Abstract: In one embodiment, a virtual room-based user interface suited for use on a “small screen” is provided that organizes representations of devices in a virtual room into a sequence, allows a user to cycle through the representations of devices in the sequence so only a single one is selected at any given time, and individually control the device corresponding to a selected representation using a designated control region separate from the representation of the selected device.

Abstract: Techniques are provided for defining and activating scenes in a home automation system. In one embodiment, a user-defined scene is automatically captured based on current states in a home automation system and a last media query. Current states in the home automation system are automatically captured for services to build a set of states, the set of states including states of services provided by multiple different types of devices, the multiple different types including two or more of audio/video (A/V) devices, lighting devices, heating ventilation and cooling (HVAC) devices, security devices, shade control devices, energy conservation devices, or communications devices. A last media query performed by the home automation system is also captured. A user-defined scene is generated from both. The user-defined scene is stored, and when it is determined it should be activated, service requests are sent.

Abstract: In various embodiments, techniques are provided for utilizing a WPAN (e.g., BLE) and an in-home LAN (e.g., Wi-Fi network) together to provision and/or configure hardware elements of a home automation system. In one embodiment, a first WPAN-discoverable hardware element (e.g., a host controller) of the home automation system advertises its presence on a WPAN. The first WPAN-discoverable hardware element receives user-provided network credentials from a mobile app, which are used to configure the first WPAN-discoverable hardware element on the in-home LAN, and which are stored in a storage device of the first WPAN-discoverable hardware element. To provision a second WPAN-discoverable hardware element (e.g., a device) of the home automation system on the in-home LAN, the first WPAN-discoverable hardware element transfers the network credentials back to the mobile app via the in-home LAN, and causes the mobile app to forward the network credentials via the WPAN to the second hardware element.

Abstract: Example techniques are provided for controlling volume of A/V devices using an improved volume control. The volume control may be implemented as a slider, where the sliding element is temporarily slid in response to user input (e.g., touched and dragged by the user), but then automatically “snaps” back to the center of the slider's range when the user input ends (e.g., is released by the user). Movement of the element from the center is interpreted as a relative volume adjustment, with the rate of volume change being proportional to the distance between the center of the range and the temporary position of the element. An indicator is provided indicating the rate, to provide user feedback. The volume control may be utilized as a master volume control in a home automation system.

Abstract: In various embodiments, techniques are provided for utilizing a WPAN (e.g., BLE) and an in-home LAN (e.g., Wi-Fi network) together to provision and/or configure hardware elements of a home automation system. In one embodiment, a first WPAN-discoverable hardware element (e.g., a host controller) of the home automation system advertises its presence on a WPAN. The first WPAN-discoverable hardware element receives user-provided network credentials from a mobile app, which are used to configure the first WPAN-discoverable hardware element on the in-home LAN, and which are stored in a storage device of the first WPAN-discoverable hardware element. To provision a second WPAN-discoverable hardware element (e.g., a device) of the home automation system on the in-home LAN, the first WPAN-discoverable hardware element transfers the network credentials back to the mobile app via the in-home LAN, and causes the mobile app to forward the network credentials via the WPAN to the second hardware element.

Abstract: Techniques are provided for power optimization of home automation system devices (e.g., battery-powered devices). In one example embodiment, the power optimization is based on service states for a room associated with the device. A service state is determined for each of one or more services available in the room. The device is maintained in a low-power inactive state while there are no active services in the room. In response to at least one service being activated, the device transitions from the inactive state to a full-power in-use state. Such transition is performed preemptively, absent any current attempt to use the device by a user or another device. In response to expiration of a timer since a last use of the device or the transition to the in-use state was made and no actual use occurred, the device exits the in-use state and may eventually return to the inactive state.

