Abstract: A wireless lighting control system for controlling lighting devices and with independent site operation is disclosed. The wireless lighting control system includes a remote server system, user computer devices, and a site system. The site system includes a gateway, a wireless mesh network, and wireless devices. The wireless devices communicate with the gateway via the wireless mesh network. The gateway communicates with the remote server system via a wide-area network. The user computer devices communicate with the remote server system and the gateway. Control information for the wireless devices is stored in the remote server system and is mirrored in the gateway so that the site system can operate independently if communication with the remote server system is lost.

Abstract: A lighting controller and methods provide auto-configuration of lighting system behaviors based on the detection of the type of lighting control devices joined to the lighting controller, including motion sensors, daylight sensors, dimmer switches, scene selectors, and other input devices, and based on a heuristic configuration table. Subsequent user selection of configuration options, including based on the configuration table, and manual resetting of the specific configuration settings are also supported by the disclosed lighting controller and methods.

Abstract: A device for a wireless device control system for controlling lighting devices is disclosed. The device can include a wireless transceiver, a power loss detection circuit, a communication loss detection circuit, a power monitoring circuit, and an output circuit. The device is configurable to provide a preselected communication loss action upon detecting communication loss, a preselected power loss action upon detecting power loss, and a preselected load power fault action upon detecting a load power fault.

Abstract: A device for a wireless device control system for controlling lighting devices is disclosed. The device can include a wireless transceiver, a power loss detection circuit, a communication loss detection circuit, a power monitoring circuit, and an output circuit. The device is configurable to provide a preselected communication loss action upon detecting communication loss, a preselected power loss action upon detecting power loss, and a preselected load power fault action upon detecting a load power fault.

Abstract: A wireless controller for detecting events and controlling illumination of one or more light fixture is disclosed. The device includes a wireless transceiver, a processor, an input sensor, and an output control module. The wireless controller can be used with a the wireless lighting control system, including one using a wireless mesh network. The controller is configurable for the input sensor and output control module operating in either an interdependent mode or an independent mode. In the interdependent mode the input sensor and output control module are logically/functionally related, and in the independent mode the input sensor and output control module are logically/functionally unrelated.

Abstract: A wireless controller for detecting events and controlling illumination of one or more light fixture is disclosed. The device includes a wireless transceiver, a processor, an input sensor, and an output control module. The wireless controller can be used with a the wireless lighting control system, including one using a wireless mesh network. The controller is configurable for the input sensor and output control module operating in either an interdependent mode or an independent mode. In the interdependent mode the input sensor and output control module are logically/functionally related, and in the independent mode the input sensor and output control module are logically/functionally unrelated.

Abstract: Circadian stimulus illumination control systems and methods are disclosed. Embodiments include a control system providing selection of a preset circadian stimulus profile, including a desired circadian stimulus level for setpoint times, for example, including a color temperature and brightness level for each setpoint time to simulate local natural sunlight conditions or a different selected lighting and/or stimulus condition. The control system wirelessly transmits information for the setpoints of the profile to lighting devices, which incrementally transition the color temperature and dimming of the lighting device between the profile setpoints.

Abstract: Illumination control systems and methods, including those for influencing circadian rhythm, are disclosed. Embodiments include a control device capable of obtaining desired color temperature (e.g., local daylight) information, generating a color temperature value, and outputting a signal including the color temperature value. Embodiments further include a server having means for obtaining at least one of geographical location information and time of day information relative to the server, a processor to determine local daylight information, and a wireless transmitter to broadcast the signal within a site system. Embodiments further include one or more lighting control devices to control lighting devices, each lighting control having a wireless receiver to continuously listen for and receive the signal broadcasted by the server, and a lighting driver to change the lighting output of the coupled lighting device according to the detected signal.

Abstract: Two-layer lighting control network systems and methods are disclosed. Embodiments include client lighting devices having a first type of radio for receiving wireless control signals, a lighting controller including a second type of radio, and a hub lighting device having a second type of radio for wireless communication with the lighting controller and a first type of radio for communicating with the client lighting devices. The first wireless network includes the first type of radio of hub lighting devices and the first type of radio of client lighting devices, and the second wireless network includes the second type of radio of the lighting controller and the second type of radio of the hub lighting devices. In at least one embodiment, client lighting devices are lamps having the first type of radio. In other embodiments, hub lighting devices are light fixtures having the first and second types of radios.

Abstract: Two-layer lighting control network systems and methods are disclosed. Embodiments include client lighting devices having a first type of radio for receiving wireless control signals, a lighting controller including a second type of radio, and a hub lighting device having a second type of radio for wireless communication with the lighting controller and a first type of radio for communicating with the client lighting devices. The first wireless network includes the first type of radio of hub lighting devices and the first type of radio of client lighting devices, and the second wireless network includes the second type of radio of the lighting controller and the second type of radio of the hub lighting devices. In at least one embodiment, client lighting devices are lamps having the first type of radio. In other embodiments, hub lighting devices are light fixtures having the first and second types of radios.

