Abstract: A plugin works with a remote desktop client that is executing on a client computing device to present a user interface of a communications application that is executing in a cloud computing environment. The plugin enables the remote desktop client to conduct audio and/or video communication with a remote computing device in a peer-to-peer manner rather than via the communications application. The plugin also enables the remote desktop client to determine a hardware-based media processing capability of the client computing device and leverage such capability in conducting the peer-to-peer audio and/or video communication with the remote computing device. Such hardware-based media processing capability may be used, for example, to process media received from the remote computing device, to process media captured from a media source of the client computing device, or as a basis for negotiating a media communication parameter with the remote computing device.

Abstract: A plugin works with a remote desktop client that is executing on a client computing device to present a user interface of a communications application that is executing in a cloud computing environment. The plugin enables the remote desktop client to conduct audio and/or video communication with a remote computing device in a peer-to-peer manner rather than via the communications application. The plugin also enables the remote desktop client to determine a hardware-based media processing capability of the client computing device and leverage such capability in conducting the peer-to-peer audio and/or video communication with the remote computing device. Such hardware-based media processing capability may be used, for example, to process media received from the remote computing device, to process media captured from a media source of the client computing device, or as a basis for negotiating a media communication parameter with the remote computing device.

Abstract: A plugin works with a remote desktop client that is executing on a client computing device to present a user interface of a communications application that is executing in a cloud computing environment. The plugin enables the remote desktop client to conduct audio and/or video communication with a remote computing device in a peer-to-peer manner rather than via the communications application. The plugin also enables the remote desktop client to determine a hardware-based media processing capability of the client computing device and leverage such capability in conducting the peer-to-peer audio and/or video communication with the remote computing device. Such hardware-based media processing capability may be used, for example, to process media received from the remote computing device, to process media captured from a media source of the client computing device, or as a basis for negotiating a media communication parameter with the remote computing device.

Abstract: A plugin works with a remote desktop client that is executing on a client computing device to present a user interface of a communications application that is executing in a cloud computing environment. The plugin enables the remote desktop client to conduct audio and/or video communication with a remote computing device in a peer-to-peer manner rather than via the communications application. The plugin also enables the remote desktop client to determine a hardware-based media processing capability of the client computing device and leverage such capability in conducting the peer-to-peer audio and/or video communication with the remote computing device. Such hardware-based media processing capability may be used, for example, to process media received from the remote computing device, to process media captured from a media source of the client computing device, or as a basis for negotiating a media communication parameter with the remote computing device.

Abstract: A computing device is provided, including a display and a processor. The processor may, for each frame of a plurality of frames included in a video, determine a brightness characterization for a region of interest of the frame. The processor may determine one or more additional brightness characterizations for the region of interest of one or more additional frames of the plurality of frames. The processor may determine that a high brightness condition is present in the region of interest. The processor may generate a filter for the frame based on the brightness characterization and the one or more additional brightness characterizations. The processor may apply the filter to the region of interest of the frame to generate a filtered frame. The high brightness condition is not present in the region of interest of the filtered frame. The processor may output the filtered frame for display at the display.

Abstract: A plugin works with a remote desktop client that is executing on a client computing device to present a user interface of a communications application that is executing in a cloud computing environment. The plugin enables the remote desktop client to conduct audio and/or video communication with a remote computing device in a peer-to-peer manner rather than via the communications application. The plugin also enables the remote desktop client to determine a hardware-based media processing capability of the client computing device and leverage such capability in conducting the peer-to-peer audio and/or video communication with the remote computing device. Such hardware-based media processing capability may be used, for example, to process media received from the remote computing device, to process media captured from a media source of the client computing device, or as a basis for negotiating a media communication parameter with the remote computing device.

Abstract: A computing device is configured to selectively adjust a brightness of a video based on a user-specific response to light. A user-specific light response parameter is determined. For each frame of a plurality of frames included in the video, (1) a brightness characterization for the frame is determined, (2) one or more additional brightness characterizations for one or more additional frames of the plurality of frames is determined, (3) a filter for the frame is generated based on the brightness characterization, the one or more additional brightness characterizations, and the user-specific light response parameter, (4) the filter is applied to the frame to generate a filtered frame, and (5) the filtered frame is output by the computing device. The filter is configured such that if a high brightness condition is present in the frame, then the high brightness condition is mitigated or removed from the filtered frame.

