Abstract: An edge connector is provided that accommodates printed circuit boards (PCB) of varying thickness. Embodiments include a body; a set of card connector engagement pins coupled to the body, the set of card connector engagement pins coupling with a circuit card connector; and the set of PCB engagement pins coupled to the body, the set of PCB engagement pins receiving contact pads of the PCB, wherein each PCB engagement pin includes a contact point that slopes away from the body of the edge connector, wherein the contact point of each PCB engagement pin slopes in an opposite direction from the contact point of the other PCB engagement pin in the set, wherein each PCB engagement pin is flexible inward toward the body of the edge connector.

Abstract: A container includes first and second long sides parallel to the container's length. Racks are organized in rows parallel to the container's width. Each rack is receptive to installation of equipment along a height of the data rack parallel to the container's height. Openings are defined within the first and/or second long sides of the container. Heat exchangers may be installed, where each exchanger is installed on a rack to cool air exhausted by any equipment installed on this rack. Each row may include as many of the racks positioned side-to-side, length-wise, and parallel to the width of the container as can fit within the container. The racks of each row may be slidable in unison back and forth along the length of the container, between a first position at which the racks block an opening and a second position at which the racks block another opening.

Abstract: Various embodiments of the present invention provide an anchor, circuit board assembly, and method for operably engaging an electronic component with a circuit board having a first side and a second side. Anchor embodiments include an anchor portion configured for receiving at least a portion of the electronic component and a pair of anchor legs flexibly extending from the ends of the anchor portion and configured for insertion into apertures defined in the circuit board. The anchor further includes a compression element slidably disposed about the anchor legs and movable between an unlocked position and a locked position. The compression element is configured for urging the anchor legs towards one another when moved from the unlocked position to the locked position such that the anchor is secured in the apertures when the compression element is in the locked position.

Abstract: A container includes first and second long sides parallel to the container's length. Racks are organized in rows parallel to the container's width. Each rack is receptive to installation of equipment along a height of the data rack parallel to the container's height. Openings are defined within the first and/or second long sides of the container. Heat exchangers may be installed, where each exchanger is installed on a rack to cool air exhausted by any equipment installed on this rack. Each row may include as many of the racks positioned side-to-side, length-wise, and parallel to the width of the container as can fit within the container. The racks of each row may be slidable in unison back and forth along the length of the container, between a first position at which the racks block an opening and a second position at which the racks block another opening.

Abstract: A dual force single point actuation integrated load mechanism for securing a computer processor to a socket, the dual force single point actuation integrated load mechanism including a base mounted around the socket; and a load plate rotatably coupled to the base and secured to the base when an activate lever and a hinge lever are secured above the load plate.

Abstract: A dual force single point actuation integrated load mechanism for securing a computer processor to a socket, the dual force single point actuation integrated load mechanism including a base mounted around the socket; and a load plate rotatably coupled to the base and secured to the base when an activate lever and a hinge lever are secured above the load plate.

Abstract: A computer device includes a chassis, a card connector, and a cartridge. The card connector is attached to the chassis and is adapted to receive a card. The cartridge includes a guide plate, a card holder, and an actuator. The guide plate is removably engaged to the chassis. The card holder is connectable to the card and movable, relative to the guide plate, between an engaged position and a disengaged position. In the engaged position, the card is connected the card connector, and in the disengaged position, the card is disconnected from the card connector. The actuator is engaged with the guide plate, and the actuator linearly moves between a first position and a second position relative to the guide plate. The movement of the actuator from the first position to the second position causes the movement of the card holder from the disengaged position to the engaged position. The computer device is a server, and the cartridge is introduced into front face or a rear face of the server.

