Abstract:
The receptacle includes an insulated body, a pair of pins and a micro switch. The insulated body has a recess. The pair of pins is fixed in the insulated body and located in the recess. The pair of pins includes a first pin and a second pin. The second pin electrically connects a wire. Each of the first and second pins has a free end. The recess is divided into an inner region and an outer region by the two free ends. The micro switch is movably connected in the insulated body and disposed correspondingly to the wire. The micro switch has a contact sheet which can selectively be in contact with the wire. The micro switch is located in the inner region of the recess.
Abstract:
The receptacle includes an insulated body, a pair of pins and a micro switch. The insulated body has a recess. The pair of pins is fixed in the insulated body and located in the recess. The pair of pins includes a first pin and a second pin. The second pin electrically connects a wire. Each of the first and second pins has a free end. The recess is divided into an inner region and an outer region by the two free ends. The micro switch is movably connected in the insulated body and disposed correspondingly to the wire. The micro switch has a contact sheet which can selectively be in contact with the wire. The micro switch is located in the inner region of the recess.
Abstract:
A wet cleaning process is provided. The wet cleaning process includes at least one first rinse process and a second rinse step. The first rinse step includes rinsing a substrate using deionized water containing CO2, and then draining the water containing CO2 to expose the substrate in an atmosphere of CO2. The second rinse step includes rinsing the substrate using deionized water containing CO2.
Abstract:
The wireless charging device is provided for coupling and charging a portable electronic device, and the portable electronic device includes an input terminal, and the wireless charging device comprises an electric power transmitting module, an electric power receiving module, and an electric power transmission interface. The electric power receiving module can produce an electromagnetic effect with the electric power transmitting module, such that the electric power transmitting module outputs electric power to the electric power receiving module. The electric power transmission interface is electrically coupled to the electric power receiving module through a detachable electric power connecting module, and the electric power transmission interface can switch the electric power outputted from the electric power transmitting module to the electric power receiving module to charge the portable electronic device. The electric power transmission interface has an output connector detachably connectable to an input terminal of the portable electronic device.
Abstract:
An electronic apparatus has an electronic component and a pin mount. The electronic component has a working surface and two pins protruding from the working surface and each pin being bent to form an L-shape with a proximal part and a distal part. The pin mount has a flat bottom, a rear, two through holes and two communicating recesses. The through holes are defined through the pin mount in parallel, are formed from the front to the rear and receiving the proximal parts of the pins. The communicating recesses are formed in parallel in the front from the through holes toward the bottom of the pin mount, communicate respectively with the through holes and receiving the distal parts of the pins. The pin mount immobilizes the electronic component to prevent the pins from being detached from the electronic component or the PCB to retain the lifetime of the pins.
Abstract:
A method of fabricating a dynamic random access memory is provided. First, a substrate at least having a memory device area and a peripheral device area is provided, wherein an isolation structure and a capacitor are formed in the substrate of the memory device area, and an isolation structure and a well are formed in the substrate of the peripheral device area. A first oxide layer is formed on the substrate of the peripheral device area, and a passing gate isolation structure is formed on the substrate of the memory device area at the same time. A second oxide layer is formed on the substrate of the memory device area. And a first transistor is formed on the substrate of the memory device area, a passing gate is formed on the passing gate isolation structure, and a second transistor is formed on the substrate of the peripheral device area.
Abstract:
A method of fabricating a dynamic random access memory is provided. First, a substrate at least having a memory device area and a peripheral device area is provided, wherein an isolation structure and a capacitor are formed in the substrate of the memory device area, and an isolation structure and a well are formed in the substrate of the peripheral device area. A first oxide layer is formed on the substrate of the peripheral device area, and a passing gate isolation structure is formed on the substrate of the memory device area at the same time. A second oxide layer is formed on the substrate of the memory device area. And a first transistor is formed on the substrate of the memory device area, a passing gate is formed on the passing gate isolation structure, and a second transistor is formed on the substrate of the peripheral device area.
Abstract:
A waterproof casing for a power supply has a lower casing, an upper casing, an inlet cover and an outlet cover. The lower cover contains electronic components. The upper casing is mounted on the opening of the lower casing and has an inlet cavity, at least one inlet, an outlet cavity and at least one outlet. The at least one inlet and outlet are formed through the upper casing and respectively communicate with the inlet cavity and outlet cavity. The inlet cover and outlet cover respectively seal the inlet cavity and the outlet cavity, communicate the inlet cavity and the outlet cavity with the lower casing to allow the air to flow inside the casing and to keep the water from flowing in the inlet cavity and the outlet cavity. Structure of the waterproof casing is simplified, so benefits manufacturing.
Abstract:
A waterproof casing for a power supply has a lower casing, an upper casing, an inlet cover and an outlet cover. The lower cover contains electronic components. The upper casing is mounted on the opening of the lower casing and has an inlet cavity, at least one inlet, an outlet cavity and at least one outlet. The at least one inlet and outlet are formed through the upper casing and respectively communicate with the inlet cavity and outlet cavity. The inlet cover and outlet cover respectively seal the inlet cavity and the outlet cavity, communicate the inlet cavity and the outlet cavity with the lower casing to allow the air to flow inside the casing and to keep the water from flowing in the inlet cavity and the outlet cavity. Structure of the waterproof casing is simplified, so benefits manufacturing.
Abstract:
An electronic apparatus has an electronic component and a pin mount. The electronic component has a working surface and two pins protruding from the working surface and each pin being bent to form an L-shape with a proximal part and a distal part. The pin mount has a flat bottom, a rear, two through holes and two communicating recesses. The through holes are defined through the pin mount in parallel, are formed from the front to the rear and receiving the proximal parts of the pins. The communicating recesses are formed in parallel in the front from the through holes toward the bottom of the pin mount, communicate respectively with the through holes and receiving the distal parts of the pins. The pin mount immobilizes the electronic component to prevent the pins from being detached from the electronic component or the PCB to retain the lifetime of the pins.