Abstract: Systems, methods, and apparatuses can present optimized data migration. Embodiments can provide improved data migration processes using a data migration assistant that executes on a source system to facilitate the migration of documents and data to a destination system. The migration assistant can communicate with a migration controller server to authenticate and identify the migration assistant and migration project that the migration assistant is to be used for. The migration controller server can use the identifier to determine commands corresponding to the migration project to send to the migration assistant to collect data and make changes to the source system.

Abstract: Optimized-coverage selective laser ablation systems and methods may be utilized to prepare (ablate) a three-dimensional surface. Methods comprise receiving a 3D virtual model of the surface to be ablated, generating a preliminary ablation path, and optimizing the preliminary ablation path to produce an adapted ablation path. Methods may comprise ablating the surface according to the adapted ablation path. The preliminary ablation path may be based on scanning a laser sheet across a two-dimensional projection of the surface. The optimization may adjust one or more waypoints of the preliminary ablation path to achieve complete coverage of the surface at acceptable levels of ablation, with little to no ablation outside the surface, and with acceptable (e.g., at least locally minimal) time to ablate the surface.

Abstract: A laser ablation system comprises a laser, a scanning head, a laser-positioning apparatus, and a controller. The laser is configured to emit a laser beam. The scanning head is configured to deliver the laser beam onto a surface. The laser-positioning apparatus is configured to adjust relative positions of the surface and the scanning head. The controller is programmed to determine operation parameters such as a traverse scan speed, a laser-beam average power, a laser pulse repetition rate, a laser pulse width, and a laser-beam spot area for each one of scan regions of an area of the surface. The scan regions are arranged so that all of the area of the surface is scannable with the laser beam. The scan width of at least one of the scan regions is different from the scan width of another one of the scan regions.

Abstract: Systems, methods, and apparatuses can present optimized data migration. Embodiments can provide improved data migration processes using a data migration assistant that executes on a source system to facilitate the migration of documents and data to a destination system. The migration assistant can communicate with a migration controller server to authenticate and identify the migration assistant and migration project that the migration assistant is to be used for. The migration controller server can use the identifier to determine commands corresponding to the migration project to send to the migration assistant to collect data and make changes to the source system.

Abstract: A laser ablation system comprises a laser, a scanning head, a laser-positioning apparatus, and a controller. The laser is configured to emit a laser beam. The scanning head is configured to deliver the laser beam onto a surface. The laser-positioning apparatus is configured to adjust relative positions of the surface and the scanning head. The controller is programmed to determine operation parameters such as a traverse scan speed, a laser-beam average power, a laser pulse repetition rate, a laser pulse width, and a laser-beam spot area for each one of scan regions of an area of the surface. The scan regions are arranged so that all of the area of the surface is scannable with the laser beam. The scan width of at least one of the scan regions is different from the scan width of another one of the scan regions.

Abstract: A method of using a laser ablation system to clean an area of a surface with a laser beam, having a target fluence and a target irradiance. The area comprises scan regions, each having a scan width. The method comprises determining a traverse scan speed, a laser-beam average power, a laser pulse repetition rate, a laser pulse width, and a laser-beam spot area of the laser beam for each one of the scan regions to achieve the target fluence and the target irradiance. The scan width of at least one of the scan regions is different from the scan width of another one of the scan regions. The method also comprises sequentially scanning, across the scan width, each one of the scan regions of the area with the laser beam at the target fluence and the target irradiance.

Abstract: Systems, methods, and apparatuses can present optimized data migration. Embodiments can provide improved data migration processes using a data migration assistant that executes on a source system to facilitate the migration of documents and data to a destination system. The migration assistant can communicate with a migration controller server to authenticate and identify the migration assistant and migration project that the migration assistant is to be used for. The migration controller server can use the identifier to determine commands corresponding to the migration project to send to the migration assistant to collect data and make changes to the source system.

Abstract: Optimized-coverage selective laser ablation systems and methods may be utilized to prepare (ablate) a three-dimensional surface. Methods comprise receiving a 3D virtual model of the surface to be ablated, generating a preliminary ablation path, and optimizing the preliminary ablation path to produce an adapted ablation path. Methods may comprise ablating the surface according to the adapted ablation path. The preliminary ablation path may be based on scanning a laser sheet across a two-dimensional projection of the surface. The optimization may adjust one or more waypoints of the preliminary ablation path to achieve complete coverage of the surface at acceptable levels of ablation, with little to no ablation outside the surface, and with acceptable (e.g., at least locally minimal) time to ablate the surface.

Abstract: Systems, methods, and apparatuses can present optimized data migration. Embodiments can provide improved data migration processes using a data migration assistant that executes on a source system to facilitate the migration of documents and data to a destination system. The migration assistant can communicate with a migration controller server to authenticate and identify the migration assistant and migration project that the migration assistant is to be used for. The migration controller server can use the identifier to determine commands corresponding to the migration project to send to the migration assistant to collect data and make changes to the source system.

