Abstract: Audio capture systems and methods applicable to a large interactive device (LID) are provided. An audio capture method can include relating captured ambient audio provided by a first user with media presented to the first user via the LID. The method can also include indicating related media displayed on the LID based upon an audio input provided by the first user.

Abstract: According to one or more embodiments of the disclosure, virtual replication of physical things for scale-out in an Internet of Things (IoT) integrated developer environment (IDE) is shown and described. In particular, in one embodiment, a computer operates an Internet of Things (IoT) integrated developer environment (IDE) that accesses one or more real-world physical devices within a computer network that are configured to participate with the IoT IDE. The IoT IDE may then virtually replicate the one or more real-world physical devices within the IoT IDE into a configuration of virtual devices within the IoT IDE, such that simulating an IoT application within the IoT IDE results in relaying input and/or output (I/O) messages between the IoT IDE and the one or more real-world physical devices, and virtually replicating those I/O messages according to the configuration of virtual devices within the IoT IDE.

Abstract: A system, method, and computer-readable storage device configured to display a network topology on a display screen of a computing device. The network topology includes a first group of components in an expanded format and a second group of components in a collapsed format. An input is received that is associated with the second group of components, and is arranged to cause the second group of components to be expanded into the expanded format. Finally, the method includes, based on a parameter and the input, automatically collapsing the first group of components from the expanded format into the collapsed format.

Abstract: In one embodiment, a graphical user interface (GUI) is established for an Internet of Things (IoT) integrated developer environment (IDE) with one or more visual developer tools. Real and/or virtual nodes are provided within the IoT IDE having connectivity and functionality, and a plurality are connected as a logical and executable graph for a flow-based programming framework virtualized across one or more IoT layers. The nodes may then be programmed based on respective connectivity and functionality, such that the logical and executable graph has real and/or virtual inputs, real and/or virtual processing functions, and real and/or virtual actions. Upon deploying the node programming to one or more corresponding platform emulators configured to execute the node programming, the logical and executable graph may be simulated by executing the node programming to produce the one or more actions based on the one or more inputs and the one or more processing functions.

Abstract: According to one or more embodiments of the disclosure, autonomous mobile sensor movement path simulation with an integrated developer environment (IDE) is shown and described. In one embodiment, a computer operates an Internet of Things (IoT) IDE having a virtualized map view illustrating a locational relationship between objects of an IoT application within a represented physical space, where a mobile sensor is virtually represented within the IoT IDE and is configured with navigation control logic affected by external influences and controlled according to the IoT application. Virtualized external influences may be modelled within the IoT IDE that represent physical external influences within the physical space, and the navigation control logic of the mobile sensor may be operated within the IoT IDE according to the IoT application, the virtually represented mobile sensor configured to navigate within the virtual space based on the navigation control logic reacting to the virtual external influences.

Abstract: A technology for interacting with a collaborative videoconferencing environment is disclosed. A display having a substantially “L-shaped” configuration allows for display of collaborative materials and video of remote participants simultaneously, which provides for a more natural interaction for a meeting participant interacting with the collaborative materials. Meeting participants in the collaborative videoconferencing environment, both locally and remote, can simultaneously interact with the same content as if they were in the same location.

Abstract: An example method includes determining a region of interest of an interactive display. The method also includes determining a time since utilization of a user interface element exceeds a threshold. The method includes determining timing information for content in a region of the interactive display other than the region of interest, determining the content is stale based on the timing information exceeding a threshold, and removing the content from the interactive display based on the content being stale. The method includes automatically moving the user interface element progressively over a period of time from an initial location to the region other than the region of interest. The method further includes providing another user interface element capable of selecting a previous time since utilization, receiving input selecting the previous time since utilization, and moving the user interface element to a historic location associated with the previous time since utilization.

Abstract: Audio capture systems and methods applicable to a large interactive device (LID) are provided. An audio capture method can include relating captured ambient audio provided by a first user with media presented to the first user via the LID. The method can also include indicating related media displayed on the LID based upon an audio input provided by the first user.

Abstract: An arrangement for a collaborative videoconferencing environment is disclosed. A display having a substantially “L-shaped” configuration allows for display of collaborative materials and video of remote participants simultaneously, which provides for a more natural interaction for a meeting participant interacting with the collaborative materials. Additionally, a camera is arranged to focus on the meeting participants shoulder while the meeting participant is interacting with the collaborative materials. Such location of the camera provides a more natural view of the collaborator to remote users.

Abstract: In one embodiment, an Internet of Things (IoT) integrated developer environment (IDE) operates to represent an IoT application, where the IoT IDE determines whether to display on a graphical user interface (GUI) a logical view and/or map view, where the logical view illustrates logical connectivity between nodes of the IoT application, and the map view illustrates a locational relationship of the nodes within a represented physical space. The IoT IDE determines which select nodes of the logical view to display in the map view, where each node in the map view is in the logical view, and displays the logical view and/or map view on the GUI, with all nodes shown in the logical view and select nodes shown in the map view. Additionally, the IoT IDE propagates any changes received by the IoT IDE in one view into the other view when the change would affect the other view.

