Abstract:
In one implementation of a modular rack system, a rack module (22, 24, 222, 522, 722, 724) comprises a bay (30, 730) comprising a first side wall (32, 732), a second side wall (32, 732) and floor (36, 736) and an intermediate wall positioning mechanism (280, 380, 390, 392, 790, 792) to support a wall (282,782) at different spacings with respect to the first side wall (32, 732). In another implementation of the modular rack system, a utility bay (148) extends across rack modules (22, 24, 222, 522, 722, 724).
Abstract:
In one implementation of a modular rack system, a rack module (22, 24, 222, 522, 722, 724) comprises a bay (30, 730) comprising a first side wall (32, 732), a second side wall (32, 732) and floor (36, 736) and an intermediate wall positioning mechanism (280, 380, 390, 392, 790, 792) to support a wall (282, 782) at different spacings with respect to the first side wall (32, 732). In another implementation of the modular rack system, a utility bay (148) extends across rack modules (22, 24, 222, 522, 722, 724).
Abstract:
A control apparatus is provided. The control apparatus includes an electronic engine, a facility engine, and a control engine. The electronic engine to communicate with an electronic control system. The facility engine to communicate with a facility control system. The control engine to provide an interface between the electronic engine and the facility engine to unify control of the electronic control system and the facility control system.
Abstract:
An assembly to connect two electronic components is provided herein. The assembly includes a lever unit with a lever and a base. The lever includes a primary cam member and a secondary cam member connected thereto. The lever also includes a hook member extending therefrom. The base includes a guide structure to engage with a drive pin. Rotation of the lever to move a first electronic component along a y-axis towards, a backplane. The secondary cam member to move the drive pin along the guide structure, and the hook member to engage with a second electronic component and mate the first electronic component and the second electronic component along the second axis.
Abstract:
A heat removal assembly is provided herein. The heat removal assembly includes an evaporator block, a heat pipe, and a condenser plate. The evaporator block removes heat from an electronic component. The evaporator block engages with the electronic component and forms a thermal connection therebetween that removes the heat from the electronic component. The heat pipe connects to the evaporator block to remove heat from the evaporator block. The condenser plate connects to the heat pipe and receives heat from the heat pipe. The condenser plate includes a thermal mating surface that mates with a thermal member, such that the heat is removed from the assembly via the thermal mating surface.
Abstract:
An assembly for liquid cooling is provided herein. The assembly includes a thermal member, a support member, and a gasket. The thermal member includes an array of cooling pins formed of a thermally conductive material to extend from the thermal member. The support member includes an inlet channel and an outlet channel. The inlet channel to provide a fluid to the array of cooling pins. The outlet channel to receive the fluid from the array of cooling pins. The gasket between the thermal member and the support member to form a cooling channel with a fluid tight seal therebetween.
Abstract:
An apparatus to cool an electronic module is provided herein. The apparatus includes a support member and a retaining member. The support member to receive the cooling module. The support member includes a cooling module alignment member to align the cooling module therein. The retaining member to secure the cooling module.