Abstract: A computing device is provided, including a display and a processor. The processor may, for each frame of a plurality of frames included in a video, determine a brightness characterization for a region of interest of the frame. The processor may determine one or more additional brightness characterizations for the region of interest of one or more additional frames of the plurality of frames. The processor may determine that a high brightness condition is present in the region of interest. The processor may generate a filter for the frame based on the brightness characterization and the one or more additional brightness characterizations. The processor may apply the filter to the region of interest of the frame to generate a filtered frame. The high brightness condition is not present in the region of interest of the filtered frame. The processor may output the filtered frame for display at the display.

Abstract: A computing device is configured to selectively adjust a brightness of a video based on a user-specific response to light. A user-specific light response parameter is determined. For each frame of a plurality of frames included in the video, (1) a brightness characterization for the frame is determined, (2) one or more additional brightness characterizations for one or more additional frames of the plurality of frames is determined, (3) a filter for the frame is generated based on the brightness characterization, the one or more additional brightness characterizations, and the user-specific light response parameter, (4) the filter is applied to the frame to generate a filtered frame, and (5) the filtered frame is output by the computing device. The filter is configured such that if a high brightness condition is present in the frame, then the high brightness condition is mitigated or removed from the filtered frame.

Abstract: A computing device is configured to selectively adjust a color-specific brightness of a video based on a user response to light. For each frame of a plurality of frames included in a video, (1) for a color channel of the frame, a color-specific brightness characterization is determined, (2) for the color channel, in one or more additional frames, one or more additional color-specific brightness characterizations are determined, (3) a filter for the frame is generated based on the color-specific brightness characterization and the one or more additional color-specific brightness characterizations, (4) the filter is applied to the frame to generate a filtered frame, and (5) the filtered frame is output. The filter is configured such that if a color-specific high brightness condition for the color channel is present in the frame, then the color-specific high brightness condition for the color channel is mitigated or removed from the filtered frame.

Abstract: Apparatus for spraying glass bottle mold bodies, such as blanks and rings in a molding machine, includes nozzles and spray guns mounted on a plate such that the nozzles are positioned to spray the mold bodies with a material such as a lubricant during normal operation of the machine and without shutting the machine down. The apparatus can be installed on an existing machine without changing the molding machine. Rings may be sprayed while in motion during normal machine operation. A nozzle is provided along with check valves to produce a tight conical spray pattern.

Abstract: A system and related methods for configuring and monitoring a spraying application system for installation and use at a site that is remotely located from the spraying system manufacturing site. The system provides a configuration module that allows a customer or purchaser to configure a system electronically based on the customer's spraying needs. The selected configuration may further be linked to a pricing and inventory database module to allow the customer to order the system components, and obtain price and delivery schedules. In one embodiment, the configuration module is available to the customer via a secure web site over the Internet provided by a server accessed from a computer such as a personal computer at the customer's site. The system also provides a remote access module that provides spraying system operation and parametric information to be monitored at the manufacturing site to determine how the spraying system is operating and whether repair or maintenance should be initiated.

Abstract: A system and related methods for configuring and monitoring a material application system for installation and use at a site that is remotely located from the material application system manufacturing site. The system provides a configuration module that allows a customer or purchaser to configure a system electronically based on the customer's spraying needs. The selected configuration may further be linked to a pricing and inventory database module to allow the customer to order the system components, and obtain price and delivery schedules. The configuration module is available to the customer via a secure web site over the Internet provided by a server accessed from a computer such as a personal computer. The system also provides an extranet, for example, via the Internet or other communication link, is used to provide an accessible database for historical data and configuration/installation information.

Abstract: A spray nozzle assembly includes a nozzle tip and a nozzle tip holder. The holder can be rotationally adjusted so as to change the spray pattern orientation for a nozzle tip that produces an asymmetrical spray pattern. The nozzle holder includes a keyway feature such as different sized holes that provide an indication to the operator of the nozzle pattern orientation. The holes may also be used in combination with a tool or key that allows the nozzle holder to be adjusted for a particular spray pattern orientation. The tool may optionally include a feature that indicates to an operator the spray pattern orientation. The nozzle holder may also include a recess for retaining the nozzle tip at an angle relative to an axis of the holder.

Abstract: A system and related methods for configuring and monitoring a spraying application system for installation and use at a site that is remotely located from the spraying system manufacturing site. The system provides a configuration module that allows a customer or purchaser to configure a system electronically based on the customer's spraying needs. The selected configuration may further be linked to a pricing and inventory database module to allow the customer to order the system components, and obtain price and delivery schedules. In one embodiment, the configuration module is available to the customer via a secure web site over the Internet provided by a server accessed from a computer such as a personal computer at the customer's site. The system also provides a remote access module that provides spraying system operation and parametric information to be monitored at the manufacturing site to determine how the spraying system is operating and whether repair or maintenance should be initiated.