may be based on the positioning of the bendable element.

Abstract: A housing may comprise a first surface comprising one or more ventilation openings and a second surface comprising one or more ventilation openings. The one or more ventilation openings of the first surface may be located in a recessed groove of the first surface. The second surface may be substantially perpendicular to the first surface. The housing may enable air to flow through the one or more ventilation openings of the first surface and the one or more ventilation openings of the second surface to direct heat away from the one or more internal components of the housing. The arrangement of the one or more ventilation openings may enable one or more housings to be stacked on top of each other without impeding air flow through the one or more ventilation openings of the first surface and/or the one or more ventilation openings of the second surface.

Abstract: A housing may comprise a first surface comprising one or more ventilation openings and a second surface comprising one or more ventilation openings. The one or more ventilation openings of the first surface may be located in a recessed groove of the first surface. The second surface may be substantially perpendicular to the first surface. The housing may enable air to flow through the one or more ventilation openings of the first surface and the one or more ventilation openings of the second surface to direct heat away from the one or more internal components of the housing. The arrangement of the one or more ventilation openings may enable one or more housings to be stacked on top of each other without impeding air flow through the one or more ventilation openings of the first surface and/or the one or more ventilation openings of the second surface.

Abstract: Systems, methods, and devices relating to a wireless network device configured for adjustable positioning are described herein. In an example, a network device comprises a body and a bendable element configured to carry electrical power to the body and components therein. The body houses an antenna and transceiver configured for wireless communication. The bendable element, attached to the body of the network device, is configured for adjustable positioning such that a position of the bendable element is substantially maintained when the positioning force is removed. A facing of the antenna within the body may be based on the positioning of the bendable element.

Abstract: Systems, methods, and devices relating to a wireless network device configured for adjustable positioning are described herein. In an example, a network device comprises a body and a bendable element configured to carry electrical power to the body and components therein. The body houses an antenna and transceiver configured for wireless communication. The bendable element, attached to the body of the network device, is configured for adjustable positioning such that a position of the bendable element is substantially maintained when the positioning force is removed. A facing of the antenna within the body may be based on the positioning of the bendable element.

Abstract: Systems, methods, and devices relating to a wireless network device configured for adjustable positioning are described herein. In an example, a network device comprises a body and a bendable element configured to carry electrical power to the body and components therein. The body houses an antenna and transceiver configured for wireless communication. The bendable element, attached to the body of the network device, is configured for adjustable positioning such that a position of the bendable element is substantially maintained when the positioning force is removed. A facing of the antenna within the body may be based on the positioning of the bendable element.

Abstract: A housing may comprise a first surface comprising one or more ventilation openings and a second surface comprising one or more ventilation openings. The one or more ventilation openings of the first surface may be located in a recessed groove of the first surface. The second surface may be substantially perpendicular to the first surface. The housing may enable air to flow through the one or more ventilation openings of the first surface and the one or more ventilation openings of the second surface to direct heat away from the one or more internal components of the housing. The arrangement of the one or more ventilation openings may enable one or more housings to be stacked on top of each other without impeding air flow through the one or more ventilation openings of the first surface and/or the one or more ventilation openings of the second surface.

Abstract: A system is provided comprising an optical filter. The optical filter comprises a Cu-porphyrin dye compound. The transmission spectrum of the system has an average transmission across the wavelength range of 460 nm-700 nm of at least 60%. The transmission spectrum of the system has an average transmission across the wavelength range 400 nm-460 nm that is less than 75%.

Abstract: A system is provided comprising an optical filter. The optical filter comprises a Cu-porphyrin dye compound. The transmission spectrum of the system has an average transmission across the wavelength range of 460 nm-700 nm of at least 60%. The transmission spectrum of the system has an average transmission across the wavelength range 400 nm-460 nm that is less than 75%.

Abstract: A system is provided comprising an optical filter. The optical filter comprises a Cu-porphyrin dye compound. The transmission spectrum of the system has an average transmission across the wavelength range of 460 nm-700 nm of at least 60%. The transmission spectrum of the system has an average transmission across the wavelength range 400 nm-460 nm that is less than 75%.

Abstract: A system is provided comprising an optical filter. The optical filter comprises a Cu-porphyrin dye compound. The transmission spectrum of the system has an average transmission across the wavelength range of 460 nm-700 nm of at least 80%. The transmission spectrum of the system has an average transmission across the wavelength range 400 nm-460 nm that is less than 75%.

Abstract: A system is provided comprising an optical filter. The optical filter comprises a Cu-porphyrin dye compound. The transmission spectrum of the system has an average transmission across the wavelength range of 460 nm-700 nm of at least 80%. The transmission spectrum of the system has an average transmission across the wavelength range 400 nm-460 nm that is less than 75%.

Abstract: Disclosed herein is a method that comprises providing a solution containing a dye or a dye mixture, ultrasonicating the solution to reduce the average size of aggregates of the dye or dye mixture contained in the solution, and incorporating the dye or the dye mixture in the optical path of a device that transmits light.