Abstract: A container includes first and second long sides parallel to the container's length. Racks are organized in rows parallel to the container's width. Each rack is receptive to installation of equipment along a height of the data rack parallel to the container's height. Openings are defined within the first and/or second long sides of the container. Heat exchangers may be installed, where each exchanger is installed on a rack to cool air exhausted by any equipment installed on this rack. Each row may include as many of the racks positioned side-to-side, length-wise, and parallel to the width of the container as can fit within the container. The racks of each row may be slidable in unison back and forth along the length of the container, between a first position at which the racks block an opening and a second position at which the racks block another opening.

Abstract: A dual force single point actuation integrated load mechanism for securing a computer processor to a socket, the dual force single point actuation integrated load mechanism including a base mounted around the socket; and a load plate rotatably coupled to the base and secured to the base when an activate lever and a hinge lever are secured above the load plate; wherein the activate lever is rotatably coupled with the base and is secured when the activate lever is fully rotated; wherein the hinge lever is rotatably coupled with the base and connected to the activate lever such that rotating the activate lever rotates the hinge lever; and wherein the hinge lever is secured when the activate lever is secured.

Abstract: Various embodiments of the present invention provide an anchor, circuit board assembly, and method for operably engaging an electronic component with a circuit board having a first side and a second side. Anchor embodiments include an anchor portion configured for receiving at least a portion of the electronic component and a pair of anchor legs flexibly extending from the ends of the anchor portion and configured for insertion into apertures defined in the circuit board. The anchor further includes a compression element slidably disposed about the anchor legs and movable between an unlocked position and a locked position. The compression element is configured for urging the anchor legs towards one another when moved from the unlocked position to the locked position such that the anchor is secured in the apertures when the compression element is in the locked position.

Abstract: A dual force single point actuation integrated load mechanism for securing a computer processor to a socket, the dual force single point actuation integrated load mechanism including a base mounted around the socket; and a load plate rotatably coupled to the base and secured to the base when an activate lever on a first side of the base and a hinge lever on a second side of the base are secured above the load plate; wherein the activate lever on the first side of the load plate is rotatably coupled with the base and is secured when the activate lever is fully rotated; wherein the hinge lever on the second side of the load plate is rotatably coupled with the base and connected to the activate lever such that rotating the activate lever rotates the hinge lever; and wherein the hinge lever is secured when the activate lever is secured.

Abstract: An apparatus is provided and includes a housing, including a housing mating device, through which an installation path for an assembly is defined with a space in which a first part is positioned, a backplane body having opposing faces on which a second part and a backplane mating device are respectively disposed, and a hub, in which a hub mating device is defined, and from which a two-stage mating device extends, the two-stage mating device including first and second elastically coupled stages. The hub and the backplane body are coupled to form the assembly and the assembly is installed/removed in/from the space with the second stage of the two-stage mating device elastically hooked by the housing mating device or released from the housing mating device and the first and second stages of the two-stage mating device biasing the hub and the backplane body to remain coupled.

Abstract: An apparatus and system are disclosed for securing a heat sink against a central processing unit. The present invention teaches a heat sink securement device having a vertical retention arm that substantially encompasses a heat sink in a vertical direction, a horizontal retention arm that substantially encompasses a heat sink in a horizontal direction, and a tension arm coupled to the vertical and horizontal retention arms and pivotally coupled to the frame, the tension arm simultaneously adjusts a tension on the vertical retention arm and the horizontal retention arm in response to moving the tension arm. In certain embodiments, the retention arms are coupled to the tension arm via coupling member that is offset from pivot point of the tension arm. In other embodiments, the coupling member may include a different coupling member for the vertical and horizontal retention arms, both coupling members offset from the pivot point.

Abstract: An electronic module rack system includes a rack housing and opposing first and second rail members attached to the housing. A stabilizer bar is attached to the first and second rail members. The rail members support a cable trough assembly, and at least one cable separator retainer extends from the cable trough assembly. A method for managing cables for an electronic module includes connecting a first cable to the electronic module and connecting a second cable to the electronic module. The first cable is placed in a cable trough assembly and the second cable is placed in a cable separator retainer extending from the cable trough assembly. A cable support system includes a cable trough assembly and means for supporting cables outside the cable trough assembly.

