1124 results about "Edge connector" patented technology

Pluggable fiber optic modules having a receive printed circuit board and a transmit printed circuit board perpendicular with an interface printed circuit board with an edge connection. The edge connection of the interface printed circuit board to plug into and out from an edge connector of a host printed circuit board. A transmitter optoelectronic device is coupled to the transmit printed circuit board. A receiver optoelectronic device is coupled to the receive printed circuit board. The pluggable fiber optic modules may further include a support base, a nose receptacle, and an alignment plate.

A module is electrically connectable to a computer system. The module includes a frame having an edge connector with a plurality of electrical contacts which are electrically connectable to the computer system. The module further includes a first printed circuit board coupled to the frame. The first printed circuit board has a first surface and a first plurality of components mounted on the first surface. The first plurality of components is electrically coupled to the electrical contacts of the edge connector. The module further includes a second printed circuit board coupled to the frame. The second printed circuit board has a second surface and a second plurality of components mounted on the second surface. The second plurality of components is electrically coupled to the electrical contacts of the edge connector. The second surface of the second printed circuit board faces the first surface of the first printed circuit board. The module further includes at least one thermally conductive layer positioned between the first plurality of components and the second plurality of components. The at least one thermally conductive layer is thermally coupled to the first plurality of components, to the second plurality of components, and to the electrical contacts of the edge connector.

A substrate for packaging a storage or server system may include one or more sections of the substrate configured to hold a two-dimensional array of disk drives. Another section of this substrate may be configured to hold circuitry for accessing the array of disk drives. This circuitry may include one or more processors. The substrate also includes a first plurality of ribs positioned in the first access of the substrate. The first plurality of ribs separate the sections from one another. The section configured to hold the control circuitry may also be configured to hold one or more power supplies for supplying power to the array of disk drives and control circuitry. This section, as well as other sections, may be divided in two by one or more additional ribs in a transverse direction. The substrate may be configured to be mounted in a cage or rack and may include an edge connector at one edge of the substrate to provide electrical connectivity to a back plane in the cage or rack. A lateral protrusion may extend along each parallel edge of the substrate for mounting the substrate in the cage or rack by sliding the substrate into the cage or rack.

A card edge connector (100) comprises an insulative housing (1) defining a central slot (10) with a plurality of contacts (2) by two sides. Two arms (3) are positioned at two opposite ends of the insulative housing. Each arm includes a plastic portion (30) and a metal portion (31) attached to the plastic potion. The plastic portion includes a locking lug (301) and a restraint head (302). The metal portion is retained to the housing and extends inwardly a guidance stud (316) and a stop tag (317) for covering the locking lug and the restraint head respectively, and the stop tag is as high as an upper end of the guidance stud. While a card module is inserted into the central slot in a correct position and rotated downwardly to directly engage and push the guidance studs, the metal portions together with the plastic portions can be deflected outwards so that the card module is secured held.

The present invention provides a card edge connector as a high-speed differential signal connector configured to equalize electric potentials of ground contacts adjacent to signal line contacts, and thus to reduce crosstalk between adjacent signal line contacts. The card edge connector serves as a female connector in which multiple signal line contacts and multiple ground contacts are arranged in parallel in at least one row. In the card edge connector, the signal line contacts and the ground contacts are arranged in a way that every two signal line contacts for high-speed signals to send and return respectively therethrough are interposed between two ground contacts, and all of the multiple ground contacts arranged in the one row are electrically connected to one another by use of a common contact.

A card edge connector (100) for receiving a module (200), includes an insulative housing (1) having a receiving slot (12) for receiving the module and a pair of arm portions (10) located at opposite ends thereof. Each arm portion has a pair of side walls (15) and a resilient arm (16) with a retaining embossment (162) for locking the module. The side walls are integrally formed on the insulative housing and include a projection (157). A number of terminals (2) are mounted on said insulative housing and extend into the receiving slot thereof. A pair of latches (3) are attached to the arm portions and move with the resilient arms. Each latch includes a base (31) and a stopping plate (37) extending from the base. The stopping plates engage with said projections of the side walls thereby open said resilient arms when the module detaches from the card edge connector.

In one embodiment of the invention, a memory apparatus for improved write performance is disclosed. The memory apparatus includes a base printed circuit board (PCB) having an edge connector for plugging into a host server system; a card level power source to provide card level power during a power failure; a memory controller coupled to the card level power source and having one or more memory channels; and one or more non-volatile memory devices (NVMDs) coupled to the card level power source and organized to respectively couple to the memory channels controlled by the memory controller. Each memory controller provides queuing and scheduling of memory operations on a channel for each NVMD in the memory channels. Responsive to power failure, the memory controller receives card level power and changes the scheduling of memory operations to the NVMDs in each memory channel.