Abstract: A method includes using at least one processor to receive image data including one or more virtual objects and determining a distance between a user extremity and the one or more virtual objects based on the image data. Further, the method includes detecting a first gesture of the user extremity based on the image data and generating a virtual sphere within a virtual object of the one or more virtual objects. The method also includes determining that the distance is less than a threshold, detecting movement of the user extremity based on the image data, and adjusting a position of the virtual object based on the movement of the user extremity.

Abstract: An input device includes a control surface for a color correction system. The control surface includes a housing with an upwardly facing control panel. The control panel has a proximal edge which is nearest a user and a distal edge that is furthest from a user in normal use. The control panel includes a plurality of controls. The plurality of controls includes: a plurality of trackballs, wherein each trackball comprises a ball and a control ring, said ball cooperating with at least one encoder to generate a multi-dimensional control signal based on motion of the ball, and said control ring cooperating with at least one encoder to generate a one dimensional control signal based on the rotational motion of the ring, wherein the ball of said trackball is mounted concentrically with said control ring; a plurality of control buttons; and a plurality of knobs coupled to respective rotary encoders.

Abstract: A system for aiming a headlamp of a vehicle includes a displaceable aiming surface and an imaging system. The imaging system includes a translatable aim box carrying at least one headlamp imager oriented to capture images of a single headlamp and/or one or more vehicle features adjacent to the single headlamp. At least one fixed imager is oriented to capture one or more images of the displaceable aiming surface. The translatable aim box may be configured to translate between the single headlamp and another headlamp. One or more computing devices are configured to perform methods for headlamp aim correction using the described system. Methods for headlamp aim correction are described.

Abstract: A system for aiming a headlamp of a vehicle includes a displaceable aiming surface and an imaging system. The imaging system includes a translatable aim box carrying at least one headlamp imager oriented to capture images of a single headlamp and/or one or more vehicle features adjacent to the single headlamp. At least one fixed imager is oriented to capture one or more images of the displaceable aiming surface. The translatable aim box may be configured to translate between the single headlamp and another headlamp. One or more computing devices are configured to perform methods for headlamp aim correction using the described system. Methods for headlamp aim correction are described.

Abstract: A system for aiming a headlamp of a vehicle includes a displaceable aiming surface and an imaging system. The imaging system includes a translatable aim box carrying at least one headlamp imager oriented to capture images of a single headlamp and/or one or more vehicle features adjacent to the single headlamp. At least one fixed imager is oriented to capture one or more images of the displaceable aiming surface. The translatable aim box may be configured to translate between the single headlamp and another headlamp. One or more computing devices are configured to perform methods for headlamp aim correction using the described system. Methods for headlamp aim correction are described.

Abstract: A vehicle headlamp includes a housing, at least one lamp located in the housing, at least one beam alignment light source positioned in the housing and configured to project an image to aid in alignment of the at least one lamp, and at least one beam alignment mechanism operably coupled to the housing and configured to adjust the direction of light from the at least one lamp based on an image projected by the beam alignment light source.

Abstract: A vehicle headlamp includes a housing. One or more lamps are located in the housing. A beam alignment light source is positioned in the housing and is configured to aid in alignment of the one or more lamps. A beam alignment mechanism is operably coupled to the housing and configured to adjust the direction of light from at least one of the one or more lamps. A method of aligning the vehicle headlamp includes the steps of: illuminating an alignment light source within the vehicle headlamp; projecting the illuminated alignment light source onto a surface; aligning the alignment light source to a pre-determined position on the surface; and adjusting one or more lamps to correspond with the pre-determined position of the alignment light source.

Abstract: A vehicle headlamp aiming system includes a displaceable aiming surface and an imaging system. The imaging system includes an indexing aim box having at least one imager oriented to capture images of a headlamp and/or one or more vehicle features adjacent to the headlamp and at least one fixed imager oriented to capture one images of the displaceable aiming surface to determine a headlamp cutoff height. The displaceable aiming surface is configured to selectively displace to allow passage of the vehicle. The indexing aim box is configured to translate between the headlamp and another headlamp. One or more computing devices are configured to perform methods for headlamp aim correction using the described system. The methods include providing image inputs from the imaging system and calculating therefrom an aim correction of the headlamps.