Abstract: Disclosed are systems, methods and computer-readable storage devices related to displaying a network topology on a display screen of a computing device. The network topology includes a first group of components in an expanded format and a second group of components in a collapsed format. An input is received that is associated with the second group of components, and is arranged to cause the second group of components to be expanded into the expanded format. Finally, the method includes, based on a parameter and the input, automatically collapsing the first group of components from the expanded format into the collapsed format.

Abstract: In one embodiment, a graphical user interface (GUI) is established for an Internet of Things (IoT) integrated developer environment (IDE) with one or more visual developer tools. Real and/or virtual nodes are provided within the IoT IDE having connectivity and functionality, and a plurality are connected as a logical and executable graph for a flow-based programming framework virtualized across one or more IoT layers. The nodes may then be programmed based on respective connectivity and functionality, such that the logical and executable graph has real and/or virtual inputs, real and/or virtual processing functions, and real and/or virtual actions. Upon deploying the node programming to one or more corresponding platform emulators configured to execute the node programming, the logical and executable graph may be simulated by executing the node programming to produce the one or more actions based on the one or more inputs and the one or more processing functions.

Abstract: According to one or more embodiments of the disclosure, virtual replication of physical things for scale-out in an Internet of Things (IoT) integrated developer environment (IDE) is shown and described. In particular, in one embodiment, a computer operates an Internet of Things (IoT) integrated developer environment (IDE) that accesses one or more real-world physical devices within a computer network that are configured to participate with the IoT IDE. The IoT IDE may then virtually replicate the one or more real-world physical devices within the IoT IDE into a configuration of virtual devices within the IoT IDE, such that simulating an IoT application within the IoT IDE results in relaying input and/or output (I/O) messages between the IoT IDE and the one or more real-world physical devices, and virtually replicating those I/O messages according to the configuration of virtual devices within the IoT IDE.

Abstract: According to one or more embodiments of the disclosure, autonomous mobile sensor movement path simulation with an integrated developer environment (IDE) is shown and described. In one embodiment, a computer operates an Internet of Things (IoT) IDE having a virtualized map view illustrating a locational relationship between objects of an IoT application within a represented physical space, where a mobile sensor is virtually represented within the IoT IDE and is configured with navigation control logic affected by external influences and controlled according to the IoT application. Virtualized external influences may be modelled within the IoT IDE that represent physical external influences within the physical space, and the navigation control logic of the mobile sensor may be operated within the IoT IDE according to the IoT application, the virtually represented mobile sensor configured to navigate within the virtual space based on the navigation control logic reacting to the virtual external influences.

Abstract: According to one or more embodiments of the disclosure, virtualized things from physical objects for an Internet of Things (IoT) integrated developer environment (IDE) is shown and described. In particular, in one embodiment, a computer operates an Internet of Things (IoT) integrated developer environment (IDE), which discovers user devices within a computer network that are configured to participate with the IoT IDE. The IoT IDE may then determine a set of participating user devices, and connects to that set of participating user devices to establish a respective virtualized functionality for each participating user device of the set. Accordingly, an IoT application within the IoT IDE may be simulated where the simulating relays input and/or output (I/O) messages between the IoT IDE and the set of participating user devices according to their corresponding established functionality.

Abstract: A technology for interacting with a collaborative videoconferencing environment is disclosed. A display having a substantially “L-shaped” configuration allows for display of collaborative materials and video of remote participants simultaneously, which provides for a more natural interaction for a meeting participant interacting with the collaborative materials. Meeting participants in the collaborative videoconferencing environment, both locally and remote, can simultaneously interact with the same content as if they were in the same location.

Abstract: A device to detect a portable device associated with a user accessing an accessible region of the device with a sensor, identify the portable device and log the user into the device with a profile of the user if the accessible region is accessed by the portable device, and generate a session on the device based on the profile of the user.

Abstract: A technology for interacting with a collaborative videoconferencing environment is disclosed. A display having a substantially “L-shaped” configuration allows for display of collaborative materials and video of remote participants simultaneously, which provides for a more natural interaction for a meeting participant interacting with the collaborative materials. Meeting participants in the collaborative videoconferencing environment, both locally and remote, can simultaneously interact with the same content as if they were in the same location.

Abstract: Image display systems and methods are provided. A plurality of pixel groups, each including a plurality of independent pixels, forms a display. A plurality of lenses (1251-N) forming an optical array and aligned along at least one axis (130), can be disposed proximate the display. Each of the plurality of lenses can provide a limited viewing arc (1501-N) for each of the plurality of independent pixels. A sample system can also include a detector (160) to detect the presence and location of a first user (165) and a second user (170) and logic (175), that when executed by a processor (180) coupled to the display, routes a first display signal (1451) based upon the viewing arc of a first portion of pixels; and routes a second display signal (1452) based upon the viewing arc of a second portion of pixels.

Abstract: A technology for interacting with a collaborative videoconferencing environment is disclosed. A display having a substantially “L-shaped” configuration allows for display of collaborative materials and video of remote participants simultaneously, which provides for a more natural interaction for a meeting participant interacting with the collaborative materials. Meeting participants in the collaborative videoconferencing environment can be classified based on position with respect to the environment, or their likely interaction profile. The technology can configure a meeting experience based on the classification of the meeting participant.