Abstract:
A docking station includes a connector, a first sliding component whereon a first incline and at least one incline are formed, and a second sliding component whereon a third incline is formed. When the second sliding component moves in a first direction so that the third incline slides relative to the first incline, the second sliding component pushes the first sliding component in a second direction for driving the connector to electrically connect with a notebook computer. The second sliding component further includes at least one protrusion. When the second sliding component moves in a third direction opposite to the first direction so that the protrusion slides relative to the second incline, the protrusion drives the first sliding component to move in a fourth direction opposite to the second direction so as to drive the connector to separate from the notebook computer.
Abstract:
A method of processing a substrate is provided. The method includes: providing a substrate, wherein the substrate includes a silicon layer; etching the substrate to form a cavity; filling a first conductor in part of the cavity; performing a first thermal treatment on the first conductor; filling a second conductor in the cavity to fill-up the cavity; and performing a second thermal treatment on the first conductor and the second conductor.
Abstract:
An electronic device includes: first and second housing bodies cooperating to form an inner receiving space; a motherboard disposed in the inner receiving space, partitioned by a partition line into a port zone having at least one input/output connector, and a non-port zone; first and second waterproof strips disposed respectively between the first housing body and the motherboard and between the second housing body and the motherboard, and disposed at the partition line, the second waterproof strip having opposite ends formed with respective extension parts extending perpendicularly toward the first waterproof strip and disposed at the peripheral edge of the motherboard; and a third waterproof strip connected to the first waterproof strip to form a closed seal ring therewith, disposed between the first and second housing bodies, and disposed at an outer side of a peripheral edge of the non-port zone.
Abstract:
A method of fabricating a through silicon via (TSV) structure is provided, in which, a first dielectric layer is formed on the substrate, the first dielectric layer is patterned to have at least one first opening, a via hole is formed in the first dielectric layer and the substrate, a second dielectric layer is conformally formed on the first dielectric layer, the second dielectric layer has at least one second opening corresponding to the at least one first opening, and the second dielectric layer covers a sidewall of the via hole. A conductive material layer is formed to fill the via hole and the second opening. The conductive material layer is planarized to form a TSV within the via hole. A TSV structure is also provided, in which, the second dielectric layer is disposed within the first opening and on the sidewall of the via hole.
Abstract:
A method of processing a substrate is provided. The method includes: providing a substrate, wherein the substrate includes a silicon layer; etching the substrate to form a cavity; filling a first conductor in part of the cavity; performing a first thermal treatment on the first conductor; filling a second conductor in the cavity to fill-up the cavity; and performing a second thermal treatment on the first conductor and the second conductor.
Abstract:
A removable mechanism for drawing an object from a housing is disclosed. The removable mechanism includes a first rail disposed inside the housing and on a side of the object for guiding the object to move inside the housing. The removable mechanism further includes a driving rod installed on the first rail in a movable manner for driving the object to move in a first direction, and a pull rod pivoted to the driving rod for pulling the driving rod to drive the object to move in the first direction so as to eject from the housing when being rotated out of the housing and being pulled.
Abstract:
A docking station includes a connector, a first sliding component whereon a first incline and at least one incline are formed, and a second sliding component whereon a third incline is formed. When the second sliding component moves in a first direction so that the third incline slides relative to the first incline, the second sliding component pushes the first sliding component in a second direction for driving the connector to electrically connect with a notebook computer. The second sliding component further includes at least one protrusion. When the second sliding component moves in a third direction opposite to the first direction so that the protrusion slides relative to the second incline, the protrusion drives the first sliding component to move in a fourth direction opposite to the second direction so as to drive the connector to separate from the notebook computer.