Abstract:
Strategies are described for navigating through a database of media resources. The strategies present a user interface presentation that employs different display paradigms depending on the type of media resource being investigated. If the consumer is interrogating a media resource that has different associated “child” resources associated therewith, then a first kind of user interface presentation may be appropriate. If the consumer is interrogating a media resource that is a standalone resource having no child resources, then a second kind of user interface presentation may be appropriate. Still other kinds of display paradigms are possible.
Abstract:
A system coupled to a presentation device, such as, for example, a television or audio speaker. The system receives a selection of a program for presentation to a user of the system. The system provides information, including, for example, a sound or displayed icon, to indicate to the user that, if the user transitions away from the program, the user will be able to transition at a later time to presentation of the program.
Abstract:
A user-input device includes a control having an axis. A circuit is coupled to the control and generates a first command signal in response to movement of the control about the axis from a first angular position to a second angular position. The circuit generates a second command signal in response to linear movement of the control from a first linear position to a second linear position. A transmitter may be coupled to the circuit to wirelessly transmit the first and second command signals to an electronic device.
Abstract:
Searching electronic program guide (EPG) data is described. The EPG data may be compartmentalized into channel metadata that describes characteristics of one or more channels and content metadata that describes characteristics of one or more content items. In a implementation, a method includes searching channel metadata and content metadata. A result of the searching is formed for output in conjunction with an electronic program guide (EPG).
Abstract:
Overlaying visual interface information atop a video signal without obscuring desired features of the video signal. The video signal may contain one or more pre-selected features, such as text. Two or more display sections equally divide the video signal, and any pre-selected features in the video signal are identified as residing in particular display sections. Depending on the nature of the features, the selected visual interface information is placed atop the video signal in a display section not containing any pre-selected features so as not to cover or obscure the features or is placed over specified features that do not significantly contribute to the video signal, such as blank or static screen regions. A hierarchy of preferred display sections for placing the visual interface information may be created to optimize the placement thereof. The methods for overlaying visual interface information find particular application with interactive television systems.
Abstract:
Overlaying visual interface information atop a video signal without obscuring desired features of the video signal. The video signal may contain one or more pre-selected features, such as text. Two or more display sections equally divide the video signal, and any pre-selected features in the video signal are identified as residing in particular display sections. Depending on the nature of the features, the selected visual interface information is placed atop the video signal in a display section not containing any pre-selected features so as not to cover or obscure the features or is placed over specified features that do not significantly contribute to the video signal, such as blank or static screen regions. A hierarchy of preferred display sections for placing the visual interface information may be created to optimize the placement thereof. The methods for overlaying visual interface information find particular application with interactive television systems.
Abstract:
An electronic program guide system receives data that identifies various types of available media content. A data-driven media guide is then generated to display visual representations of the available media content. The media guide is dynamically generated based on attributes associated with the various types of available media content.
Abstract:
The present disclosure relates to displaying full scale images with overlaid similar scaled images and a graphical user device in a display of a client device. The client device receives video streams of the full scale images and scaled images. The video streams are broadcast independent of one another, and a user of the client device may manipulate the format of the images of either or both streams, and/or place the scaled image on any portion of the full scaled image. The graphical user interface is placed so it does not obscure the scaled image. Alternatively a single video stream may be received by the client device. When a single video stream is received, the client device creates two video streams, one stream comprising full scale images and the other stream comprising scaled images. The full scale image is overlaid with the scaled image and the graphical user interface.
Abstract:
To prevent disorientation, the described systems and methods continuously maintain a visual landmark during electronic navigation of a one-dimensional list of items or a two-dimensional information grid in situations where only a part of the list or the information grid is displayed at a given time. In one implementation, an electronic program guide is dynamically scaled to maintain visibility of a navigation starting point during browsing with rudimentary navigation controls, but reverts back to a legible scale when navigation stops.
Abstract:
The current application is directed to an intelligent-thermostat-controlled environmental-conditioning system in which computational tasks and subcomponents with associated intelligent-thermostat functionalities are distributed to one or more of concealed and visible portions of one or more intelligent thermostats and, in certain implementations, to one or more intermediate boxes. The intelligent thermostats are interconnected to intermediate boxes by wired and/or wireless interfaces and intelligent thermostats intercommunicate with one another by wireless communications. Wireless communications include communications through a local router and an ISP, 3G and 4G wireless communications through a mobile service provider. Components of the intelligent-thermostat-controlled thermostat-controlled environmental-conditioning system may also be connected by wireless communications to remote computing facilities.