Abstract: An electronic device includes a first insulating layer, a first conductive portion, a second conductive portion, a transistor, and an electronic unit. The first insulating layer has a first opening penetrating the first insulating layer along a first direction. The first conductive portion is disposed in the first opening. The second conductive portion is electrically connected to the first conductive portion. The transistor is electrically connected to the second conductive portion. The electronic unit is electrically connected to the first conductive portion. In a cross-sectional view of the electronic device, the electronic unit and the second conductive portion are disposed on two opposite sides of the first insulating layer respectively, the first conductive portion has a first length along a second direction perpendicular to the first direction, the second conductive portion has a second length along the second direction, and the first length is different from the second length.

Abstract: A touch display device is provided in this disclosure. The touch display device includes a substrate, a first conductive layer, a second conductive layer, a stacked structure, an inorganic light emitting unit, and a touch sensing circuit. The first conductive layer is disposed on the substrate. The first conductive layer includes a gate electrode. The second conductive layer is disposed on the first conductive layer. The second conductive layer includes a source electrode and a drain electrode. The stacked structure is disposed on the substrate. The stacked structure includes a conductive channel and a sensing electrode. The inorganic light emitting unit is disposed on the stacked structure. The inorganic light emitting unit is electrically connected with the drain electrode via the conductive channel. The touch sensing circuit is electrically connected with the sensing electrode.

Abstract: A program converting system is provided. The system is running on a comparator. The program converting system includes a program importing module, a program converting module, a characteristic parameters fetching module and a storage module. The program importing module is used to import a program data package containing a first measurement program and characteristic parameters of at least one sample. The program converting module is used to convert the first measurement program to a second measurement program suitable for a comparator. The characteristic parameters fetching module is used to fetch the characteristic parameters from the program data package. The storage module is used to store the second measurement program and the characteristic parameter in a storage unit of the comparator. A method for program converting is also provided.

Abstract: A rotating plug connected to a power supply of an electric appliance and having a conductive terminal with bending and rotating functions includes an inner frame, two conductive terminals, two inner frame brackets, two connecting plates, two inner frame casings, a power cable and a plug body. A connecting end at the rear of each of the two conductive terminals of the rotating plug is installed and hidden in the inner frame, and the connecting plate is accommodated and fixed inside the inner frame casing. When use, the plug is bent and rotated upwardly or downwardly by an angle, while the conductive terminal and the connecting plate are being covered without being exposed, so as to improve the safety of the rotating plug.

Abstract: A rotating plug connected to a power supply of an electric appliance and having a conductive terminal with bending and rotating functions includes an inner frame, two conductive terminals, two inner frame brackets, two connecting plates, two inner frame casings, a power cable and a plug body. A connecting end at the rear of each of the two conductive terminals of the rotating plug is installed and hidden in the inner frame, and the connecting plate is accommodated and fixed inside the inner frame casing. When use, the plug is bent and rotated upwardly or downwardly by an angle, while the conductive terminal and the connecting plate are being covered without being exposed, so as to improve the safety of the rotating plug.

Abstract: An image detection program creating system comprise a parameter setting module, an image loading module, a programming module, and a program conversion module. The parameter setting module sets parameters of a Dimensional Measuring Interface Specification (DMIS). The image loading module loads a 3D image. The programming module programs the DMIS program according to the parameters of the DMIS and the 3D image. The program conversion module converts the compiled DMIS into an image detection program.

Abstract: A measuring apparatus includes a supporting column, a securing assembly, and a pair of measuring elements. The securing assembly is movably located on the supporting column at a predetermined height. The pair of measuring elements is secured on the securing assembly opposite to each other. The measuring elements receive a workpiece and transmit lasers to the workpiece respectively.

Abstract: An image detection program creating system comprise a parameter setting module, an image loading module, a programming module, and a program conversion module. The parameter setting module sets parameters of a Dimensional Measuring Interface Specification (DMIS). The image loading module loads a 3D image. The programming module programs the DMIS program according to the parameters of the DMIS and the 3D image. The program conversion module converts the compiled DMIS into an image detection program.

Abstract: In a dial indicator correcting method, a first command is sent to a single drive shaft for controlling a push rod to move toward dial indicators. The method records a first indicated value of each dial indicator when the push rod contacts with one of the dial indicators, and records a second indicated value of each dial indicator when the push rod has contacted all the dial indicators. The method further sends a second command to the single drive shaft for controlling the push rod to move when a distance of the push rod equals a measuring range, and records a third indicated value of each dial indicator when the push rod moves with each moving step. By subtracting the third indicated value from the second indicated value, a forth indicated value of each dial indicator is obtained and is corrected by a running deviation of the single drive shaft.

