Abstract: A tape includes: a substrate, a conductive adhesive layer disposed on the substrate, and an insulating layer disposed on a part of a bonding surface of the conductive adhesive layer. The insulating layer is configured to insulate the conductive adhesive layer from a conducting part of an object to be bonded.

Abstract: A chip having a debug function includes functional circuitries, a selector circuitry, a data reconstruction circuitry, and a switching circuitry. Each functional circuitry includes a decoder circuit that stores a corresponding set of debug signals and outputs a corresponding debug signal in the corresponding set of debug signals to be a corresponding signal in first signals according to a corresponding address signal in address signals. The selector circuitry selects second signals from the first signals according to the address signals. The data reconstruction circuitry selects first data from the second signals according to split signals and outputs the same to be debug data. Each first data is partial data of a corresponding signal in the second signals. The switching circuitry determines whether to output the debug data or at least one output signal associated with the functional circuitries via output ports according to switching signals.

Abstract: Apparatuses, systems, and techniques are presented to generate digital content. In at least one embodiment, one or more neural networks are used to generate one or more textured three-dimensional meshes corresponding to one or more objects based, at least in part, one or more two-dimensional images of the one or more objects.

Abstract: Methods and systems for producing graphene from spent lithium-ion batteries are disclosed. One method includes applying an acid leaching solution to an anode of a lithium-ion battery to produce expanded graphite, applying a hydrothermal process to the expanded graphite to produce purified graphite, and subjecting the purified graphite to a shear mixing process to produce dispersed graphene. In some examples, the shear mixing process is combined with a hydrogen passivation process, which collectively improves each of graphene quality, graphene conversion rate, and graphene production efficiency.

Abstract: A packaging substrate, a packaging structure, an electronic device and a manufacturing method, and pertain to the field of chip packaging technologies. The packaging substrate includes a body including metal cabling. The body includes a first surface, a second surface and a side surface. The side surface is connected to the first surface and second surface. The first surface includes many first connection structures. The second surface includes second connection structures. The side surface includes third connection structures. A part of the first connection structures are connected to the second connection structures by using the metal cabling. The other part of the first connection structures are connected to the third connection structures by using the metal cabling. When the same total quantity of pins need to be disposed, a part of the pins are transferred to the side surface of the body, with less pins at the second surface.

Abstract: A chip having a debug function includes functional circuitries, a selector circuitry, a data reconstruction circuitry, and a switching circuitry. Each functional circuitry includes a decoder circuit that stores a corresponding set of debug signals and outputs a corresponding debug signal in the corresponding set of debug signals to be a corresponding signal in first signals according to a corresponding address signal in address signals. The selector circuitry selects second signals from the first signals according to the address signals. The data reconstruction circuitry selects first data from the second signals according to split signals and outputs the same to be debug data. Each first data is partial data of a corresponding signal in the second signals. The switching circuitry determines whether to output the debug data or at least one output signal associated with the functional circuitries via output ports according to switching signals.

Abstract: Disclosed is a register data checking device including: an original parity-bit generator generating an original parity bit according to register data to be inputted into a register, and then writing the original parity bit to the register; and a detecting circuit. The detecting circuit includes: a scanning circuit reading the register data and the original parity-bit from the register; an arbitrator enabling the scanning circuit when an access status of the register is free, and thereby forwarding the register data and the original parity bit from the scanning circuit; at least one controlled parity-bit generator generating a controlled parity bit according to the register data from the arbitrator when the access status of the register is free; and at least one parity-bit checking circuit comparing the original parity bit from the arbitrator with the controlled parity bit when the access status is free, and thereby outputting a check result.

Abstract: A packaging substrate, a packaging structure, an electronic device and a manufacturing method, and pertain to the field of chip packaging technologies. The packaging substrate includes a body including metal cabling. The body includes a first surface, a second surface and a side surface. The side surface is connected to the first surface and second surface. The first surface includes many first connection structures. The second surface includes second connection structures. The side surface includes third connection structures. A part of the first connection structures are connected to the second connection structures by using the metal cabling. The other part of the first connection structures are connected to the third connection structures by using the metal cabling. When the same total quantity of pins need to be disposed, a part of the pins are transferred to the side surface of the body, with less pins at the second surface.

Abstract: Disclosed is a register data checking device including: an original parity-bit generator generating an original parity bit according to register data to be inputted into a register, and then writing the original parity bit to the register; and a detecting circuit. The detecting circuit includes: a scanning circuit reading the register data and the original parity-bit from the register; an arbitrator enabling the scanning circuit when an access status of the register is free, and thereby forwarding the register data and the original parity bit from the scanning circuit; at least one controlled parity-bit generator generating a controlled parity bit according to the register data from the arbitrator when the access status of the register is free; and at least one parity-bit checking circuit comparing the original parity bit from the arbitrator with the controlled parity bit when the access status is free, and thereby outputting a check result.