Abstract: In one embodiment, a menu is semi-transparently overlaid upon a portion of a video being shown on a television coupled to a programmable multimedia controller. The menu has a plurality of selectable options and a selection cursor disposed on one of the plurality of selectable options. Input is received from a user on the remote control unit indicating a direction. In response to the input indicating the direction, the selection cursor is moved in a corresponding direction within the semi-transparently overlaid menu to bring the selection cursor to be disposed on a designated selectable option to permit selection of the designated selectable option. In response to selection of the designated selectable option, the programmable multimedia controller issues one or more control commands to a lighting system, a heating ventilation and air/conditioning (HVAC) system, and/or to an automatic shade system, to control operation of lighting, HVAC or window shades.

Abstract: In one embodiment, a technique is provided to configure a home multimedia system. Software executing on a controller or other device access component profiles describing attributes of components, one or more zone configurations that indicate components that are present in one or more zones, and one or more connection configurations that indicates how components that are present in the one or more zones are interconnected. The software applies a set of predefined service rules to the data structures to generate workflows for possible services, wherein each service rule defines one or more components and one or more interactions required for providing a corresponding service, and each workflow indicates how one or more of the components that are present in the one or more zones interact to provide a service. Executable forms of the workflows are generated, and executed to provide services to a user.

Abstract: In one embodiment, a general-purpose wireless mobile device having a touch-sensitive screen and executing a remote control application is used to remotely control a vehicle (e.g., a marine vessel). The general-purpose wireless mobile device communicates via a wireless network with an interface (e.g., a server) that is coupled to an electronic control system of the vehicle (e.g., the vessel). In operation, environmental information and/or system status information is collected through the electronic control system, propagated to the interface (e.g., server), and then sent over the wireless network to the wireless mobile device. Similarly, control input is sent over the wireless network to the interface (e.g., server), which passes the information to the electronic control system, which in turn issues appropriate control signals to the vehicle subsystems (e.g., marine subsystems) to control the motion of the vehicle (e.g., the vessel).

Abstract: In one embodiment, location aware operation is provided using Bluetooth positioning. A Bluetooth-enabled handheld device is operated within a structure. Received Bluetooth signal strengths are measured for a plurality of Bluetooth-enabled transmitter/receiver units dispersed within the structure, where respective ones of the plurality of Bluetooth-enabled transmitter/receiver units are located on separate floors, in separate rooms, or in different portions of a same room. Based on the received Bluetooth signal strengths, a single Bluetooth-enabled transmitter/receiver unit is selected. A location of the selected Bluetooth-enabled transmitter/receiver unit is assigned to the Bluetooth-enabled handheld device. A first electronic device is controlled based on the assigned location. In response to movement by a user of the Bluetooth-enabled handheld device within the structure, a location of a different Bluetooth-enabled transmitter/receiver unit is reassigned to the Bluetooth-enabled handheld device.

Abstract: In one embodiment, a general-purpose wireless mobile device having a touch-sensitive screen and executing a remote control application is used to remotely control a vehicle (e.g., a marine vessel). The general-purpose wireless mobile device communicates via a wireless network with an interface (e.g., a server) that is coupled to an electronic control system of the vehicle (e.g., the vessel). In operation, environmental information and/or system status information is collected through the electronic control system, propagated to the interface (e.g., server), and then sent over the wireless network to the wireless mobile device. Similarly, control input is sent over the wireless network to the interface (e.g., server), which passes the information to the electronic control system, which in turn issues appropriate control signals to the vehicle subsystems (e.g., marine subsystems) to control the motion of the vehicle (e.g., the vessel).

Abstract: In one embodiment, a programmable multimedia controller controls electronic devices, including display devices. A remote control communicates with the programmable multimedia controller. An on screen display is displayed on a selected one of the display devices. The on screen display enables the selected one of the display devices to function as a virtual telephone that is user-operable to initiate outgoing telephone calls and to answer incoming telephone calls. When an outgoing telephone call or incoming telephone call is in progress, the on screen display shows text or graphics related to the outgoing telephone call or the incoming telephone call. The on screen display is overlaid on another video signal which is already being displayed on the selected one of the display devices.

