Abstract: A cushioning element includes a hollow elastic body, a plurality of first columns, and a plurality of second columns. The hollow elastic body includes a first side wall and a second side wall, where the first side wall includes a first inner surface, the second side wall includes a second inner surface. The first columns are disposed on the first inner surface, where each first column includes a first extending end and a first side surface, and there is a first distance between the first extending end and the second inner surface. The second columns are disposed on the second inner surface, where each second column includes a second extending end and a second side surface, there is a second distance between the second extending end and the first inner surface, and the second side surface and the first side surface are at least partially in contact with each other.

Abstract: An electronic device may include: a housing including a front plate oriented in a first direction, a rear plate oriented in a second direction opposite the first direction, and a side member enclosing at least a part of a space between the front plate and the rear plate. The electronic device further including a display disposed to be visible through the front plate; a printed circuit board disposed between the display and the rear plate; a support structure having a first face oriented in the first direction and supporting the display and a second face oriented in the second direction and supporting the printed circuit board; a conductive member disposed between the support structure and the rear plate; and a sealing structure disposed between the conductive member and the rear plate, the sealing structure extending along a periphery of the conductive member and formed in a closed curve shape.

Abstract: A module panel and method include an exterior housing, at least one heat sink disposed in the housing, a power delivery circuit disposed in the housing and coupled to one side of the at least one heat sink, and a controller circuit disposed in the housing and coupled to an opposite side of the at least one heat sink. The power delivery circuit operates using one or more different voltages than the controller circuit.

Abstract: A network-attachable rack-mountable computing device is housed within a shippable enclosure and is configured to mount in a rack. The device may be initialized (e.g., prepared to receive data, and an updateable electronic shipping display set to a shipping destination) by a service provider and shipped, in accordance with a displayed destination address, as a self-contained shipping unit. The device may be coupled with other devices via coupling mechanisms included in an enclosure of the device and may be mounted in a rack at a destination via mounting brackets included in the enclosure of the device. The device may be installed onto a network at the destination and loaded with data. When the device is received back at the service provider, the data is transferred from the device to a service provider storage facility, wiped of data, and prepared to be sent out again.

Abstract: A system for a glare reduction shield including an attaching assembly and a shield hood assembly is disclosed. The attaching assembly includes an attaching member which engages a top portion of a thermometer. Secured to the attaching member, with a hinge mechanism, is a shield hood of the shield hood assembly. The hinge mechanism is defined by a spring housing and a spring movably secured within the spring housing. The shield hood includes a lowered and raised configuration. The shield hood is used in the lowered configuration to block sunlight glare on a display screen of the thermometer for ease of viewing. The shield hood is rotated away from the attaching member about the hinge mechanism to achieve the lowered configuration. The shield hood is in the raised configuration when stored. The shield hood is rotated towards the attaching member about the hinge mechanism to achieve the raised configuration.

Abstract: Communication device board and a communication device are provided. A connector of the communication device board includes a fixed position and a contact position. The fixed position and the contact position; have different levels. The fixed position is fixedly connected one end of an inner side of a conductive resilient sheet. An outer side of the conductive sheet is provided with an insulating coating. When the fixed position fixedly connected to the end of the inner side of the conductive resilient sheet, and a mating gap between the connector of the communication device board and a corresponding communication device connector is smaller than a preset threshold range, A second end of the inner side of the conductive resilient sheet is in contact with the contact position (12).

Abstract: The present disclosure provides a storage chassis and an electronic device including the storage chassis. The storage chassis has a first receiving space at an upper portion of a rear end, the first receiving space is configured to be shared by a plurality of functional modules, and each functional module includes cable management supports, CPU computation control modules or storage hard disks. In the present disclosure, more modules can be arranged in a limited chassis space flexibly and reasonably, thereby improving the utilization of the chassis space and implementing configuration of various functions.

Abstract: An electronics cabinet can include a cylindrical housing, providing a wall defining an interior space for locating electronics equipment therein. A cylindrical section door can be located in an access cutout defined by the wall. An internal hinge can attach an interior of the door to an interior of the wall of the cylindrical housing. The internal hinge can include a pivoting curved hinge arm. The internal hinge can also include wall mount, configured to be attached to the interior of the wall of the cylindrical housing. The internal hinge can also include a pivot connection between the hinge arm and the wall mount. The internal hinge can also include a catch, integrated with or attached to the hinge arm, the catch configured for self-engagement to inhibit opening of the door beyond a specified door opening angle, and to permit closing of the door only upon manual user-disengagement.

Abstract: A server chassis including rack and mount cage. Mount cage includes cage part and handle. Cage part is fixed on a side of the rack. Handle includes pivot part, handheld part, and protruding part. Handheld part and protruding part are respectively connected to two opposite sides of pivot part, and pivot part is pivotally connected to cage part. Protruding part has first side surface located on a side of protruding part that is located away from pivot part. An axis of pivot part is spaced apart from first side surface by first distance along first direction. Pivot part is spaced apart from first side surface by second distance along second direction. First direction is different from the second direction, and first distance is different from second distance.

Abstract: A system includes a rack and one or more server systems mounted in the rack. A server system includes a chassis with one or more arrays of devices in the chassis. Each array includes mass storage devices and a server device mounted in the array within the chassis of the server system. The server device occupies no more than an equivalent volume of space in the chassis as one of the mass storage devices. A set of mass storage devices of an array and the server device of the array form a logical node, and a server system may include multiple logical nodes in the same chassis. Each array of devices may be located in a sled that can move into and out of the chassis of the server system.