Abstract: Systems, methods, and apparatuses can present optimized data migration. Embodiments can provide improved data migration processes using a data migration assistant that executes on a source system to facilitate the migration of documents and data to a destination system. The migration assistant can communicate with a migration controller server to authenticate and identify the migration assistant and migration project that the migration assistant is to be used for. The migration controller server can use the identifier to determine commands corresponding to the migration project to send to the migration assistant to collect data and make changes to the source system.

Abstract: A method (200) of using a laser ablation system (100) to clean an area (130) of a surface (128) with a laser beam (120), having a target fluence and a target irradiance. The area (130) comprises scan regions (136), each having a scan width (140). The method (200) comprises determining a traverse scan speed, a laser-beam average power, a laser pulse repetition rate, a laser pulse width, and a laser-beam spot area of the laser beam (120) for each one of the scan regions (136) to achieve the target fluence and the target irradiance. The scan width (140) of at least one of the scan regions (136) is different from the scan width (140) of another one of the scan regions (136). The method (200) also comprises sequentially scanning, across the scan width (140), each one of the scan regions (136) of the area (130) with the laser beam (120) at the target fluence and the target irradiance.

Abstract: A jog control for navigating a media program having a plurality of frames and a method for using the navigation control is disclosed. In an exemplary embodiment, the control comprises a radial control at one of a plurality of user-selectable radial distances from a center of the jog control, the radial distance indicative of a jog control scale factor, wherein selection of the radial control selects and fixes the jog control scale factor until the control area is unselected, and wherein rotation of the selected radial control about a center of the jog control commands navigation through the plurality of media program frames at a rate determined by the selected jog control scale factor and an angular rate of the selected radial control about the center of the jog control.

Abstract: Systems, methods, and apparatuses can present optimized data migration. Embodiments can provide improved data migration processes using a data migration assistant that executes on a source system to facilitate the migration of documents and data to a destination system. The migration assistant can communicate with a migration controller server to authenticate and identify the migration assistant and migration project that the migration assistant is to be used for. The migration controller server can use the identifier to determine commands corresponding to the migration project to send to the migration assistant to collect data and make changes to the source system.

Abstract: Example embodiments disclosed herein relate to determining video to play based on audio. Videos associated with the audio are determined. One of the videos to play with the audio is determined based on analysis.

Abstract: Illustrated is a system and method comprising a plurality of personal playlists, grouped to form a buddy list, the buddy list disposed on a remote storage device. The system and method further comprises logic, which when executed at the remote storage device that streams media content to at least one user device based upon a streaming media playlist. Additionally, the system and method is executed to provide access to the streaming media playlist to the at least one user device. Moreover, the system and method is executed to permit modification of the streaming media playlist by the at least one user device.

Abstract: Various example embodiments relate to incentivized media delivery. In example embodiments, a media delivery device has access to a plurality of media. The device may receive an external factor from each of a plurality of remote devices. In response, the device may select media from the media storage based on the received external factors, notify each remote device of the availability of the media, and provide an incentive for acquisition of the selected media.

Abstract: A system and method for managing content are provided herein. The method includes accepting a content entry related to a product. The method also includes receiving a content rating for the content entry from a user. Additionally, the method includes calculating a combined rating for the content entry based at least in part on the content rating. Furthermore, the method includes determining a persistent status of the content entry based on the combined rating.

Abstract: A jog control for navigating a media program having a plurality of frames and a method for using the navigation control is disclosed. In an exemplary embodiment, the control comprises a radial control at one of a plurality of user-selectable radial distances from a center of the jog control, the radial distance indicative of a jog control scale factor, wherein selection of the radial control selects and fixes the jog control scale factor until the control area is unselected, and wherein rotation of the selected radial control about a center of the jog control commands navigation through the plurality of media program frames at a rate determined by the selected jog control scale factor and an angular rate of the selected radial control about the center of the jog control.

Abstract: A method, apparatus, article of manufacture, and a memory structure for playing a media program and providing a preview frame of the media program in response to a seek command is disclosed. In one embodiment, the method comprises the steps of accepting a seek command in the user computer; generating a seek request from the seek command, the seek request including information identifying an arbitrarily chosen seek preview media program frame associated with the media program; retrieving the arbitrarily chosen seek preview media program frame; and rendering the received arbitrarily chosen seek preview media program frame in the playback component of the MPP.

Abstract: The present invention relates to dielectric materials which may be used in the manufacture of, e.g., low profile heaters. Such dielectric materials comprise at least about 50% of a glass composition having about 35-50% SiO.sub.2, about 30-40% of an alkaline earth metal oxide selected from the group consisting of CaO, MgO, and SrO, about 13--22% Al.sub.2 O.sub.3, and about 0-10% B.sub.2 O.sub.3, the percentages being weight percentages based on the weight of the total glass composition. Certain dielectric compositions of the disclosure have a linear thermal expansion coefficient in the range of about 6.0 to 9.0 ppm/.degree. C.