Abstract: A retention module for a heat dissipation assembly is disclosed. In a first embodiment, the retention module may include a frame having an external member and an internal member enclosed within the external member. Furthermore, the internal member is adaptable to seat a heat sink. Additionally, a lever is coupled to the external member, wherein the lever includes a cam. When the lever engages in a first position, the cam pushes the internal member forward to engage the heat sink to a surface. Through the use of the retention module described above, a retention module may be used as a simple method to load and lock heat sinks of varying sizes within a heat dissipation assembly.

Abstract: A method is disclosed for securing a heat sink against a central processing unit. The present invention teaches a heat sink securement device having a vertical retention arm that substantially encompasses a heat sink in a vertical direction, a horizontal retention arm that substantially encompasses a heat sink in a horizontal direction, and a tension arm coupled to the vertical and horizontal retention arms and pivotally coupled to the frame, the tension arm simultaneously adjusts a tension on the vertical retention arm and the horizontal retention arm in response to moving the tension arm. In certain embodiments, the retention arms are coupled to the tension arm via coupling member that is offset from pivot point of the tension arm. In other embodiments, the coupling member may include a different coupling member for the vertical and horizontal retention arms, both coupling members offset from the pivot point.

Abstract: An apparatus and system are disclosed for securing a heat sink against a central processing unit. The present invention teaches a heat sink securement device having a vertical retention arm that substantially encompasses a heat sink in a vertical direction, a horizontal retention arm that substantially encompasses a heat sink in a horizontal direction, and a tension arm coupled to the vertical and horizontal retention arms and pivotally coupled to the frame, the tension arm simultaneously adjusts a tension on the vertical retention arm and the horizontal retention arm in response to moving the tension arm. In certain embodiments, the retention arms are coupled to the tension arm via coupling member that is offset from pivot point of the tension arm. In other embodiments, the coupling member may include a different coupling member for the vertical and horizontal retention arms, both coupling members offset from the pivot point.

Abstract: A computer device includes a chassis, a card connector, and a cartridge. The card connector is attached to the chassis and is adapted to receive a card. The cartridge includes a guide plate, a card holder, and an actuator. The guide plate is removably engaged to the chassis. The card holder is connectable to the card and movable, relative to the guide plate, between an engaged position and a disengaged position. In the engaged position, the card is connected the card connector, and in the disengaged position, the card is disconnected from the card connector. The actuator is engaged with the guide plate, and the actuator linearly moves between a first position and a second position relative to the guide plate. The movement of the actuator from the first position to the second position causes the movement of the card holder from the disengaged position to the engaged position. The computer device is a server, and the cartridge is introduced into front face or a rear face of the server.

Abstract: An electronic module rack system includes a rack housing and opposing first and second rail members attached to the housing. A stabilizer bar is attached to the first and second rail members. The rail members support a cable trough assembly, and at least one cable separator retainer extends from the cable trough assembly. A method for managing cables for an electronic module includes connecting a first cable to the electronic module and connecting a second cable to the electronic module. The first cable is placed in a cable trough assembly and the second cable is placed in a cable separator retainer extending from the cable trough assembly. A cable support system includes a cable trough assembly and means for supporting cables outside the cable trough assembly.

Abstract: A low overhead hinge assembly comprising a stationary hinge plate and a rotating hinge plate. The stationary hinge plate having a stationary hinge plate body portion and a plurality of stationary hinge plate digits coupled to the stationary hinge plate body portion, each of the stationary hinge plate digits having an opening therein. The rotating hinge plate having a rotating hinge plate body portion and a plurality of pins coupled to the rotating hinge plate body portion, wherein the stationary hinge plate digits are configured to be engaged with the rotating hinge plate pins so that each of a plurality of the rotating hinge plate pins is inserted into an opening in one of the stationary hinge plate digits so as to pivotally couple the rotating hinge plate to the stationary hinge plate.