Abstract: An interconnecting module configured to be mounted in a HPC cabinet to interconnect a plurality of computing units, wherein the interconnecting module includes a vertical rack, at least one main pinion that includes a toothed wheel, cooperating with the vertical rack, and a squared-section support axis mounted on a chassis. The interconnecting module also includes a main lever mounted on the support axis via at least one linking portion, wherein the at least one linking portion delimits an opening in which the support axis is mounted. The opening includes a lower round portion configured to receive the support axis when the main lever is down against the chassis and an upper square portion configured to receive the support axis when the main lever is up, causing the support axis to rotate while moving the main lever upward.

Abstract: The invention relates to a card module configured to be mounted in a computing unit that includes a card module compartment. The card module includes a chassis configured to be mounted in the card module compartment, wherein the chassis includes a parallelepipedal shape, a left side face including a first side wall and a right side face including a second side wall. At least one of the first side wall and the second side wall delimits at least one opening configured to insert a computing card into a slot formed inside the card module. An opposite side wall of the first side wall and the second wall includes an internal connector positioned facing the at least one opening. The internal connector is configured to connect to an external connector of the computing card when the computing card is inserted into the slot up to the opposite side wall.

Abstract: A connecting module that includes a body to engage with a computing resource, a first lever having a first end pivotally coupled to a first side of the body, and a second lever having a first end pivotally coupled to a second side of the body, second ends of both levers being latched with a front side of the body. The connecting module includes an actuator disposed on the front side of the body to allow disengagement of the module from the computing resource upon actuation, and to unlatch the second ends of each of the first lever and the second lever from the front side of the body. The first lever and the second lever are manually deflected with respect to first ends to allow travel of the module in a direction inward and outward with respect to the computing resource.

Abstract: An electronic device configured to be mounted in a housing of a cluster, the device comprising a rear body housing at least one mother board configured to be powered by the cluster, a front tray housing at least one electronic board having at least one socket, the front tray comprising at least one fastening member for mounting an expansion card having an edge connector and a fastening portion, the electronic board being connected to the mother board by at least one flexible cable, the front tray being mounted slidable relatively from the rear body between a close position and an open position in which the front tray is at least partially removed from the cluster housing while keeping the rear body into the cluster housing so that an expansion card can be mounted/unmounted from the electronic board without powering off the device.

Abstract: A mother board with a central processing unit and two riser slots configured to cooperate with one riser card for connecting two expansion cards to the mother board. The first riser slot and the second riser slot may be connected by metal traces to the central processing unit, and the two riser slots may be spaced apart by a distance greater than 8 cm.

Abstract: A scalable system for high-power computer, comprising a plurality of motherboard chassis, inserted in a computer rack mounting kit, each motherboard chassis, being configured to receive at least one motherboard module, said plurality of inner chassis forming a stack of inner chassis, the stack being configured to receive an outer floating bracket chassis, said outer chassis being inserted by a second longitudinal end of each inner chassis forming the stack of inner chassis, each said outer floating bracket chassis being configured to accommodate at least one double floating bracket being configured to house a cable box capable of connecting the connectors of a plurality of motherboard modules, arranged in said inner chassis of the stack, to each other, the system being characterized in that the double floating bracket comprises at least several floating attachment means.

Abstract: A connecting module (114) of the present disclosure includes a body (202) to engage with a computing resource (100), a first lever (216) having a first end (220) pivotally coupled to a first side (222) of the body (202), and a second lever (218) having a first end (234) pivotally coupled to a second side (236) of the body (202), second ends (230, 242) of both levers (216, 218) being latched with a front side (204) of the body (202). The module (114) further includes an actuator ( ) disposed on the front side (204) of the body (202) to allow disengagement of the module (114) from the computing resource (100) upon actuation, and to unlatch the second ends (230, 242) of each of the first lever (216) and the second lever (218) from the front side (204) of the body (202). The first lever (216) and the second lever (218) are manually deflected with respect to first ends (220, 234) to allow travel of the module (114) in a direction inward and outward with respect to the computing resource (100).

Abstract: A mother board with a central processing unit and two riser slots configured to cooperate with one riser card for connecting two expansion cards to the mother board. The first riser slot and the second riser slot may be connected by metal traces to the central processing unit, and the two riser slots may be spaced apart by a distance greater than 8 cm.

Abstract: An electronic device configured to be mounted in a housing of a cluster, the device comprising a rear body housing at least one mother board configured to be powered by the cluster, a front tray housing at least one electronic board having at least one socket, the front tray comprising at least one fastening member for mounting an expansion card having an edge connector and a fastening portion, the electronic board being connected to the mother board by at least one flexible cable, the front tray being mounted slidable relatively from the rear body between a close position and an open position in which the front tray is at least partially removed from the cluster housing while keeping the rear body into the cluster housing so that an expansion card can be mounted/unmounted from the electronic board without powering off the device.

Abstract: A scalable system for high-power computer, comprising a plurality of motherboard chassis, inserted in a computer rack mounting kit, each motherboard chassis, being configured to receive at least one motherboard module, said plurality of inner chassis forming a stack of inner chassis, the stack being configured to receive an outer floating bracket chassis, said outer chassis being inserted by a second longitudinal end of each inner chassis forming the stack of inner chassis, each said outer floating bracket chassis being configured to accommodate at least one double floating bracket being configured to house a cable box capable of connecting the connectors of a plurality of motherboard modules, arranged in said inner chassis of the stack, to each other, the system being characterized in that the double floating bracket comprises at least several floating attachment means.