Abstract: In one embodiment, a configuration application executing on a tablet computer or smartphone presents a configuration user interface on a touch screen for configuring a home automation system of a structure. A plurality of components of the home automation system that have wireless capabilities are detected. The configuration application receives an indication of a zone of the structure within which each component is located, the indication provided by the user dragging a representation of each component to a location provided in the configuration user interface. Based on the indication of the zone of the structure in which each component is located and the type of each component, automatically generate one or more user interface screens for accessing and controlling the components in each zone, where the automatically generated user interface screens are displayable during use of the home automation system.

Abstract: In one embodiment, a configuration application executing on a tablet computer or smartphone presents a configuration user interface on a touch screen for configuring a home automation system of a structure. A plurality of components of the home automation system that have wireless capabilities are detected. Component profile information for the detected components is obtained. The configuration application prompts a user of the tablet computer or smartphone to indicate a zone of the structure within which each component is located. Based on the component profile information and the indications of the zone of the structure in which each component is located, one or more services available in each zone are determined and one or more user interface screens are automatically generated for accessing and controlling the services, wherein the automatically generated user interface screens are displayable on the tablet computer or smartphone or another tablet computer or smartphone.

Abstract: Techniques are provided for defining and activating scenes in a home automation system. In one embodiment, a user-defined scene is automatically captured based on current states in a home automation system and a last media query. Current states in the home automation system are automatically captured for services to build a set of states, the set of states including states of services provided by multiple different types of devices, the multiple different types including two or more of audio/video (A/V) devices, lighting devices, heating ventilation and cooling (HVAC) devices, security devices, shade control devices, energy conservation devices, or communications devices. A last media query performed by the home automation system is also captured. A user-defined scene is generated from both. The user-defined scene is stored, and when it is determined it should be activated, service requests are sent.

Abstract: In one embodiment, a state center operates as a repository and exchange point for telephony state information that would not typically be accessible from an Internet Protocol private branch exchange (IP PBX), and control state information that would not typically be accessible from a programmable multimedia controller. In such manner, the state center enables telephony responsive audio/video (A/V) and home automation device control, and A/V and home automation device responsive telephony control.

Abstract: In one embodiment, a programmable multimedia controller that is capable of interfacing with and controlling audio, video, telephony or heating ventilation, and air conditioning (HVAC) devices. A first mobile device and a second mobile device of a same type are configured to communicate with the programmable multimedia controller. The first mobile device obtains a first copy of a sharable device configuration including data for rendering a user interface usable to control the programmable multimedia controller. It stores the first copy of the sharable device configuration and thereby is considered a master device with respect to other devices of the same type. The second mobile device obtains a second copy of the sharable device configuration for use on the second mobile device from the master device.

Abstract: In one embodiment, a technique is provided to configure a home multimedia system. Software executing on a controller or other device access component profiles describing attributes of components, one or more zone configurations that indicate components that are present in one or more zones, and one or more connection configurations that indicates how components that are present in the one or more zones are interconnected. The software applies a set of predefined service rules to the data structures to generate workflows for possible services, wherein each service rule defines one or more components and one or more interactions required for providing a corresponding service, and each workflow indicates how one or more of the components that are present in the one or more zones interact to provide a service. Executable forms of the workflows are generated, and executed to provide services to a user.

Abstract: A docking station adapted to receive a touch-sensitive portable control device for communication with a programmable multimedia controller is provided. The docking station has a dedicated, wired redundant communication path coupling the docking station to the programmable multimedia controller for providing effective communication in the absence of wireless or unreliable wireless communications. The docking station is configured to receive signals from the portable control device and to bi-directionally transmit signals to and from said programmable multimedia controller. The portable control device has both wireless and wired compatibility, which includes a touch sensitive user interface configured with configuration information for allowing a user to make selections and enter settings regarding components interfaced with the programmable multimedia controller. The docking station converts the user entered signals into IP messages suitable for transfer over the dedicated, wired redundant communication path.

Abstract: An integrated multimedia, entertainment, communications and control system. The system is based on a general purpose computer and is capable of interfacing with, controlling or managing a wide variety of audio, video, telecommunications, data communications or other devices. The system includes a programming environment for creating services or user experiences that may incorporate features or functionalities of several devices that are conventionally operated as separate, standalone devices.