Abstract: A method for calibrating a feeder for a surface mounting device (SMD) includes the steps of: reading a standard coordinate value; setting controlling parameters including a predefined amount of materials to be delivered and a predefined range of a coordinate deviation; booting the feeder (22) to deliver materials via an operation controller (20); capturing delivered material images of the materials and gear images of the feeder via an image controller (24); calculating coordinate deviations of the captured images; analyzing whether a total delivered amount of the materials is equal to the predefined amount; and calibrating the feeder according to the calculated coordinate deviations if the total delivered amount of the materials is equal to the predefined amount. A system for calibrating a feeder for a surface mounting device (SMD) is also disclosed.

Abstract: A package removal device is for removing a package (5) from a component band (1) to expose a carrier band (2). The package removal device includes a stand (10), a first scrolling unit includes a first gear (52), and a second scrolling unit includes a second gear (85). The stand includes a platform (12) with an import end (14a) and an export end (14b). The export end includes a locating gear (18) mounted thereon, a first exit (24), and a second exit (22). The component band is separated into the package and the carrier band in the export end. The first gear meshes with the second gear to output the package from the first exit. The locating gear engages the carrier band to output the carrier band from the second exit.

Abstract: An apparatus for feeding components from a packaged component band includes a stand defining a platform allowing the packaged component band passing therealong, a first guiding unit installable to the stand beside the platform, and a second guiding unit installable to the stand next to the another end of the platform. The first guiding unit is urged to remove a package from the packaged component band to expose components at one end of the platform and guides the package toward another end of the platform. The second guiding unit accepts the package from the first guiding unit and accelerates movement of the package passing therethrough. The second guiding unit includes a first friction pulley urged to rotate, and a second friction pulley rotatably movable together with the first friction pulley and engagable with the package when the package engagably passes therethrough.

Abstract: A method for calibrating a feeder for a surface mounting device (SMD) includes the steps of: reading a standard coordinate value; setting controlling parameters including a predefined amount of materials to be delivered and a predefined range of a coordinate deviation; booting the feeder (22) to deliver materials via an operation controller (20); capturing delivered material images of the materials and gear images of the feeder via an image controller (24); calculating coordinate deviations of the captured images; analyzing whether a total delivered amount of the materials is equal to the predefined amount; and calibrating the feeder according to the calculated coordinate deviations if the total delivered amount of the materials is equal to the predefined amount. A system for calibrating a feeder for a surface mounting device (SMD) is also disclosed.

Abstract: A package removal device for removing a package that is stripped from a component band includes a first guiding unit and a second guiding unit. The first guiding unit transports the package stripped from the component band. The second guiding unit further removes the package that is removed from the first guiding unit. The second guiding unit includes a first friction pulley rotating via the moving of the component band, and a second friction pulley mounted to and rotating together with the first friction pulley. The second friction pulley pulls the package.

Abstract: A package removal device is for removing a package (5) from a component band (1) to expose the carrier band (2). The package removal device includes a stand (10), a first scrolling unit includes a first gear (52), and a second strolling unit includes a second gear (85). The stand includes a platform (12) with an import end (14a) and an export end (14b). The export end includes a locating gear (18) mounted thereon, a first exit (24), and a second exit (22). The component band is separated into the package and the carrier band in the export end. The first gear meshes with the second gear to output the package from the first exit. The locating gear engages the carrier band to output the carrier band from the second exit.

Abstract: A closed box structure of a horizontal linear motor machine tool, comprising a frame, serving as a machine platform, carrying an X-movable part, a Y-movable part, and a Z-movable part, with said Y-movable part mounted on said X-movable part, said Z-movable part mounted on said Y-movable part, and said Z-movable part having a main axis head; characterized in that said frame, said X-movable part and said Y-movable part are shaped like open squares, said X-movable part, said Y-movable part and said Z-movable part each carry a set of two symmetrically adapted linear motors for being driven, wherein for each of said sets of linear motors magnetic forces are balanced against each other, so that deformations due to magnetic forces are avoided.

Abstract: The structure for symmetrically disposed linear motor operated tool machine comprises two parallelly erected sustaining walls, a movable gantry, a sliding saddle, a tool spindle, and a weight compensation device. At both sides of the movable gantry between the sustaining walls, between the gantry and the sliding saddle, and between the tool spindle and the sliding saddle, a pair of linear motors is symmetrically disposed such that the armature reaction between the winding and magnet is compensated each other by the opposite one therefore any possible deformation force to the tool machine structure is eliminated.

Abstract: A closed box structure of a horizontal linear motor machine tool, comprising a frame, serving as a machine platform, carrying an X-movable part, a Y-movable part, and a Z-movable part, with said Y-movable part mounted on said X-movable part, said Z-movable part mounted on said Y-movable part, and said Z-movable part having a main axis head; characterized in that said frame, said X-movable part and said Y-movable part are shaped like open squares, said X-movable part, said Y-movable part and said Z-movable part each carry a set of two symmetrically adapted linear motors for being driven, wherein for each of said sets of linear motors magnetic forces are balanced against each other, so that deformations due to magnetic forces are avoided.

Abstract: A transporting and positioning device for tool magazine of a bridge type machine tool comprises a pair of parallel guide-ways on a plate, a seat slidably mounted on the guide-ways for supporting the tool magazine, a drive mechanism including a cylinder, an extendable positioning shaft, a connection block adjacent the plate the connection block including a top hole and being fixed to the table, and a second cylinder having an extendable second positioning shaft; In an operating state of the machine tool, the second positioning shaft is actuated by the second cylinder to project an adjustable distance through the plate to urge against the seat for fastening the seat and the tool magazine. A tool change is performed after fastening the positioning shaft in the hole. The invention is also applicable to EDM.

Abstract: The structure for symmetrically disposed linear motor operated tool machine comprises two parallelly erected sustaining walls, a movable gantry, a sliding saddle, a tool spindle, and a weight compensation device. At both sides of the movable gantry between the sustaining walls, between the gantry and the sliding saddle, and between the tool spindle and the sliding saddle, a pair of linear motors is symmetrically disposed such that the armature reaction between the winding and magnet is compensated each other by the opposite one therefore any possible deformation force to the tool machine structure is eliminated.