Abstract: Add-in card (AIC) adapters or sleeve adapters, suitable for use with information handling system chassis defining one or more AIC bays suitable for receiving a first AIC form factor, convert the bay into two or more sleeve-defined bays. Each sleeve bay is suitable for receiving a different and typically smaller form factor. For example, a chassis with an Enterprise and Data Center Standard Form Factor (EDSFF) E5 double wide bay may include a sleeve adapter defining two E5 single wide sleeve bays, each of which is suitable for receiving a corresponding E5 single wide AIC form factor. In another example, a sleeve adapter may be configured to convert an E5 double wide bay into one or more sleeve bays configured for a legacy CEM form factor. Sleeve adapters may route a subset of PCIe data lanes associated with a bay to each sleeve bay defined by the sleeve adapter.

Abstract: Methods, systems, apparatus, and articles of manufacture to control load distribution of integrated circuit packages are disclosed. An example apparatus includes a carrier plate including a first surface to face a heatsink; a second surface opposite the first surface, and an aperture extending between the first and second surfaces, the aperture dimensioned to surround a semiconductor device, and a spring carried by the carrier plate, the spring to contact a surface of the semiconductor device proximate an outer edge of the semiconductor device.

Abstract: An electronic card retaining device includes a seat mounted on a motherboard and a movable retaining member. The seat is provided with a stopper section and a guide section; the movable retaining member has an elastic arm corresponding to the stopper section and a mating guide section for engaging with the guide section. When the movable retaining member is assembled to the seat, the elastic arm can be pressed against the stopper section and elastically deformed; and the guide section and the mating guide section can engage with each other to guide the movable retaining member to elastically displace on the seat relative to an electronic card between a retaining position and a release position. With the above arrangements, the electronic card retaining device so formed is structurally simplified and easily operable for conveniently, securely and elastically retaining or releasing the electronic card to or from the motherboard.

Abstract: An electronic card retaining device includes a seat mounted on a motherboard and having stopper sections; and a movable retaining member pivotally connected to the seat and having a retaining end facing toward a position to where an electronic card is to be fixed, and an operating end provided with guide sections, which can pass the stopper sections to move between a retaining and a releasing position when the movable retaining member rotates pivotally. The electronic card has an end electrically connected to the motherboard and another end for engaging with the retaining end of the movable retaining member. To retain the electronic card, simply push the engaging end thereof downward and the guide sections will move to the retaining position. To release the electronic card, simply sidewardly deform the elastic arm for the guide sections to move from the retaining position to the releasing position.

Abstract: A drive mounting system. The drive mounting system includes a rotating lever component; and, a riser retention bracket, the riser retention bracket comprising: a lateral riser retention bracket component; the lateral bracket component defining a plurality of riser cage stand off apertures, the plurality of riser cage stand off apertures being positioned to mate with respective riser cage stand offs of a plurality of riser cage stand offs; wherein, the plurality of riser cage stand off apertures provide an ability to laterally move the plurality of riser cage stand offs while enabling the riser cage stand offs to couple with the riser retention bracket.

Abstract: An electronic device includes a first body including a first side and a second side opposite to each other, a first interface disposed at the first body and configured to electrically connect to a first external device, a display device disposed at the first body and exposed through the second side, a second body connected to the first body through a connection device and configured to move relative to the first body, and a second interface disposed at the second body and configured to electrically connect to a second external device.

Abstract: A hinge mechanism includes a base, first rotating components, second rotating components, a first connecting component, a second connecting component, a floating support component, and elastic reset members. In a case that the hinge mechanism is in a first state, at least one of the plurality of the second rotating components supports the floating support component, and the elastic reset members are in a stretched or compressed state. A distance between an outer wall of the base facing away from a rotation axis of the first rotating component and the floating support component is a first distance. In a case that the hinge mechanism is in a second state, the second rotating components avoid the floating support component, a distance between the outer wall of the base and the floating support component is a second distance, and the second distance is less than the first distance.

Abstract: A display device and a flexible frame. The display device includes a housing, a display panel, a flexible frame and a covering body. The flexible frame includes a first fitting body, two second fitting bodies and a covering body. The two second fitting bodies are connected to two opposite ends of the first fitting body, respectively. The first fitting body and the two second fitting bodies together from an installation space, and the display panel is located in the installation space. The covering body protrudes from a side of the first fitting body that is located away from the installation space and has at least one exposing hole. The capturing assembly is disposed on the housing. The first fitting body and the covering body cover different sides of the capturing assembly, respectively. The exposing hole exposes the capturing assembly.

Abstract: A semiconductor storage device includes a substrate, a semiconductor memory, a controller, and an electronic part. The substrate has opposing first and second faces extending in a first direction, a third face extending in a thickness direction of the substrate, a recess provided in the third face and extending in the thickness direction, and a conductive portion provided on an inner face of the recess. The electronic part has a main body and a lead protruding from the main body. The lead has a first portion, which protrudes linearly from the main body toward the recess in the first direction, and a second portion bent from the first portion and extending linearly along the inner face of the recess in the thickness direction, and the second portion is fixed to the conductive portion such that one portion of the first portion overlaps the recess when viewed in the first direction.

