Abstract: Medical devices and related methods for closing a perforation in a bodily wall The medical device generally includes a suture having opposing first and second ends and a set of visceral anchors. Each visceral anchor includes a crossbar having opposing ends and a suture slidably attached thereto. Each visceral anchor is passed through the bodily wall adjacent the periphery of the perforation. The ends of the suture are tensioned to reduce the distance between the visceral anchors and compress the bodily wall around the perforation. The ends of the suture are secured to maintain the compression of the bodily wall and close the perforation.

Abstract: Medical devices and related methods for closing a perforation in a bodily wall The medical device generally includes a suture having opposing first and second ends and a set of visceral anchors. Each visceral anchor includes a crossbar having opposing ends and a suture slidably attached thereto. Each visceral anchor is passed through the bodily wall adjacent the periphery of the perforation. The ends of the suture are tensioned to reduce the distance between the visceral anchors and compress the bodily wall around the perforation. The ends of the suture are secured to maintain the compression of the bodily wall and close the perforation.

Abstract: A PCI card is inserted through an I/O opening in a computer panel. On one edge of the card is a cover from one end of which projects a tab. A resilient gasket is attached to the panel to create a flexible EMC seal around the opening. Preferably the gasket is formed of tin-plated beryllium copper. The gasket has alternate staggered spring fingers oriented opposite to the direction of insertion of the PCI card. To retain the gasket the panel is formed with slots at either end and an outward struck projection at the middle. The gasket is formed with a tongue at either end to be inserted in one of the slots and a punched-out opening to receive the projection.

Abstract: PCI cards are plugged into vertical risers, the lower edges of which have been plugged into a motherboard. This involves a considerable force being applied to the riser card, both during insertion and removal, and may damage the card or the underlying motherboard. A support for the top edge of the riser card clips onto the upper end thereof. Rearward extensions of the support are gripped by tabs struck out of a wall of the enclosure.

Abstract: A computer housing or electronic apparatus frame (10) includes a compartment (12) that provides space for mounting a fan assembly (14) or similar component. The fan assembly (14) is mounted on a fan tray support (16), which is removably mountable within the computer housing (10) by means of the fan tray mounts (18). Fan tray mounts (18) are oriented facing one another so that side rails (22) of fan tray (16) are slidably received by the fan tray mounts (18). The fan tray mounts (18) further includes an elongated guide channel (31) that extends the length of the fan tray mount and is formed in the inside face (30) thereof. The fan tray mounts (18) also include a first, outwardly projecting stop (52) that is positioned inwardly from end wall (38) and a second, outwardly-projecting, resiliently-deflectable stop and latch lever (54) provided adjacent end wall (36).

Abstract: A structural foam, injection molded superstructure is attached to a motherboard by means of threaded inserts. The superstructure is formed with guide ways for CPU processor modules, and also for the edges of PCI cards. Features of the structure include cam levers on the CPU modules to install and extract the modules. A metal transverse vertical retaining bracket is attached to the superstructure to hold sides thereof parallel and prevent splaying of the free, open end of the superstructure upon extraction of CPU processor modules. The assembly provides stiffness to the motherboard.