Abstract: A an electric deck frame structure (1, 1A) includes: corner lifting vertical posts (10), each having a carrying seat (11) and a retractable rod (12), the carrying seat includes a first connection part (111) having a first electric connection assembly (1133) and a second connection part (116) having a second electric connection assembly (1183); connection pipes (20), connected to the corner lifting vertical posts (10) and having a first opening (21) and a second opening (22); a transformer (30) having an electricity input port (31) arranged corresponding to the first opening (21) and an electricity output port (32) arranged corresponding to the second opening (22), the transformer is hidden in the connection pipe, and a power and signal main cable (40), connected to the electricity output port (32), the first electric connection assembly (1133) and the second electric connection assembly (1183).

Abstract: A device for use with a golf bag includes a loop including a first end, two sides and a second end, which is opposite the first end. The device further includes a movable gate provided on one side of the loop. The movable gate is movable from a biased closed position to an open position. The device further includes a cross member dividing the loop into a first loop and a second loop. The first loop is defined by the cross member, the sides and the first end and the second loop is defined by the cross member, the sides and the second end. The cross member includes a lip configured to function as a bottle opener with the second end. The first loop is configured to receive an item.

Abstract: A golf bag strap support system includes a central hub having a hub body and two articulated strap connectors secured to the hub body. The system further includes two support straps, with each support strap having a first end and a second end. The system further includes two shoulder straps, with each shoulder strap having a first end and a second end. Each of the first ends of the support strap and the shoulder strap is secured to the golf bag. Each second end of the support strap is secured to the hub body (34) of the central portion. Each second end of the shoulder strap is secured to a strap connector of the two articulated strap connectors of the central hub. The two support straps and the two shoulder straps are configured with respect to the central hub in a generally X-shaped configuration.

Abstract: A semiconductor structure is provided. The semiconductor structure includes a plurality of nanostructures, a gate stack surrounding the nanostructures, a first source/drain feature and a second source/drain feature adjoining a first side and a second side of the plurality of nanostructures, respectively, a first contact plug under and electrically connected to the first source/drain feature, a second contact plug over and electrically connected to the second source/drain feature, and an insulating layer surrounding the second contact plug and covering a top surface of the first source/drain feature.

Abstract: A connector assembly comprises a wire end connector, a board end connector, and an operating element. The board end connector includes a base and an extending tube body, which laterally forms a protrusion. The wire end connector includes a body and a wire connecting portion. The body has a shell that forms a guide groove and a side hole. The operating element has a pivot portion, a first extending arm, and a second extending arm. When the board end connector and the wire end connector are in an initial state and the operating element is in an unlocked position, the second extending arm is away from the guide groove. When the board end connector and the wire end connector are switched to a mating state, the protrusion contacts the first extending arm, causing the operating element to rotate from the unlocked position to a locked position.

Abstract: Aspects of this disclosure relate to a frequency multiplier with a transmission line in an input matching network. The frequency multiplier can multiply a frequency of a radio frequency input signal. The transmission line can provide a second harmonic trap. The transmission line can be electrically connected between input terminals of a pair of balanced transistors of the frequency multiplier.

Abstract: Provided are an air cell device and an air mattress system thereof. The air cell device includes an air cell which has therein an upper connection segment and a lower connection segment. The upper connection segment and the lower connection segment each have a curved portion whereby the air cell is partitioned to become a multilayered air cell so as to mitigate air cell bending or air cell inversion, thereby improving the lying human being's comfort.

Abstract: Various embodiments of the present disclosure are directed towards a semiconductor device. The semiconductor device includes a semiconductor fin projecting from a substrate. Semiconductor nanostructures are disposed over the semiconductor fin. A gate electrode is disposed over the semiconductor fin and around the semiconductor nanostructures. A dielectric fin is disposed over the substrate. A dielectric structure is disposed over the dielectric fin. An upper surface of the dielectric structure is disposed over the upper surface of the gate electrode. A dielectric layer is disposed over the substrate. The dielectric fin laterally separates both the gate electrode and the semiconductor nanostructures from the dielectric layer. An upper surface of the dielectric layer is disposed over the upper surface of the gate electrode structure and the upper surface of the dielectric structure. A lower surface of the dielectric layer is disposed below the upper surface of the dielectric fin.

Abstract: A method for forming a semiconductor device structure includes forming a fin structure, and the fin structure has multiple sacrificial layers and multiple semiconductor layers laid out alternately. The method also includes forming a gate stack wrapped around the fin structure and forming a spacer layer extending along sidewalls of the fin structure and the gate stack. The method further includes partially removing the fin structure and the spacer layer to form a recess exposing side surfaces of the semiconductor layers and the sacrificial layers. A remaining portion of the spacer layer forms a gate spacer. In addition, the method includes forming an inner spacer layer along a sidewall and a bottom of the recess and partially removing the inner spacer layer using an isotropic etching process. Remaining portions of the inner spacer layers form multiple inner spacers. The method includes forming an epitaxial structure in the recess.