Abstract: Tamper-detect assemblies and methods of fabrication are provided. A tamper-detect assembly includes a laminate carrier with embedded tamper-detect circuitry within the laminate carrier, and one or more electronic components on the laminate carrier. Further, the tamper-detect assembly includes a heat sink cover. The heat sink cover includes a heat sink and tamper-detect circuitry integrated within the heat sink cover. The heat sink cover is mounted to the laminate carrier and encloses the one or more electronic components between the laminate carrier and the heat sink cover. Together, the embedded tamper-detect circuitry of the laminate carrier and the integrated tamper-detect circuitry of the heat sink cover define, at least in part, a secure volume about the one or more electronic components.

Abstract: An information handling system may include a circuit board, a shield base mounted to a surface of the circuit board, a compression connector housed within the shield base and placed on the surface, an information handling resource housed within the shield base and placed on the compression connector, and a shield cap mechanically coupled to the shield base to cause compressive mechanical force between the shield cap and the circuit board which in turn causes compressive mechanical force among the information handling resource, the compression connector, and the circuit board in order to electrically couple the information handling resource to the circuit board.

Abstract: A test system rack or cabinet includes a housing containing instruments or equipment and a mass interconnect (MIC) mounted within the housing. The MIC has inputs to couple to the instruments or equipment and outputs to couple to a second MIC separate from the rack. The test system rack has legs positioned underneath the housing to support the housing and the first MIC. The test system rack has actuators configured to adjust a position of the first MIC without adjusting a position of the one or more legs.

Abstract: An electronic apparatus includes: a slider that is movable between a first position and a second position; a shield cover on the slider, the shield cover being located to cover the front of the camera when the slider is in the first position and located to be away from the front of the camera when the slider is in the second position; a movable magnet at the slider; and a fixed magnet at the chassis. The fixed magnet has four poles of magnets. The fixed magnet is configured so that the width of the magnets at both ends is narrower than the width of the center magnets, and the center magnets have the same width and are wider than the width of the magnets at both ends. The width of the movable magnet is equal to or less than half of the width of the fixed magnet.

Abstract: A rail mounting backplane kit is provided and including a backplane assembly, a first mating structure and a second cooperating structure. The first mating structure is for cooperating with a first cooperating structure of a first cooperating backplane kit for allowing or restraining assembly of the backplane assembly and a first cooperating backplane assembly of the first cooperating backplane kit, and the first mating structure includes a plurality of first mating features, which can selectively be protruding, flat or recessed mating features. The second cooperating structure is for cooperating with a second mating structure of a second cooperating backplane kit for allowing or restraining assembly of the backplane assembly and a second cooperating backplane assembly of the second cooperating backplane kit, and the second cooperating structure includes a plurality of second cooperating features, which can selectively be protruding, flat, or recessed cooperating features.

Abstract: A fabric-over-foam (FOF) gasket assembly includes a foam core having a shaped suited for sealing a gap in a structure of the computing device. The foam core has a base surface and a sealing surface. The FOF gasket assembly further includes an electrically conductive fabric wrapped around the foam core, and a conductive adhesive attached to the base surface. The conductive adhesive includes a release coat layer for attaching the conductive adhesive to the base surface of the foam core, a carrier layer attached to the release coat layer, and a release paper layer removably attached to the carrier layer. The carrier layer includes a polyethylene terephthalate (PET) layer forming a structural base of the threads, an inner layer of a copper material, and an outer layer of a nickel material.

Abstract: An electronic device includes a housing having an outer wall forming a side surface of the electronic device and having at least one opening and an inner wall arranged to be spaced apart from the outer wall to form a groove. The electronic device further includes an input button inserted into the opening; a waterproof member arranged between the outer wall and the inner wall and including a protrusion coming in contact with one surface of the outer wall; a switch module including a switch; and a bracket arranged between the switch module and the inner wall. The protrusion forms a structure in which the height of a first region is greater than the height of a second region on the basis of one surface of the waterproof member corresponding to the position in which the input button is arranged.

Abstract: An electronic component comprising a package base and an at least partly metallic cap which is attached to the package base to form an enclosure. A metallic sheet is fixed to the package base. The metallic sheet comprises a sheet side section and the cap comprises a cap side section. The sheet side section is in contact with the cap side section so that they together form a side-shield on the side of the enclosure.

Abstract: A power supply mechanism is provided, which includes a housing and a power supply component, the housing is provided with an installation chamber, which is provided with a battery cell bracket, a bottom of the housing is provided with a fixing part, which is configured to face with the installation chamber, a top of the housing is provided with a connection groove corresponding to the fixing part, the connection groove is communicated with the installation chamber, the power supply component is connected to the battery cell bracket, passes through the connection groove and is provided with a conductive column that is protruded along a direction away from the connection groove; the power supply component is faced to the conductive column and provided with a conductive elastic sheet, a locking part is formed by an outer wall of the conductive column and the connection groove.

Abstract: A display device includes a display panel mounted on a curved surface, and driver circuits including circuit elements which are mounted on a plurality of plane surfaces provided on the back of the curved surface in a stepwise shape along the curved surface.

Abstract: A rotating shaft assembly, including a shaft sleeve which has an inner cavity, a second shaft, and a flexible circuit board. A part of the second shaft is located in the inner cavity and is rotatably connected to the shaft sleeve, and the other part of the second shaft is located outside the inner cavity. The flexible circuit board includes a first electrical connection end and a second electrical connection end located outside the inner cavity, a mounting part located between the first electrical connection end and the second electrical connection end, which includes a wound part and a laminated part that are connected, the wound part is wound around the part that is of the second shaft and located in the inner cavity, the laminated part is in a folded state, and at least a part of the laminated part is accommodated in a channel of the second shaft.