Abstract: A system for aiming a headlamp of a vehicle includes a displaceable aiming surface and an imaging system. The imaging system includes a translatable aim box carrying at least one headlamp imager oriented to capture images of a single headlamp and/or one or more vehicle features adjacent to the single headlamp. At least one fixed imager is oriented to capture one or more images of the displaceable aiming surface. The translatable aim box may be configured to translate between the single headlamp and another headlamp. One or more computing devices are configured to perform methods for headlamp aim correction using the described system. Methods for headlamp aim correction are described.

Abstract: A vehicle headlamp aiming system includes a displaceable aiming surface and an imaging system. The imaging system includes an indexing aim box having at least one imager oriented to capture images of a headlamp and/or one or more vehicle features adjacent to the headlamp and at least one fixed imager oriented to capture one images of the displaceable aiming surface to determine a headlamp cutoff height. The displaceable aiming surface is configured to selectively displace to allow passage of the vehicle. The indexing aim box is configured to translate between the headlamp and another headlamp. One or more computing devices are configured to perform methods for headlamp aim correction using the described system. The methods include providing image inputs from the imaging system and calculating therefrom an aim correction of the headlamps.

Abstract: There is disclosed a system and method for provisioning mobile communication device upgrades. In an embodiment, the method comprises: providing an automated web service device management interface (“WSDMI”) accessible to one or more carriers; adapting a supplier provisioning system to receive via the WSDMI one or more upgrade requests from the one or more carriers; adapting the supplier provisioning system to respond via the WSDMI to the one or more upgrade requests from the one or more carriers; and adapting the supplier provisioning system to execute one or more device upgrades on one or more supplier provisioning system connected devices. In an embodiment, the receiving and responding via the WSDMI is based on SOAP encoded XML messages.

Abstract: There is disclosed a system and method for provisioning mobile communication device upgrades. In an embodiment, the method comprises: providing an automated web service device management interface (“WSDMI”) accessible to one or more carriers; adapting a supplier provisioning system to receive via the WSDMI one or more upgrade requests from the one or more carriers; adapting the supplier provisioning system to respond via the WSDMI to the one or more upgrade requests from the one or more carriers; and adapting the supplier provisioning system to execute one or more device upgrades on one or more supplier provisioning system connected devices. In an embodiment, the receiving and responding via the WSDMI is based on SOAP encoded XML messages.

Abstract: A water feature comprising a vessel (1) for containing water, an electrically powered submersible water pump (2) within the vessel (1) for pumping water to an outlet of the water feature and a solar panel (4) arranged to provide electrical power to the water pump (2). The solar panel (4) is arranged within said water vessel (1) above the water pump and so as to be beneath the water level (7) in the vessel (1) in use.

Abstract: A camera producing colour video outputs may employ an image intensifier 5 and a monochrome CCD sensor 3. The scene is exposed through filters F3, F4 which may each contain stripes of subtractive primary colours alternating with clear regions. The video is decoded using waveforms derived from a memory which records the output of the sensor when imaged on, for example, primary colours such as red and blue, producing trains of pulses which identify the spatial regions of each line corresponding to the spatial areas of the pattern on the sensor produced by the colour filters F3, F4, in order that actual scenes can be decoded using the stored waveforms, for example using sample and hold devices. A colour interference signal is generated in matrix addition circuitry 10 to produce a luminance signal which has stripe visibility removed from it, permitting high resolution video signals to be obtained.

Abstract: A system and method for provisioning software. A managed hardware device connected to a network is discovered in response to a service order created on a remote server. A service agent and software container is sent from the server to the device. Software in the container is started up and the device is monitored and managed from the server.

Abstract: A fire suppression assembly comprising a blanket and a packet securely attached to the blanket near the centre by means of an adhesive. The blanket is a standard fire blanket and the packet comprises a housing made from a heat-sealed high density polyethylene, containing a fire suppressing formulation.

Abstract: The present invention provides a esterified and subsequently hydrogenated phytosterol composition for use alone or for incorporation into foods, beverages, pharmaceuticals, nutraceuticals, and the like. The composition has the advantage of enhanced solubility/dispersability, increased molar potency and enhanced stability over naturally isolated phytosterol compositions. Methods for the esterification and subsequent hydrogenation of the phytosterols are also provided.

Abstract: A nozzle arrangement for a medium expansion foam fire extinguisher. The nozzle arrangement comprises a discharge tube with a discharge port for the foam at one end. At the other end there is a full cone supply nozzle for the foam concentrate solution. The tube has air inlets in line with the outlet from the spray nozzle. A mesh screen is located between the supply nozzle and the discharge outlet.