Abstract: A portable computer includes a base, a keyboard module, a pushing assembly, a display module, and a sliding assembly. The base includes a front end and a rear end. The keyboard module includes two keyboard portions; each keyboard portion is moveably combined with the base by at least one moving structure. The pushing assembly includes two pushing elements combined moveably with the base. The display module includes a connecting end and a support portion. The sliding assembly includes a slide corresponding element disposed in the base and a sliding element pivoted on the connecting end and moved along the slide corresponding element. When the connecting end moves towards the front end with the slide element, the pushing assembly pushes and moves the moving structures by the slide element, and the two keyboard portions are separated; then the connecting end is moved through the keyboard module with the slide element.

Abstract: An on-vehicle wireless charger mounted on top of a dashboard of vehicle includes a vehicle power source supply cable, a fixed member, a sunlight resisting pad, and a transmitting module. The fixed member is attached to the dashboard. The sunlight resisting pad is attached to the fixed member. The transmitting module is electrically mounted on the fixed member and connected to the vehicle power source supply cable. The transmitting module is sandwiched between the sunlight resisting pad and the fixed member.

Abstract: Systems and methods are provided for contact formation. A semiconductor structure is provided. The semiconductor structure includes an opening formed by a bottom surface and one or more side surfaces. A first conductive material is formed on the bottom surface and the one or more side surfaces to partially fill the opening, the first conductive material including a top portion and a bottom portion. Ion implantation is formed on the first conductive material, the top portion of the first conductive material being associated with a first ion density, the bottom portion of the first conductive material being associated with a second ion density lower than the first ion density. At least part of the top portion of the first conductive material is removed. A second conductive material is formed to fill the opening.

Abstract: A semiconductor device and methods of formation are provided. A semiconductor device includes an annealed cobalt plug over a silicide in a first opening of the semiconductor device, wherein the annealed cobalt plug has a repaired lattice structure. The annealed cobalt plug is formed by annealing a cobalt plug at a first temperature for a first duration, while exposing the cobalt plug to a first gas. The repaired lattice structure of the annealed cobalt plug is more regular or homogenized as compared to a cobalt plug that is not so annealed, such that the annealed cobalt plug has a relatively increased conductivity or reduced resistivity.

Abstract: A portable computer includes a base, a display module, a support element and a sliding assembly. The base defines a first area and a second area between a front end and a rear end thereof, The display module includes a connecting end having a connecting element. Two ends of the support element are pivoted respectively to the rear end of the base and the display module. The sliding assembly includes a slide guiding structure disposed in the second area and a sliding element moving along the slide guiding structure. The sliding element includes an engaging portion for detachably engaging with the connecting element. When the connecting end of the display module moves from the second area to the first area with the sliding element, the connecting end is moved to stride across the first area by detaching the connecting element from the engaging portion.

Abstract: A method includes forming a gate stack over a semiconductor region, depositing an impurity layer over the semiconductor region, and depositing a metal layer over the impurity layer. An annealing is then performed, wherein the elements in the impurity layer are diffused into a portion of the semiconductor region by the annealing to form a source/drain region, and wherein the metal layer reacts with a surface layer of the portion of the semiconductor region to form a source/drain silicide region over the source/drain region.

Abstract: Systems and methods are provided for reducing a contact resistivity associated with a semiconductor device structure. A substrate including a semiconductor region is provided. One or more dielectric layers are formed on the semiconductor region, the one or more dielectric layers including an element. A gaseous material is applied on the one or more dielectric layers to change a concentration of the element in the one or more dielectric layers. A contact layer is formed on the one or more dielectric layers to generate a semiconductor device structure. The semiconductor device structure includes the contact layer, the one or more dielectric layers, and the semiconductor region. A contact resistivity associated with the semiconductor device structure is reduced by changing the concentration of the element in the one or more dielectric layers.

Abstract: Systems and methods are provided for reducing a contact resistivity associated with a semiconductor device structure. A substrate including a semiconductor region is provided. One or more dielectric layers are formed on the semiconductor region, the one or more dielectric layers including an element. A gaseous material is applied on the one or more dielectric layers to change a concentration of the element in the one or more dielectric layers. A contact layer is formed on the one or more dielectric layers to generate a semiconductor device structure. The semiconductor device structure includes the contact layer, the one or more dielectric layers, and the semiconductor region. A contact resistivity associated with the semiconductor device structure is reduced by changing the concentration of the element in the one or more dielectric layers.

Abstract: A portable computer includes a base, a display module, and a support element. The base includes a first area, a second area, and a sliding assembly disposed at a substantially central position of the second area. The sliding assembly includes a sliding element and a guiding structure, and the sliding element can move along the guiding structure to slide at least in the second area. The display module includes a connecting end combined with the sliding element and a support plane. The support element includes a first area pivotally connected to the support plane and a second end pivotally connected to a rear end of the base. When the display module is opened, the display module further rotates around the first fixed end and moves the connecting end simultaneously. Then, the display module is supported by the support element to keep a suitable tilted angle.

Abstract: A portable computer comprises a base, a display module, at least one support element and at least one sliding assembly. The base comprises a first area and a second area. The display module comprises a connect end and a display face. Each support element comprises a first end pivoted on a portion of the display module other than the display face and a second end pivoted on the rear end of the base. Each sliding assembly comprises a slide rail disposed at least in the second area and a roller sliding element connected with the connect end and moved along the slide rail.