Abstract: A method for verifying scan precision of a laser measurement machine includes the steps of: preparing a standardized 3D profile model; determining an ideal curved surface as a conventional true value of the standardized 3D profile model; scanning the standardized 3D profile model by the laser measurement machine and obtaining point cloud data; calculating a bias between each point in the point cloud and the ideal curved surface; evaluating the veracity of the laser measurement machine by using the largest bias; and evaluating the receptiveness of the laser measurement machine.

Abstract: A method for verifying scan precision of a laser measurement machine includes the steps of: preparing a standardized BGA model; measuring Z coordinates values of each solder ball peak of the BGA model for certain times; determining a Z coordinates conventional true value of each solder ball peak; measuring X, Y coordinates values of each solder ball centre of the BGA model; determining a coplanarity conventional true value of a seating-plane; determining an optimum scanning mode; determining optimum scanning parameters under the optimum scanning mode; scanning the BGA model under the optimum scanning parameters and the optimum scanning mode; obtaining X, Y, Z coordinates values of each solder ball peak; evaluating the veracity of Z coordinates of each solder ball peak; evaluating the veracity and repetitiveness of coplanarity; and evaluating scan precision of the laser measurement machine.

Abstract: A method for verifying scan precision of a laser measurement machine includes the steps of: preparing a transparent flat, of which the flatness of each plane is regarded as a flatness conventional true value; determining an optimum scanning mode; determining optimum scanning parameters under the optimum scanning mode; scanning the transparent flat under the optimum scanning mode and the optimum scanning parameters for certain times, and obtaining measuring data; calculating a plurality of flatness values using the measuring data; calculating an average value and a standard deviation of the flatness values, and a bias between the average value and the flatness conventional true value; evaluating the repetitiveness of the laser measurement machine according to the standard deviation; and evaluating the veracity of the laser measurement machine according to the bias.

Abstract: An improved wire connecting terminal structure extensively used in different electric appliances and equipments includes a wire connecting terminal in an input/output interface of the structure. The wire connecting terminal includes a plurality of metal contact brackets coupled with a plastic body by a plastic injection molding. The plastic body includes a two-sectional latch groove disposed on both left and right sides of the plastic body, so that a latch hook disposed on both left and right sides of the latching member is latched into an upper groove of the two-sectional latch groove, and a flexible multi-core cable is passed onto a metal contact bracket, and then the latching member is pressed and latched downward to latch the latch hook into a lower groove of the two-sectional latch groove, so as to closely contact the connecting wire with the metal contact bracket and constitute an overall wire connecting terminal.

Abstract: A method for verifying scan precision of a laser measurement machine includes the steps of: preparing a transparent flat, of which the flatness of each plane is regarded as a flatness conventional true value; determining an optimum scanning mode; determining optimum scanning parameters under the optimum scanning mode; scanning the transparent flat under the optimum scanning mode and the optimum scanning parameters for certain times, and obtaining measuring data; calculating a plurality of flatness values using the measuring data; calculating an average value and a standard deviation of the flatness values, and a bias between the average value and the flatness conventional true value; evaluating the repetitiveness of the laser measurement machine according to the standard deviation; and evaluating the veracity of the laser measurement machine according to the bias.

Abstract: A method for verifying scan precision of a laser measurement machine includes the steps of: preparing a standardized 3D profile model; determining an ideal curved surface as a conventional true value of the standardized 3D profile model; scanning the standardized 3D profile model by the laser measurement machine and obtaining point cloud data; calculating a bias between each point in the point cloud and the ideal curved surface; evaluating the veracity of the laser measurement machine by using the largest bias; and evaluating the receptiveness of the laser measurement machine.

Abstract: A method for verifying scan precision of a laser measurement machine includes the steps of: preparing a standardized BGA model; measuring Z coordinates values of each solder ball peak of the BGA model for certain times; determining a Z coordinates conventional true value of each solder ball peak; measuring X, Y coordinates values of each solder ball centre of the BGA model; determining a coplanarity conventional true value of a seating-plane; determining an optimum scanning mode; determining optimum scanning parameters under the optimum scanning mode; scanning the BGA model under the optimum scanning parameters and the optimum scanning mode; obtaining X, Y, Z coordinates values of each solder ball peak; evaluating the veracity of Z coordinates of each solder ball peak; evaluating the veracity and repetitiveness of coplanarity; and evaluating scan precision of the laser measurement machine.