Abstract: A carrier for solid state devices includes a plurality of panels, at least one gate, and an addition. The plurality of panels includes a first panel, a second panel, and a third panel. The at least one gate is attached to the second panel and the third panel. The at least one gate is configured to be in one of a first position or a second position. When the at least one gate is in the first position, an opening for receiving solid state devices is at least partially occluded to a first width that is smaller than a length of one of the solid state devices. When the at least one gate is in the second position, the opening for receiving the solid state devices is increased to a second width that is larger than the length of the one of the solid state devices.

Abstract: A bracket module and a computing device including the bracket module are disclosed. The bracket module includes a housing structure. The housing structure includes a plurality of slots. Each slot is configured to accept a device inserted therein. The housing structure is configured for attachment in a chassis of the computing device. The bracket module further includes a tray structure. The tray structure includes a fixed end connected to the housing structure and a free end opposite from the fixed end. The tray structure is configured to rotate relative to the housing structure about the fixed end. The bracket module further includes at least one fastener configured to engage the tray structure with the housing structure in an open position.

Abstract: A carrier for different form factors for insertion in a slot of a computing device is disclosed. The different form factors have different thicknesses defined by the E1.S specification. The carrier includes a base holding a first type of form factor. A bezel is configurable for insertion in a slot for a device of the first type of form factor. The bezel has an attachment surface. The base is attachable to the attachment surface of the bezel. A second type of form factor is also attachable to the attachment surface of the bezel. A cover encloses the first type of form factor when joined to the base. The base and cover are discarded when the second type of form factor is attached to the bezel. The attached bezel and second type of form factor may also be inserted in the slot.

Abstract: A memory device includes a substrate, a transistor disposed over the substrate, an interconnect structure disposed over and electrically connected to the transistor, and a memory stack disposed between two adjacent metallization layers of the interconnect structure. The memory stack includes a bottom electrode disposed over the substrate and electrically connected to a bit line, a memory layer disposed over the bottom electrode, a selector layer disposed over the memory layer, and a top electrode disposed over the selector layer and electrically connected to a word line. Besides, at least one moisture-resistant layer is provided adjacent to and in physical contact with the selector layer, and the at least one moisture-resistant layer includes an amorphous material.

Abstract: A printed circuit board system includes a plurality of printed circuit board (PCB) assemblies that includes at least three PCB assemblies and a connecting module. The connecting module is coupled to each of the PCB assemblies. The connecting module is adapted to provide electrical and signal communications between each of the PCB assemblies. The connecting module is on different planes with respect to at least one of the PCB assemblies.

Abstract: A dust-proof telecommunication system and a method for assembling a dust-proof mechanism are disclosed. The system includes a chassis including an opening on a top side thereof; a PCB located within the chassis; a memory module removably installed on the PCB; and a cover removably coupled to the top side of the chassis. The opening is positioned and shaped such that the memory module is accessible via the opening for easy replacement. The method includes inserting a strip into the opening such that a space is formed between a wall of the opening and the strip; and inserting the memory module into the space formed between the wall of the opening and the strip such that another strip located at a first side of the memory module contacts the wall and the strip contacts a second side of the memory module. The memory module is replaceably coupled to the PCB.

Abstract: A retractable handle assembly for an electronic device includes a base plate having a base plane, a sliding member, and a handle. The sliding member is movable along a first axis that is parallel to the base plane. The handle is movable along a second axis that is perpendicular to the base plane. The sliding member has a ramp surface and a wedge surface. The handle has a mating wedge surface. The ramp surface and the wedge surface are angularly oriented relative to the base plane. The ramp surface is angled to receive a first force, which is perpendicular relative to and directed towards the base plane. In response to the first force, the sliding member moves along the first axis and the wedge surface moves towards the mating wedge surface. The wedge surface moving towards the mating wedge surface causes a second force to deploy.

Abstract: A power supply system includes a housing having a top cover with a cutout portion formed near a rear end thereof. The cutout portion is configured to mechanically receive, one at a time, either a first bracket or a second bracket to be coupled to the top cover. The first bracket is configured to accommodate a first power supply component. The second bracket is configured to accommodate a second power supply component of a different type than the first power supply component. Each of the first bracket and the second bracket has a length and/or a width greater than a length and a width, respectively, of the cutout portion. Each of the first power supply component and the second power supply component is either a conventional power supply unit, or a busbar adapter sled configured to electrically connect with a busbar cable that supplies power from a remote power source.

Abstract: A ruler device module is disclosed that includes top and bottom plates that are parallel, with the bottom plate defining a tray where the bottom plate extends beyond the top plate. The module further includes a pair of side plates on opposite sides of, and extending between, the top and bottom plate, with each side plate including a slot. Partitions are perpendicular to and between the top and bottom plates forming bays between adjacent partitions and the top and bottom plates. A handle structure is between the top and bottom plates and includes a handle configured to rotate between a recessed position and a use position. A nut structure is between the top plate and the bottom plate. The nut structure includes an aperture configured to engage a fastener of a chassis to secure the ruler device module to the chassis.

