Abstract:
An electronic device booting method includes following steps: booting the electronic device when a power button of the electronic device is triggered; determining if a preset button of the electronic device is triggered; initializing at least one specific hardware element of the electronic device when the preset button is triggered; and executing an operation system (OS) before the specific hardware element is initiated when the preset button is not triggered. An electronic device is also disclosed.
Abstract:
An electronic device is provided, and the electronic device includes a main body, an actuating module, a first linkage, a first casing and a thermal dissipating module. The actuating module is disposed in the main body. One side of the first linkage is connected with the actuating module. The first casing is connected with the other side of the first linkage. One side of the thermal dissipating module is disposed at the main body and the other side of the thermal dissipating module is disposed at the first casing. The actuating module controls the first linkage to rotate to separate the first casing from the main body so that the thermal dissipating module is exposed from the main body and the electronic device is switched from a closed state to an open state.
Abstract:
An electronic apparatus includes a casing, a circuit board, and a feeding element. The casing is made of conducting material, and comprises at least one feeding point. The circuit board is disposed in the casing. The feeding element is disposed in the electronic apparatus, and contacts the feeding point of the casing for transmitting signals between the circuit board and the casing, so that the casing functions as a radiation body of an antenna. Accordingly, the signal shielding of the antenna can be avoided, and it is unnecessary to change the material of the casing to plastic, which needs additional manufacturing process. After several times of tests, configuring the feeding point at the corner of the casing can provide higher performance of transmission.
Abstract:
A wireless communication apparatus includes a first antenna, an antenna driving circuit, a first medium, a second medium, and a second antenna. The antenna driving circuit drives the first antenna. The first medium is electrically connected between the first antenna and the antenna driving circuit. The second medium and the first medium are in energy coupling. The second antenna is electrically connected with the second medium.
Abstract:
A heat dissipating module includes a base, at least one thermal conductive element, at least one liquid-pipe and a heat sink. The thermal conductive element is disposed at the base. The liquid-pipe is disposed adjacent to the thermal conductive element. The liquid-pipe is disposed at the base. The heat sink covers the thermal conductive element and the liquid-pipe. A part of the heat sink is connected to the base. The heat sink includes a plurality of fins. The heat dissipating module combines air-cooling with water-cooling so as to enhance thermal conductivity.
Abstract:
A portable electronic device includes a base, a supporting element and a body. The supporting element is pivotally connected to the base and the supporting element includes a connecting part which rotates relatively to the supporting element. The body includes an attaching surface, one side of the body abuts against the base, and the attaching surface is magnetically connected to the connecting part. The position where the body abuts against the base is taken as a supporting point, and the connecting part is connected to the attaching surface at different positions to form different angles between the body and the base.
Abstract:
A method for unlocking screen operable in an electronic apparatus having a screen is provided. The method includes, in a state that a display function of the screen is turned off, determining whether a trigger instruction received by the electronic apparatus corresponds to a trigger condition. If the trigger instruction corresponds to the trigger condition, in the state that the display function of the screen is turned off, determining whether an input instruction received by the electronic apparatus corresponds to an unlocking condition. If the input instruction corresponds to the unlocking condition, controlling the screen to turn on the display function thereof.
Abstract:
An electronic device and a control method of image capturing thereof are provided. The control method of image capturing includes: providing an image capturer to perform a recording operation on a dynamic image; receiving a zooming command to perform a zooming operation on a local area of a recorded image, and obtaining a zoomed image; generating a photographing start signal according to movement information of the image capturer, a magnification of the zooming operation, and a duration of the zoomed image; and performing a photographing operation on the local area of the recorded image according to the photographing start signal to obtain a static image.
Abstract:
A mold assembly for assembling a touch module in a housing is provided. The touch module comprises a carrier, a circuit board, and a touch film. The housing has an opening corresponding to the touch module, and there has a plurality of positioning elements and a plurality of securing elements around the opening. The mold assembly comprises a base, a first frame, and a second frame. The base has an upper surface with a concave corresponding to the carrier. The first frame is for detachably disposed on the first surface and has a first opening correspond to the circuit board. The second frame is for detachably disposed on the first surface and has a second opening corresponding to the touch film. An assembling method using the mold assembly is also provided.
Abstract:
An antenna device disposed on a side frame of a metal case. The antenna device includes a first slot, a dielectric substrate, a feeding metal portion, a ground portion, and a feeding source. The first slot is on the side frame, so that a part of the side frame surrounded by the first slot serves as a radiating metal portion. The dielectric substrate includes a first surface and a second surface and is disposed on the radiating metal portion through the first surface. The feeding metal portion is on the second surface of the dielectric substrate, so that a vertical projection of the feeding metal portion overlaps with the radiating metal portion. The ground portion is on the second surface of the dielectric substrate and connected to the metal case. The feeding source is on the second surface and connected to the feeding metal portion and the ground portion.