Abstract: A chassis mounting frame includes a frame body, a fixing plate, a coupling member, a rotating member, and a pivoting member. The fixing plate is mounted on a side of the frame body and includes a resisting structure. The rotating member is provided on the frame body and coupled to the coupling member and configured to drive the coupling member to move inside the frame body and drive the coupling member and the frame body to move together. The pivoting member is provided on a side of the frame body and coupled to the coupling member. The coupling member is configured to drive the pivoting member to rotate to resist against the resisting structure.

Abstract: A supporting layer, a display device and a manufacture method of the display device are provided by the present application. The display device includes: a flexible screen device and a supporting layer. The flexible screen device is located on a side of the supporting layer, and the supporting layer is provided with at least one hollowed-out area for releasing an impact force when the flexible screen device is subjected to the impact force. In embodiments of the present application, by attaching a supporting layer with a plurality of hollowed-out areas to a flexible screen device, an impact force can be dispersed and buffered when the flexible screen device is impacted by a heavy object, damage to display components due to stress concentration can be avoided, thereby avoiding malfunction or failure of the flexible screen device.

Abstract: A self-standing data center infrastructure system includes a bottom frame and a collapsible top frame that are configured to be inserted into a standard shipping container for transport to a data center location. At the data center location the bottom frame is secured to a floor of the data center and the top frame is mounted as a pre-assembled unit on the bottom frame. The top frame is then expanded to provide infrastructure support to one or more rows of racks. Also, the racks may be secured to the bottom frame without the need for additional anchoring of the racks.

Abstract: This application relates to a method for forming an enclosure for a portable electronic device, the enclosure including a metal substrate that is overlaid by an anodized layer. The method includes dyeing the anodized layer by exposing pores of the anodized layer to a dye. The method further includes sealing the dye within the pores by exposing the anodized layer to a zinc-based sealing solution, where an external surface of the anodized layer having the pores that are sealed includes an amount of zinc between about 3 wt % to about 6 wt %.

Abstract: A frame structure includes a first frame, a rail, a handle, a buckle, a second frame, and buffer members. The first frame includes a bottom plate and side plates. The bottom plate and the side plates define an accommodation space. The rail is located on each of the side plates. One end of the handle is movably disposed on the rails. The buckle is located on the first frame and detachably fastened with the handle. The second frame is movably received in the accommodation space. One end of each buffer member is fixed to a bottom surface of the second frame, and another end resists the bottom plate. The handle is coupled to the second frame. When the handle is separated from the buckle, the handle is pushed or pulled to remove the second frame from the accommodation space or press the second frame into the accommodation space.

Abstract: A system and method are directed to a fan board sled assembly comprising a fan circuit board including a first end and an opposing second end, a fan cage module including a front section for receiving and removably securing the first end of the fan circuit board to the fan cage module, and a guide bracket including a base section for receiving and removably securing the second end of the fan circuit board to the guide bracket. The fan cage module further includes a back section for receiving one or more fan bodies. The combined fan circuit board, fan cage module and guide bracket are a single integrated unit insertable and extractable from a chassis opening of a computer chassis.

Abstract: The display apparatus includes a display assembly. The display apparatus further includes a mounting device on which the display assembly is mounted and a rotating shaft forming the center of rotation of the display assembly. The rotating shaft is at a fixed location for the mounting device and the display assembly, respectively. The display assembly is switched between a first mode and a second mode rotated from the first mode about a rotating shaft and is changed in the height of the center of the display assembly.

Abstract: A rack switch coupling system includes a switch device and a plurality of computing devices that are positioned in a rack in a stacked orientation. Each of the computing devices includes a top surface that corresponds with a first plane associated with that computing device, and a bottom surface that corresponds with a second plane associated with that computing device. A port extender system is positioned in the rack and includes respective first ports cabled to each of the computing devices, with each of the respective first ports located adjacent the computing device to which it is cabled and between the first plane and the second plane associated with that computing device. The port extender device also includes a plurality of second ports that are each located adjacent and cabled to switch device, with each respective first port connected to one of the plurality of second ports.

Abstract: In a foldable display device according to an embodiment, a groove with a zigzag pattern is formed on a surface of an optical element. The optical element is bonded using an adhesive layer having a low modulus to mitigate stress and impact due to folding in a folding area of the device. According to an embodiment, a foldable display device includes: a panel assembly divided into a folding area and a non-folding area; and an optical element on the panel assembly including grooves with a zigzag pattern patterned on an upper surface of the optical element.

Abstract: Information Handling Systems (IHSs), such as rack-mounted servers, may support various types of replaceable components that are installed in bays, such as storage drives and computing nodes. Some servers are constructed using a chassis that includes a front row of bays and an inner row of bays. In embodiments, in a closed position, the front row of bays conceals the inner row of bays until the front row of bays is rotated horizontally to an open position that provides access to the inner row of bays. The front row of bays may be divided into two banks of drive bays. The left and right banks of bays may be opened separately by rotating them horizontally about hinges connecting each bank to the chassis. By opening in this manner, the inner bays can be administered safely and limiting the forces placed on the chassis and the rack.