Abstract: A self-learning intelligent driving device including: a first neural network module for performing a corresponding action evaluation operation on an input image to generate at least one set of trajectory coordinates: a switching unit controlled by a switching signal, where when the switching signal is active, data received at a first port is sent to a second port, and when the switching signal is inactive, data received at the first port is sent to a third port; a second neural network module for performing a corresponding image evaluation operation on the at least one set of trajectory coordinates when the switching signal is active to generate at least one simulated trajectory image; and a driving unit having a robotic arm for generating at least one corresponding motion trajectory according to the at least one set of trajectory coordinates when the switching signal is inactive.

Abstract: A self-learning intelligent driving device including: a first neural network module for performing a corresponding action evaluation operation on an input image to generate at least one set of trajectory coordinates: a switching unit controlled by a switching signal, where when the switching signal is active, data received at a first port is sent to a second port, and when the switching signal is inactive, data received at the first port is sent to a third port; a second neural network module for performing a corresponding image evaluation operation on the at least one set of trajectory coordinates when the switching signal is active to generate at least one simulated trajectory image; and a driving unit having a robotic arm for generating at least one corresponding motion trajectory according to the at least one set of trajectory coordinates when the switching signal is inactive.

Abstract: A multi-point temperature sensor device include a body unit (1) and a sensor unit (2) mounted in the body unit (1). The sensor unit (2) includes a plurality of signal transmission lines (21; 21?) and a common wire (24) placed in parallel relation to the plurality of signal transmission lines (21; 21?). Each of the plurality of signal transmission lines (21; 21?) has an end to which a sensor (22) is mounted. The ends of the plurality of signal transmission lines (21; 21?) are spaced from each other in a longitudinal direction. The sensors (22) are electrically connected to the plurality of signal transmission lines (21; 21?) and the common wire (24).

Abstract: A multistage signal transmission connector for connecting with a multi-signal plug and a plurality of signal lines includes a socket, a signal terminal unit, and an insertion space. The signal terminal unit is mounted to a side of the socket. The socket includes an axial insertion hole into which the multi-signal plug is inserted. The insertion space is surrounded and defined by the signal terminal unit and extends axially to intercommunicate with the axial insertion hole. The signal terminal unit includes a plurality of signal terminals. Each of the plurality of signal terminals includes a body having an elastic contact portion and an external signal portion. The elastic contact portion protrudes inwards into the insertion space and bends. The external signal portion axially extends towards an outer edge of the insertion space and is electrically connected to the elastic contact portion.

Abstract: A multistage signal transmission connector for connecting with a multi-signal plug and a plurality of signal lines includes a socket, a signal terminal unit, and an insertion space. The signal terminal unit is mounted to a side of the socket. The socket includes an axial insertion hole into which the multi-signal plug is inserted. The insertion space is surrounded and defined by the signal terminal unit and extends axially to intercommunicate with the axial insertion hole. The signal terminal unit includes a plurality of signal terminals. Each of the plurality of signal terminals includes a body having an elastic contact portion and an external signal portion. The elastic contact portion protrudes inwards into the insertion space and bends. The external signal portion axially extends towards an outer edge of the insertion space and is electrically connected to the elastic contact portion.

Abstract: A bearing assembly has a bottom base, a lower plate, an upper plate and a top base. At least one first locking device is configured between the lower plate and the bottom base. At least one second locking device is configured between the upper plate and the top base. Accordingly, the bearing assembly can bear a large shear stress by means of the locking devices. Enlarging the diameter of the bolts for attaching the lower plate to the bottom base or for attaching the upper plate to the top plate is not needed. The bearing assembly can bear a larger shear stress with fewer bolts than a conventional bearing assembly. The cost to manufacture the bearing assembly with a high structural strength is reduced.

Abstract: A prestressing device for a mechanical component of a mechanical finishing device has at least one rigid prestressing unit mounted in the mechanical component. This can provide a prestressing tension to the mechanical component. The bending and the deformation of the mechanical component can be prevented. The useful life of the mechanical finishing device is prolonged.

Abstract: A prestressing device for a mechanical component of a mechanical finishing device has at least one rigid prestressing unit mounted in the mechanical component. This can provide a prestressing tension to the mechanical component. The bending and the deformation of the mechanical component can be prevented. The useful life of the mechanical finishing device is prolonged.