Abstract: Methods and systems for providing virtual workspaces are provided. Example embodiments provide a Application Workspace System “AWS,” which enables users to access remote server-based applications (e.g., thin client applications, terminal server applications, applications on hosted operating systems, etc.) using the same interface that they use to access local applications, without needing to know where the application is being accessed. The AWS automatically determines which applications the user is entitled to use, and then figures out automatically, based upon a variety of parameters, which applications are to be made available to the user (resolved to version, particular package etc.), and whether they are to be installed locally, or accessed remotely. This abstract is provided to comply with rules requiring an abstract, and it is submitted with the intention that it will not be used to interpret or limit the scope or meaning of the claims.

Abstract: The invention provides systems and methods for providing a unified single-scan user interface for accessing and managing a remotely located device throughout its life cycle, including cellular network provisioning, cloud data provider registration, initialization and activation, as well as providing end users with easy access to the device and its data. The end user simply powers the device on and the device automatically connects with the communication network and the cloud data provider. The device comes to the end user already provisioned and paired and activated with the cloud data provider and the communication network provider. The device is capable of monitoring operational and/or environmental parameters comprising physical and/or chemical data which may be monitored by a mobile device. The mobile device may also initiate modification of the manufactured device's parameters.

Abstract: The invention provides systems and methods for providing a unified single-scan user interface for accessing and managing a remotely located device throughout its life cycle, including cellular network provisioning, cloud data provider registration, initialization and activation, as well as providing end users with easy access to the device and its data. The end user simply powers the device on and the device automatically connects with the communication network and the cloud data provider. The device comes to the end user already provisioned and paired and activated with the cloud data provider and the communication network provider. Device-specific data is, at manufacture, encoded onto machine-readable labels and complied in a table within a remote database. The present invention thus allows identification and provisioning of individual devices using a mobile device such as a smartphone or the like.

Abstract: A head-mountable display (HMD) comprises a frame for mounting on a user's head, a camera mounted on the frame for capturing a view of the user's eyes, a motion detector for detecting motion of the HMD and for generating a motion signal representing a movement of the HMD with respect to time, and a controller. The controller estimates a distance between the user's eyes by capturing a relative separation of the user's eyes from an image of the user's eyes captured by the camera at a start position. The controller processes a motion period of the motion signal, and estimates a displacement of the user's eyes with respect to the frame. The HMD can adjust a relative position at which a first image is displayed to one eye and position at which a second image is displayed to the other eye for an improved viewing experience.

Abstract: A prosthetic valve assembly for implantation in a patient's circulatory system includes a stent, a valve member coupled to the stent and defining a preferred landing zone relative to anatomical structures in the patient's circulatory system, and at least one marker positioned in a predetermined relationship relative to the landing zone of the valve member, the marker being visually distinguishable from the stent using an imaging technique. By observing the marker, the prosthetic valve assembly may be implanted in the patient so that certain ones of the anatomical structures lie within the landing zone.

Abstract: An automated block or brick construction apparatus is provided by adapting a base transport assembly with a specialized working platform for brick, block and mortar. The working platform houses at least one robotic arm to accurately position mortar and block or brick in place on a wall construction. The working platform is controlled by a 3-D stringless guidance system for positioning vertically, horizontally, and laterally. The robotic arms place and position a block or brick and stage the subsequent blocks or bricks for installation. A first robotic arm can apply mortar onto a wall while a second robotic arm places a concrete masonry unit accurately onto the mortar and also place blocks in position. Application and movement of mortar and blocks are controlled by a programmable central processing unit.

Abstract: The current invention concerns an apparatus that is an explosive disruption device and a method for its use. The apparatus includes an internal container which holds an explosive charge, an external container which holds the internal container and a screw lid which holds the internal container in place within the external container.

Abstract: A method of rendering an image based upon a first stereoscopic image comprising a pair of images is provided. The method includes generating a virtual three-dimensional model of the scene depicted in the first stereoscopic image responsive to distances derived from the first stereoscopic image, detecting one or more free edges in the three dimensional model, and generating one or more textures for the virtual three-dimensional model from at least one of the pair of images of the first stereoscopic image. The method also includes applying at least one texture to a respective part of the three dimensional model, and rendering the virtual three dimensional model from a different viewpoint to that of the first stereoscopic image. Rendering the virtual three dimensional model comprises modifying a transparency of rendered pixels of an applied texture as a function of the pixel's distance from that free edge.

Abstract: A method of real-time video playback is provided. The method includes receiving video image data, receiving supplementary data relating to at least one step of a process of rendering a 3D model of a scene depicted in a current frame of the video image data, and obtaining texture information from the video image data. The method also includes selecting at least a first viewpoint for rendering the 3D model of the scene, and rendering the 3D model of the scene depicted in the current frame of the video image data at the first selected viewpoint using the obtained textures.