Abstract: A wireless lighting control system includes a remote server system connected to a wide area network and having software for configuring, monitoring, and controlling lighting fixtures at an installation site. The site includes wireless devices in communication with a gateway via a local wireless network and at least some of the wireless devices are configured to control lighting fixtures, including a configurable user control device, such as a wall dimmer switch, having user interface elements configurable to activate specific lighting effects, such as power, dimming, and scene control. A user computer device is connected to the wide area network and has a graphical user interface enabling virtually mapping of user interface elements to lighting effects. Configuration can advantageously be done without physical access to either the user control device or to the lighting controllers, fixtures, or other devices at the installation site.

Abstract: Illumination control systems and methods, including those for influencing circadian rhythm, are disclosed. Embodiments include a control device capable of obtaining desired color temperature (e.g., local daylight) information, generating a color temperature value, and outputting a signal including the color temperature value. Embodiments further include a server having means for obtaining at least one of geographical location information and time of day information relative to the server, a processor to determine local daylight information, and a wireless transmitter to broadcast the signal within a site system. Embodiments further include one or more lighting control devices to control lighting devices, each lighting control having a wireless receiver to continuously listen for and receive the signal broadcasted by the server, and a lighting driver to change the lighting output of the coupled lighting device according to the detected signal.

Abstract: Wireless lighting control systems and methods for controlling the illumination of one or more light fixtures are disclosed, including self-commissioning of hardware. Embodiments include a server connected to a wide area network and having software for configuring, monitoring, and controlling lighting fixtures at a site. The control system also includes a wireless gateway at the site initiating communication with the server via a cellular network. Wireless devices initiate communication with the wireless gateway via a mesh network and each wireless device can be wired to control at least one lighting fixture. Once hardware of the site system (e.g., a gateway and/or any device) is mounted or positioned in the appropriate location and powered on, the hardware will self-commission by automatically initiating communications. The gateway will initiate communication and identify itself to server system.

Abstract: Wireless lighting control systems and methods for controlling the illumination of one or more light fixtures are disclosed. Embodiments include a server connected to a wide area network and having software for configuring, monitoring, and controlling lighting fixtures at a site. The control system also includes a wireless gateway at the site communicating with the server via cellular. Wireless devices communicate with the wireless gateway via a mesh network and each wireless device is wired to control at least one lighting fixture. A user interface can connect to the wide area network and enable a user to access server control software. Control instructions entered on the server by the user interface are communicated from the server to the wireless gateway and to the wireless devices. A user site device may be connected to the site mesh network enabling a user to configure, monitor, and control lighting fixtures at the site.

Abstract: A wireless device control system includes a remote server connected to a wide area network and having control software for configuring, monitoring, and controlling devices at a site. The wireless device control system also includes a wireless gateway located at the site and configured to communicate with the remote server via cellular communication. Control devices are in wireless communication with the wireless gateway via a mesh network, with each of the control devices being wired to control one of the site devices. A computer device is connected to the wide area network and has an interface enabling a user to access the server control software. Control instructions entered on the remote server through the interface are communicated from the remote server to the wireless gateway and then from the wireless gateway to the control devices.

Abstract: Wireless lighting control systems and methods for controlling the illumination of one or more light fixtures are disclosed, including self-commissioning of hardware. Embodiments include a server connected to a wide area network and having software for configuring, monitoring, and controlling lighting fixtures at a site. The control system also includes a wireless gateway at the site initiating communication with the server via a cellular network. Wireless devices initiate communication with the wireless gateway via a mesh network and each wireless device can be wired to control at least one lighting fixture. Once hardware of the site system (e.g., a gateway and/or any device) is mounted or positioned in the appropriate location and powered on, the hardware will self-commission by automatically initiating communications. The gateway will initiate communication and identify itself to server system.

Abstract: A wireless lighting control system includes a remote server system connected to a wide area network and having software for configuring, monitoring, and controlling lighting fixtures at an installation site. The site includes wireless devices in communication with a gateway via a local wireless network and at least some of the wireless devices are configured to control lighting fixtures, including a configurable user control device, such as a wall dimmer switch, having user interface elements configurable to activate specific lighting effects, such as power, dimming, and scene control. A user computer device is connected to the wide area network and has a graphical user interface enabling virtually mapping of user interface elements to lighting effects. Configuration can advantageously be done without physical access to either the user control device or to the lighting controllers, fixtures, or other devices at the installation site.

Abstract: Wireless lighting control systems and methods for controlling the illumination of one or more light fixtures are disclosed. Embodiments include a server connected to a wide area network and having software for configuring, monitoring, and controlling lighting fixtures at a site. The control system also includes a wireless gateway at the site communicating with the server via cellular. Wireless devices communicate with the wireless gateway via a mesh network and each wireless device is wired to control at least one lighting fixture. A user interface can connect to the wide area network and enable a user to access server control software. Control instructions entered on the server by the user interface are communicated from the server to the wireless gateway and to the wireless devices. A user site device may be connected to the site mesh network enabling a user to configure, monitor, and control lighting fixtures at the site.

Abstract: A wireless device control system includes a remote server connected to a wide area network and having control software for configuring, monitoring, and controlling devices at a site. The wireless device control system also includes a wireless gateway located at the site and configured to communicate with the remote server via cellular communication. Control devices are in wireless communication with the wireless gateway via a mesh network, with each of the control devices being wired to control one of the site devices. A computer device is connected to the wide area network and has an interface enabling a user to access the server control software. Control instructions entered on the remote server through the interface are communicated from the remote server to the wireless gateway and then from the wireless gateway to the control devices.