Abstract: A device includes a substrate, a first nanostructure channel above the substrate and a second nanostructure channel between the first nanostructure channel and the substrate. An inner spacer is between the first nanostructure channel and the second nanostructure channel. A gate structure abuts the first nanostructure channel, the second nanostructure channel and the inner spacer. A liner layer is between the inner spacer and the gate structure.

Abstract: A linear actuator includes an actuating mechanism, a telescopic structure and a hand rotary releasing structure. The hand rotary releasing structure includes a connecting seat, a clutch seat, a clutch, an adaptor sleeve and a return spring. A peripheral surface of the connecting seat is disposed with multiple clutch troughs. The clutch seat includes multiple engaging troughs. The clutch is disposed between the connecting seat and the clutch seat. The adaptor sleeve is disposed around the clutch and includes multiple spiral troughs. The return spring is disposed around the connecting seat and abuts against the clutch to reduce the activating time and steps of release.

Abstract: A method for fabricating magnetoresistive random-access memory cells (MRAM) on a substrate is provided. The substrate is formed with a magnetic tunneling junction (MTJ) layer thereon. When the MTJ layer is etched to form the MRAM cells, there may be metal components deposited on a surface of the MRAM cells and between the MRAM cells by chemical reaction. The metal components are then removed by chemical reaction.

Abstract: A semiconductor structure is provided. The semiconductor structure includes a first substrate fin and a second substrate fin extending in a first direction, a first isolation strip extending in the first direction and spaced apart from the first substrate fin and the second substrate fin, a first source/drain structure on the first substrate fin, and a second source/drain structure on the second substrate fin. The first isolation strip is sandwiched between and in contact with a first sidewall of the first source/drain structure and a first sidewall of the second source/drain structure.

Abstract: A switch and a scheduling method for packet forwarding of the same are provided. The switch includes a plurality of absorb queues, a plurality of egress ports, and an absorb scheduler. Each of the egress ports includes a plurality of egress queues that are respectively connected to one of the absorb queues that are different from one another. The scheduling method includes: generating a priority state for each of the egress queues of each of the egress ports; a packet forwarding priority state of each of the absorb queues is determined according to the priority state of each of the egress queues connected thereto; and the absorb scheduler selecting one of the absorb queues to send a packet stored therein to a target egress queue of a target egress port to be sent to, according to the priority state of each of the egress queues.

Abstract: A chip transferring method includes steps of: providing a plurality of chips on a first load-bearing structure; measuring photoelectric characteristic values of the plurality of chips; categorizing the plurality of chips into a first portion of the plurality of chips and a second portion of the plurality of chips according to the photoelectric characteristic values of the plurality of chips, wherein the second portion of the plurality of chips comprise parts of the plurality of chips which photoelectric characteristic value falls within an unqualified range; removing the second portion of the plurality of chips from the first load-bearing structure; dividing the first portion of the plurality of chips into a plurality of blocks, wherein each of the plurality of blocks comprising multiple chips of the first portion of the plurality of chips; and transferring the first portion of the plurality of chips in one of the plurality of blocks to a second load-bearing structure in single-batch.

Abstract: A semiconductor device includes an active fin disposed on a substrate, a gate structure, and a pair of gate spacers disposed on sidewalls of the gate structure, in which the gate structure and the gate spacers extend across a first portion of the active fin, and a bottom surface of the gate structure is higher than a bottom surface of the gate spacers.

Abstract: An optical device includes a first waveguide, ring-shaped waveguides adjacent to the first waveguide, and heaters coupled to the ring-shaped waveguides in one-to-one correspondence. A method includes coupling a first light source with a first wavelength to the first waveguide, increasing electric current through the heaters until a first one of the ring-shaped waveguides resonates, assigning the first one of the ring-shaped waveguides to the first wavelength, resetting the electric current through the heaters to the initial electric current, coupling a second light source with a second wavelength to the first waveguide wherein the second wavelength is different from the first wavelength, increasing the electric current through the heaters until a second one of the ring-shaped waveguides resonates wherein the second one of the ring-shaped waveguides is different from the first one of the ring-shaped waveguides, and assigning the second one of the ring-shaped waveguides to the second wavelength.

Abstract: The present disclosure provides one embodiment of a semiconductor structure. The semiconductor structure includes a semiconductor substrate; a first conductive feature and a second conductive feature disposed on the semiconductor substrate; and a staggered dielectric feature interposed between the first and second conductive feature. The staggered dielectric feature includes first dielectric layers and second dielectric layers being interdigitated. The first dielectric layers include a first dielectric material and the second dielectric layers include a second dielectric material being different from the first dielectric material.

Abstract: An optical element driving mechanism is provided and includes a fixed assembly, a movable assembly, a driving assembly and a circuit assembly. The movable assembly is configured to connect an optical element, the movable assembly is movable relative to the fixed assembly, and the optical element has an optical axis. The driving assembly is configured to drive the movable assembly to move relative to the fixed assembly. The circuit assembly includes a plurality of circuits and is affixed to the fixed assembly.