Abstract: There is provided a system and method for rule-based dynamic server-side streaming manifest files. There is provided a method comprising receiving a request to provide a first video content for playback, evaluating a plurality of rules for the first video content, generating a dynamic manifest file referencing the first video content, and providing the dynamic manifest file in response to the request, thereby enabling an application to playback the first video content for output on a display by interpreting the dynamic manifest file. The rules may implement various features such as dynamic advertisement insertion, load balancing, client customization, user and device targeting, enhanced security mechanisms, global announcements, and others. As streaming protocols are widely supported by default on many client platforms, the dynamic manifest files can be utilized in a user friendly and transparent manner compared to client-side solutions requiring cumbersome client software installations.

Abstract: There is provided a system and method for rule-based dynamic server-side streaming manifest files. There is provided a method comprising receiving a request to provide a first video content for playback, evaluating a plurality of rules for the first video content, generating a dynamic manifest file referencing the first video content, and providing the dynamic manifest file in response to the request, thereby enabling an application to playback the first video content for output on a display by interpreting the dynamic manifest file. The rules may implement various features such as dynamic advertisement insertion, load balancing, client customization, user and device targeting, enhanced security mechanisms, global announcements, and others. As streaming protocols are widely supported by default on many client platforms, the dynamic manifest files can be utilized in a user friendly and transparent manner compared to client-side solutions requiring cumbersome client software installations.

Abstract: A manually mountable and demountable low frequency transducer apparatus for generating low frequency vibrations in a chair or other furniture. A clamp, preferably manually operable, is attached to one end of a support arm and a vibrating transducer motor (vibrator) is attached to the opposite end so the transducer motor is supported in cantilever relation from a leg of the article of furniture. Preferably the arm has a length substantially within the range of 1 inch to 12 inches and the jaws of the clamp are oppositely concave so the transducer apparatus is mounted with the vibrator having a vertical axis of vibration. The mass and the arm may be designed to be resonant or near the operating frequency of the vibrator.

Abstract: A Z-fold print media handling system for printing banners and the like uses an inkjet printing mechanism without a tractor-feed. A series of stuttering stopping and starting steps generates varying static and dynamic frictional forces to separate the first sheet of a Z-fold stack from the remainder of the stack. Both conventional cut-sheet media and Z-fold media are fed using the same printing mechanism, which pulls the media toward a printzone through frictional engagement with a first surface of the media To prevent printhead crashes and smearing the image near the perforations joining the Z-fold sheets, the printhead to media spacing is increased for Z-fold media over the standard spacing used for cut-sheet media. A cam feature is incorporated into the media drive clutch disk to determine whether an operator has set a selector lever for cut-sheet or Z-fold printhead to media spacing.

Abstract: A Z-fold print media handling system for printing banners and the like uses an inkjet printing mechanism without a tractor-feed. A series of stuttering stopping and starting steps generates varying static and dynamic frictional forces to separate the first sheet of a Z-fold stack from the remainder of the stack. Both conventional cut-sheet media and Z-fold media are fed using the same printing mechanism, which pulls the media toward a printzone through frictional engagement with a first surface of the media. To prevent printhead crashes and smearing the image near the perforations joining the Z-fold sheets, the printhead to media spacing is increased for Z-fold media over the standard spacing used for cut-sheet media. A cam feature is incorporated into the media drive clutch disk to determine whether an operator has set a selector lever for cut-sheet or Z-fold printhead to media spacing.

Abstract: A Z-fold print media handling system for printing banners and the like uses an inkjet printing mechanism without a tractor-feed. A series of stuttering stopping and starting steps generates varying static and dynamic frictional forces to separate the first sheet of a Z-fold stack from the remainder of the stack. Both conventional cut-sheet media and Z-fold media are fed using the same printing mechanism, which pulls the media toward a printzone through frictional engagement with a first surface of the media. To prevent printhead crashes and smearing the image near the perforations joining the Z-fold sheets, the printhead to media spacing is increased for Z-fold media over the standard spacing used for cut-sheet media. A cam feature is incorporated into the media drive clutch disk to determine whether an operator has set a selector lever for cut-sheet or Z-fold printhead to media spacing.