Abstract: An electronic device opening/closing control mechanism includes a connection arm movable between a first position and a second position. The connection arm has a first end and a second end. An elastic unit is disposed at the first end of the connection arm to normally apply an elastic force to the connection arm for keeping the connection arm positioned in the first position. A locking section is disposed at the second end of the connection arm. The locking section is held in a dent formed on the electronic device. When the connection arm is moved to the second position, the locking section is released from the held state, permitting the electronic device to be opened. The control mechanism overcomes the problem existing in the conventional locking device that under limitation of the space of the electronic device, the locking device cannot be easily mounted on the electronic device.

Abstract: An electronic device locking/unlocking mechanism assembled with an electronic device. The locking/unlocking mechanism includes a connection arm movable between a first position and a second position. The connection arm has a first end and a second end. An elastic unit is disposed at the first end of the connection arm to normally apply an elastic force to the connection arm for keeping the connection arm positioned in the first position. A locking section is disposed at the second end of the connection arm. The locking section is held in a dent formed on the electronic device. When the connection arm is moved to the second position, the locking section is released from the held state, whereby a pivot pin is unstressed to automatically bound open the electronic device. This eliminates the problem existing in the conventional mechanism that the electronic device is uneasy to open.

Abstract: A wiring structure between main body and cover body of electronic device includes a support connection member. The support connection member has a first pivoted section pivotally connected to the cover body and a second pivoted section pivotally connected to the main body. The first pivoted section is formed with a first pivot hole communicating with outer side. The second pivoted section is formed with a second pivot hole communicating with outer side. The support connection member is formed with a recessed receiving space between the first and second pivoted sections in communication with the first and second pivot holes. At least one conductive body is disposed in the receiving space. The conductive body has a first connection end and a second connection end respectively outward extending from the first and second pivot holes. A protection cover board is disposed in the receiving space for covering the conductive body.

Abstract: A linkage-type synchronization module structure includes a slide member, a relative slide member and two extensible/retractable assemblies connected therebetween. Second ends of the extensible/retractable assemblies are respectively pivotally connected to corresponding sections of two sides of the slide member. First ends of the extensible/retractable assemblies are slidably pivotally connected with each other and restricted by a middle slide guide section disposed between the slide member and the relative slide member. Two fixed support sections are respectively oppositely disposed on two lateral sides of the middle slide guide section. The extensible/retractable assemblies are formed with slide guide sections in which the fixed support sections are fitted.

Abstract: A linkage-type synchronous slide structure of relative slide assembly includes a slide member and a relative slide member slidably connected to the slide member. The relative slide member is formed with a slide guide section. The slide member is slidable relative to the relative slide member along the slide guide section. Two extensible/retractable assemblies with a variable length are respectively oppositely disposed on two sides of the slide guide section. Second ends of the extensible/retractable assemblies are respectively pivotally connected to corresponding sections of two sides of the slide member. First ends of the extensible/retractable assemblies are pivotally connected with each other and slidable along the slide guide section.

Abstract: The present invention discloses a slide and rotation module for an executable multiple operation mode electronic device, providing a structure with inclination-adjustable, movable, rotational and bidirectional folding functions. The slide and rotation module includes a steering arm and a slide seat disposed between the first machine body and the second machine body. The steering arm includes a first end pivoted to a first machine body and a second end pivoted to a second machine body, in which the second end of the steering arm is rotated and translated within a limiting part in response to a motion of the first machine body.

Abstract: A relative-rotation synchronous movement-aid device, which has a simple structure and is easy to assemble. The synchronous movement-aid device includes a linking arm and a rotational wheel assembled with the linking arm. The linking arm has a pivoted end and a free end mounted on the rotational wheel. The pivoted end is mounted on a rail. When an external force is applied to the linking arm, the pivoted end can freely move along the rail. The free end serves to make the rotational wheel relatively rotate along with the movement of the linking arm to achieve better synchronous movement effect than the conventional slide mechanism.

Abstract: A synchronous movement-aid device for slide module includes at least one aid device. The aid device includes a first arm, a second arm connected with the first arm and a rotational wheel connected with the second arm and rotatable with the movement of the second arm. The first arm has a pivoted end mounted on a rail. When an external force is applied to the first arm, the pivoted end can freely move along the rail relative to the second arm. The second arm has a fixed end connected to the rotational wheel. When the first arm moves along the rail, the rotational wheel is driven to rotate so as to achieve better synchronous movement effect than the conventional slide mechanism.