Abstract: A latch mechanism for securing an expansion card assembly in a computer chassis includes a lever, a stop member, a rotary latch, a first biasing structure, and a second biasing structure. The lever includes a latching end and an opposing pinned end. The stop member extends from the pinned end. The rotary latch is connected to the latching end and includes a receiving chamber and a hook structure. The hook structure includes a notch for receiving a stop pin. The first biasing structure extends from the lever into the receiving chamber and is configured to urge the rotary latch into a locked position. The second biasing structure is configured to urge the lever about the pinned end to an open position.

Abstract: A ruler device module is disclosed that includes top and bottom plates that are parallel, with the bottom plate defining a tray where the bottom plate extends beyond the top plate. The module further includes a pair of side plates on opposite sides of, and extending between, the top and bottom plate, with each side plate including a slot. Partitions are perpendicular to and between the top and bottom plates forming bays between adjacent partitions and the top and bottom plates. A handle structure is between the top and bottom plates and includes a handle configured to rotate between a recessed position and a use position. A nut structure is between the top plate and the bottom plate. The nut structure includes an aperture configured to engage a fastener of a chassis to secure the ruler device module to the chassis.

Abstract: A power supply system includes a housing having a top cover with a cutout portion formed near a rear end thereof. The cutout portion is configured to mechanically receive, one at a time, either a first bracket or a second bracket to be coupled to the top cover. The first bracket is configured to accommodate a first power supply component. The second bracket is configured to accommodate a second power supply component of a different type than the first power supply component. Each of the first bracket and the second bracket has a length and/or a width greater than a length and a width, respectively, of the cutout portion. Each of the first power supply component and the second power supply component is either a conventional power supply unit, or a busbar adapter sled configured to electrically connect with a busbar cable that supplies power from a remote power source.

Abstract: A printed circuit board system includes a plurality of printed circuit board (PCB) assemblies that includes at least three PCB assemblies and a connecting module. The connecting module is coupled to each of the PCB assemblies. The connecting module is adapted to provide electrical and signal communications between each of the PCB assemblies. The connecting module is on different planes with respect to at least one of the PCB assemblies.

Abstract: A ruler device module is disclosed that includes top and bottom plates that are parallel, with the bottom plate defining a tray where the bottom plate extends beyond the top plate. The module further includes a pair of side plates on opposite sides of, and extending between, the top and bottom plate, with each side plate including a slot. Partitions are perpendicular to and between the top and bottom plates forming bays between adjacent partitions and the top and bottom plates. A handle structure is between the top and bottom plates and includes a handle configured to rotate between a recessed position and a use position. A nut structure is between the top plate and the bottom plate. The nut structure includes an aperture configured to engage a fastener of a chassis to secure the ruler device module to the chassis.

Abstract: A partition for separating computer components in an apparatus holding the computer components is provided. The partition includes a body with a first side and a second side; one or more top tabs projecting from both the first side and the second side of the body; one or more bottom tabs projecting from the first side of the body; and one or more bottom protrusions projecting from the second side of the body. The one or more top tabs are secured in a first manner, e.g., through rivets, to a first panel of the apparatus. The one or more bottom tabs are secured in the first manner to a second panel of the apparatus. The one or more bottom protrusions are secured in a second manner to the second panel of the apparatus, e.g., tucking a protrusion under the second panel. The features allow different-sized compartments for different storage form factors.

Abstract: A chassis for a computing device includes a base component and a top cover. The base component includes guide slots therein. The top cover includes stamped protrusions extending from one or more side slider structures. The slider structurers extend downwardly from a top surface of the top cover. The stamped protrusions are unitary one-piece structures with the one or more side slider structures. The stamped protrusions correspond to respective guide slots of the base component such that the stamped protrusions are positioned in corresponding guide slots when the base component and the top cover are in a mating position.

Abstract: A latch mechanism for securing an expansion card assembly in a computer chassis includes a lever, a stop member, a rotary latch, a first biasing structure, and a second biasing structure. The lever includes a latching end and an opposing pinned end. The stop member extends from the pinned end. The rotary latch is connected to the latching end and includes a receiving chamber and a hook structure. The hook structure includes a notch for receiving a stop pin. The first biasing structure extends from the lever into the receiving chamber and is configured to urge the rotary latch into a locked position. The second biasing structure is configured to urge the lever about the pinned end to an open position.

Abstract: A chassis for a computing device includes a base component and a top cover. The base component includes guide slots therein. The top cover includes stamped protrusions extending from one or more side slider structures. The slider structurers extend downwardly from a top surface of the top cover. The stamped protrusions are unitary one-piece structures with the one or more side slider structures. The stamped protrusions correspond to respective guide slots of the base component such that the stamped protrusions are positioned in corresponding guide slots when the base component and the top cover are in a mating position.

Abstract: A system chassis includes a housing and a card cage. The card cage is positioned at a first end of the housing. The card cage includes a plurality of cavities arranged to receive (i) a lower row of expansion device cards arranged in a first orientation, and (ii) an upper row of expansion device cards arranged in a second orientation, which is upside down from the first orientation.

Abstract: The present disclosure provides for a computer chassis design, which includes a sled and a sliding bracket. The sliding bracket includes a removable power supplier socket on a first end and a sliding return lever on the second end. When the sled is removed from the computer chassis, the removable power supplier socket can move out of the chassis via a set of mechanisms. The set of mechanisms can include an elastic element to cause the power supplier socket to automatically rotate out of the chassis. The sled can be shaped to extend behind the power supplier socket.