Abstract: A method of augmenting a first stereoscopic image, comprising a pair of images, is provided. The method includes generating a disparity map from the pair of images of the first stereoscopic image. The disparity map is indicative of distances in the first stereoscopic image. The method further includes generating a virtual three-dimensional model responsive to the distances indicated by the disparity map, modeling an interaction of a virtual object with that three dimensional model, and outputting, for display, an image corresponding to the first stereoscopic image that comprises a visible effect of the interaction of the virtual object with the three dimensional model.

Abstract: A method of image reconstruction is provided. The method includes capturing a stereoscopic pair of images of a scene, generating a disparity map for the pair of images, and defining a series of value ranges corresponding to disparity with each value range in the series having an end point corresponding to a greater disparity than an end point of preceding value ranges in the series. For each value range in the series, and progressing in order through the series from the first value range in the series, the method includes selecting points in the disparity map falling within the respective value range and generating a mesh responsive to those selected points. The method also includes subsequently merging the series of generated meshes to form a 3D model of the scene.

Abstract: A head-mountable display device comprises a frame to be mounted onto a user's head. The frame defines an eye display position which is positioned in front of a user's eye. A reflective element is mounted with respect to the eye display position and comprises a reflective surface which is visible to the eye of the user. A mobile device holder is configured to hold a mobile device on the frame. The reflective surface is configured to reflect light incident upon the reflective surface, forming a reflected image. The location and orientation in which the mobile device is held relative to a location and orientation of the reflective surface are such that light arriving from a screen of the mobile device held in the mobile device holder is reflected by the reflective surface so that a reflected image of at least part of the screen is visible to the user.

Abstract: A head-mountable display system comprises a frame to be mounted onto an observer's head. The frame defines one or two eye display positions for positioning in front of a respective eye of the observer. A display element is mounted with respect to each of the eye display positions, and provides a virtual image of a video display of a video signal from a video signal source to that eye of the observer. A motion detector detects motion of the observer's head. A high-pass filter is arranged to generate higher frequency and lower frequency components of the detected motion, according to a threshold frequency associated with the response of the high-pass filter. And a controller controls the display of the video signal based upon the detected motion, to compensate for the higher frequency component of motion by moving the displayed image in an opposite direction to that of the detected motion.

Abstract: A head-mountable display system comprises a head mountable display having a frame to be mounted onto an observer's head, the frame defining one or two eye display positions which, in use, are positioned for viewing by the observer. The frame comprises one or more shutters for obscuring the observer's view of the surrounding real environment and a display element mounted with respect to each of the eye display positions. The display element provides a virtual image of a video display of a video signal from a video signal source to the observer. An object detector detects the presence of an object within a detection range of the observer's head. And a controller controls operation of the head mountable display so as to allow the observer to view at least a portion of the surrounding real environment in response to detection of the presence of an object within the detection range.

Abstract: An audio system comprises a headset comprising a pair of earpieces positionable with respect to the user's ears so that, in use, the user is inhibited from hearing sounds from the user's environment, at least one of the earpieces having a transducer for reproducing sounds from an input audio signal; a microphone for generating a captured audio signal representing captured sounds from the user's environment; a detector for detecting the presence of any of a set of one or more characteristic sounds in the captured audio signal; and a controller operable to transmit sounds from the user's environment to the user in response to a detection that one or more of the set of characteristic sounds is present in the captured audio signal.

Abstract: Methods and systems for providing synchronization of directory data between directory servers are provided. Example embodiments provide a Application Workspace System “AWS,” which enables users to access remote server-based applications using the same interface that they use to access local applications, without needing to know where the application is being accessed. In one embodiment of the AWS, every data entry in the LDAP is automatically replicated to the other directories using XLDAPS technology. In one embodiment, XLDAPS uses XSLT transformation rules to synchronize LDAP changes to different LDAP Directories which may have a different LDAP Schema and a different LDAP Directory Information Tree structure This abstract is provided to comply with rules requiring an abstract, and it is submitted with the intention that it will not be used to interpret or limit the scope or meaning of the claims.

Abstract: Methods and systems for providing virtual workspaces are provided. Example embodiments provide a Application Workspace System “AWS,” which enables users to access remote server-based applications (e.g., thin client applications, terminal server applications, applications on hosted operating systems, etc.) using the same interface that they use to access local applications, without needing to know where the application is being accessed. The AWS automatically determines which applications the user is entitled to use, and then figures out automatically, based upon a variety of parameters, which applications are to be made available to the user (resolved to version, particular package etc.), and whether they are to be installed locally, or accessed remotely. This abstract is provided to comply with rules requiring an abstract, and it is submitted with the intention that it will not be used to interpret or limit the scope or meaning of the claims.