Abstract: A portable computer includes a base, a display module, at least one support element and at least one sliding assembly. The base includes a first area and a second area. The display module includes a connect end and a display face. Each support element comprises a first end pivoted on a portion of the display module other than the display face and a second end pivoted on the rear end of the base. Each sliding assembly includes a rod element disposed at least in the second area and a sleeve sliding element connected with the connect end and moved along the rod element.

Abstract: A portable computer includes a base, a display module, a support element and a sliding assembly. The base defines a first area and a second area between a front end and a rear end thereof, The display module includes a connecting end having a connecting element. Two ends of the support element are pivoted respectively to the rear end of the base and the display module. The sliding assembly includes a slide guiding structure disposed in the second area and a sliding element moving along the slide guiding structure. The sliding element includes an engaging portion for detachably engaging with the connecting element. When the connecting end of the display module moves from the second area to the first area with the sliding element, the connecting end is moved to stride across the first area by detaching the connecting element from the engaging portion.

Abstract: A portable computer includes a base, a display module, a support element and a cam structure. The base comprises a first area and a second area. The display module includes a connecting end and a display face. The support element includes a first end connected pivotally to a portion of the display module other than the display face and a second end connected pivotally to the rear end of the base. Two ends of the cam structure are connected pivotally to the base and the support element. Accordingly, the support element is connected indirectly and pivotally to the base. When the display module is slid and rotated relative to the base to change a notebook state or a tablet state, the support element does not interfere the movement of the display module and keep the flatness of the whole appearance of the portable computer.

Abstract: A portable computer includes a base, a keyboard module, a pushing assembly, a display module, and a sliding assembly. The base includes a front end and a rear end. The keyboard module includes two keyboard portions; each keyboard portion is moveably combined with the base by at least one moving structure. The pushing assembly includes two pushing elements combined moveably with the base. The display module includes a connecting end and a support portion. The sliding assembly includes a slide corresponding element disposed in the base and a sliding element pivoted on the connecting end and moved along the slide corresponding element. When the connecting end moves towards the front end with the slide element, the pushing assembly pushes and moves the moving structures by the slide element, and the two keyboard portions are separated; then the connecting end is moved through the keyboard module with the slide element.

Abstract: A portable computer comprises a base, a display module, and a support element. The base comprises a first area and a second area, and a sliding assembly disposed at a substantially central position of the second area. The sliding assembly comprises a sliding element and a guiding structure, and the sliding element can move along the guiding structure to slide at least in the second area. The display module comprises a connecting end combined with the sliding element and a support plane. The support element comprises a first area pivotally connected to the support plane and a second end pivotally connected to a rear end of the base. When the display module is opened, the display module further rotates around the first fixed end and moves the connecting end simultaneously; and then the display module is supported by the support element to keep a suitable tilted angle.

Abstract: A portable computer comprises a base, a display module, at least one support element and at least one sliding assembly. The base comprises a first area and a second area. The display module comprises a connect end and a display face. Each support element comprises a first end pivoted on a portion of the display module other than the display face and a second end pivoted on the rear end of the base. Each sliding assembly comprises a rod element disposed at least in the second area and a sleeve sliding element connected with the connect end and moved along the rod element.

Abstract: A portable computer comprises a base, a display module, at least one support element and at least one sliding assembly. The base comprises a first area and a second area. The display module comprises a connect end and a display face. Each support element comprises a first end pivoted on a portion of the display module other than the display face and a second end pivoted on the rear end of the base. Each sliding assembly comprises a slide rail disposed at least in the second area and a roller sliding element connected with the connect end and moved along the slide rail.

Abstract: Binoculars having a center-focusing function and an individual-focusing comprise a telescopic base provided at an end thereof with a control sleeve which is connected to a left lens system in a left barrel and a right lens system in a right barrel through an adjusting portion disposed in the telescopic base. When a user pushes the control sleeve so that the control sleeve is forced to shift toward the adjusting portion, the user can rotate the control sleeve to simultaneously actuate the adjusting portion, so as to adjust focuses of the left and right lens systems. When the user pulls the control sleeve so that the control sleeve is forced to shift away from the adjusting portion, the user can rotate the control sleeve to simultaneously actuate the adjusting portion, so as to adjust a parallax between one and the other of the left and right lens systems.

Abstract: In a binocular telescope with an adjustable prism module, an eyepiece lens module, a prism module and an objective lens module are installed inside a telescope tube of the binocular telescope. The prism module includes a prism base, a first right-angle prism, a Porro prism, a second right-angle prism and a support base, and an exit surface of the first right-angle prism is connected with an incident surface of the Porro prism, and the second right-angle prism is set on the support base, and the incident surface of the second right-angle prism is attached to the Porro prism. The first and second right-angle prisms can be adjusted to change the angle of optical axes among the prism module, the eyepiece lens module and the objective lens module to prevent a distortion of the optical imaging.

Abstract: A waterproof zoom binocular telescope includes a left lens barrel, a right lens barrel, an ocular base disposed at an end of each lens barrel, and a synchronous belt sprocket disposed at the connecting position of the two ocular bases. Each ocular base includes an ocular module, and the two ocular modules separately include a zoom unit. Each zoom unit and the synchronous belt sprocket are connected with a synchronous belt to form a transmission chain structure. An eccentric cam is installed between two external common tangents of each ocular module and the synchronous belt sprocket for tightly pressing the two synchronous belts. If any one of the zoom units rotates, the transmission chain structure effectively drives the synchronous belt to rotate another zoom unit correspondingly.