Abstract: A housing of a computer host housing with a fixing for disk drives which is fastener-free includes a chassis and a magnetic rack. The chassis includes bottom shell, and first and second side shells. Ends of the first and second side shells define a first notch and a first sliding groove. The first sliding groove communicates with the first notch, the end of the first side shell defines a second notch and a second sliding groove. The second sliding groove communicates with the second notch. The magnetic rack includes first and second sidewalls. A first shaft and a second shaft protrude from the first sidewall, another first shaft protrudes from the second sidewall. The two first shafts and the second shaft can slide from the notches into the sliding grooves to secure or to allow the release of the disk drives.

Abstract: A housing locking apparatus includes a shell, a cover, a fixing member, a blocking member and an operation member. The shell includes an abutting portion protruding inside of the shell and a restriction member protruding outside of the shell. The cover includes a covering plate and a sidewall protruding from the covering plate. The sidewall defines a restriction hole and abuts against the outside of the shell. The restriction member is movably received in the restriction hole. The fixing member is attached to the covering plate. The blocking member and the operation member are both rotationally attached to the fixing member. An end of the blocking member abuts against the abutting portion. The operation member rotates around the fixing member at a first direction to press the blocking member to rotate to position the end of the blocking member between the covering plate and the abutting portion.

Abstract: An electronic device enclosure which is fireproof and shielded against electromagnetic radiation includes a base plate, a front plate, a rear plate, a first plate, a second plate, a case configured to be secured on the base plate, and a protective film of aluminum. The case can be opened and closed like the lid of a box and the base plate, the first side plate, the second plate, and the case are made of non-metallic material. The front plate and the rear plate are made of metal. The protective film is attached to the surfaces of the base plate, the first side plate, the second plate, and the case.

Abstract: An electronic device enclosure which is fireproof and shielded against electromagnetic radiation includes a base plate, a front plate, a rear plate, a first plate, a second plate, a case configured to be secured on the base plate, and a protective film of aluminum. The case can be opened and closed like the lid of a box and the base plate, the first side plate, the second plate, and the case are made of non-metallic material. The front plate and the rear plate are made of metal. The protective film is attached to the surfaces of the base plate, the first side plate, the second plate, and the case.

Abstract: A housing of an electronic device to prevent an output of electromagnetic radiation includes a shell, a conducting layer, and two side plates. The shell can be made of non-conducting material. The conducting layer is attached to the shell. The two side plates can be made of conducting material. The two side plates are fixed to two ends of the shell and are in contact with the conducting layer. The housing of the electronic device is electrically conductive. An electronic device is also provided.

Abstract: An electronic device includes a non-metallic main body, a front panel, a rear panel, and a circuit board received in the main body. The main body defines a first opening and a second opening relative to the first opening. The front panel is received in the first opening. The rear panel is received in the second opening and electrically coupled to a ground wire of the circuit board.

Abstract: An electronic device includes a chassis, a circuit board received in the chassis, and a cover coupled to the chassis. The chassis defines an opening and includes a first sidewall and a second sidewall. The cover includes a base plate, a first side plate, and a second side plate. The base plate is configured to cover the opening. The first side plate extends from the base plate and covers the first sidewall. The second side plate is mounted to the second sidewall. The first sidewall and the second sidewall are located at two opposite sides of the opening. The first side plate and the second side plate are located at two opposite sides of the base plate. The first side plate and the base plate are rotatable relative to the second side plate to enable access to the opening.

Abstract: Electronic device enclosure includes a main body and a cover. The main body includes a first sidewall and a second sidewall opposite to the first sidewall. The cover is rotatably coupled to the first sidewall and includes a cover main body. The cover is foldable relative to the first sidewall to secure to the second sidewall. The cover main body is made of non-metallic material, and a top moisture proof member is attached to a top surface of the cover main body to protect the cover main body from moisture.

Abstract: A housing locking apparatus includes a shell, a cover, a fixing member, a blocking member and an operation member. The shell includes an abutting portion protruding inside of the shell and a restriction member protruding outside of the shell. The cover includes a covering plate and a sidewall protruding from the covering plate. The sidewall defines a restriction hole and abuts against the outside of the shell. The restriction member is movably received in the restriction hole. The fixing member is attached to the covering plate. The blocking member and the operation member are both rotationally attached to the fixing member. An end of the blocking member abuts against the abutting portion. The operation member rotates around the fixing member at a first direction to press the blocking member to rotate to position the end of the blocking member between the covering plate and the abutting portion.

Abstract: An electronic device enclosure includes a panel, a basic frame, a first frame, a second frame, and a sleeve. Both the first frame and the second frame are located between the panel and the basic frame. An inner space is defined by the panel, the basic frame, the first frame, and the second frame. A first inlet is surrounded by the panel, the first frame, and the basic frame and a second inlet is surrounded by the panel, the second frame, and the basic frame. Both the first inlet and second inlet communicate with the inner space. The sleeve covers outside the first frame and the second frame to shield the first inlet and the second inlet.

Abstract: A bracket mechanism includes a tray, and a blocking member. The tray defines a receiving space configured to receive a first data storage device. The tray includes a first sidewall. The first sidewall defines an installation hole, and a latching member located in the first storage device is engaged in the installation hole. The blocking member is engaged with the first tray and includes a limiting piece, and the limiting piece is received in the installation hole and resists the latching member to prevent the latching member from moving in the installation hole relative to the first sidewall.