A manufacturing system including a base and multiple work machine modules that are arranged in an arrangement direction on base to be attachable to and detachable from base, in which one wheel of a pair provided on work machine module is engaged with one rail of a pair provided on base in a state in which positional deviation in the arrangement direction is prohibited, and the other wheel of the pair is engaged with the other rail of the pair in a state in which positional deviation is permitted in the arrangement direction, thereby the position of work machine modules on the base in the arrangement direction is specified, and work machine modules are fixed at a setting position on the base to be restricted so as to be drawn toward the base by a module fixing mechanism that is provided on the base.

Machine for machining inner or centring rings of spirally wound seals, comprising: a base (1100) which supports a column (1110) extending in a vertical direction (Z-Z); a head (1200) with machining tool (1211) movable on the column (1110) in both senses of the vertical direction (Z-Z) from a raised rest position into a lowered working position and vice versa; a rotating table (1300) attached to the base (1100) and provided with at least two means (1311a,1311b) for retaining the rings (1); said retaining means are positioned relative to each other at a suitable angular distance so as to be arranged alternately below and coaxial with the machining tool (1211) or in a loading/unloading position underneath and coaxial with gripping/releasing means (1430) of a feeding/unloading device (1400); a device (1400) for loading/unloading the rings (1), displaceable in both senses of the vertical direction from a raised position into a lowered position and rotating about the same vertical direction; at least two means for gripping/releasing the rings (1) of the feeding/unloading device and movable therewith respectively from a position for gripping a ring to be machined into a position for feeding said ring to the loading/unloading retaining means and from a position for gripping of the machined rings by the loading/unloading retaining means to a position for unloading said rings outside of the machine and vice versa.

The present invention relates to a device for handling an artifact of substantially cylindrical shape, comprising a bed (10) and supporting means fixed to the bed (10) and connected to corresponding actuators. The supporting means being positioned along at least an arc of circumference lying in a plane orthogonal to the development axis α of the bed (10) and comprising rolling elements (3) adapted to support and handle said artifact, at least one of them being motorized. Each rolling element (3) is connected to one of a plurality of corresponding actuators operatively connected to each other and adapted to regulate a movement of the rolling elements (3) in response to forces exerted by the artifact on each rolling element (3), in such a way as to distribute said forces uniformly on each rolling element (3) to position one or more resultants of the forces in one or more points.

A workpiece delivery device includes: a base; a turning center part; a turning arm; a workpiece hand; a track turning mechanism; and a rotation control mechanism, in which the track turning mechanism has a turning drive part, a track turning transmission part, and a track guide part, the rotation control mechanism has a rotation restriction transmission part, a rotation control part, and a rotation restriction receiving part, the turning center part, the turning drive part, the track turning transmission part, the rotation restriction transmission part, and the rotation restriction receiving part are provided on the turning arm, the track guide part and the rotation control part are provided on the base, the rotation restriction receiving part is provided on a workpiece hand support shaft, and the rotation restriction transmission part and the rotation restriction receiving part are connected to each other by a connection part.

A workpiece delivery device includes: a base; a turning center part; a turning arm; a workpiece hand; a track turning mechanism; and a rotation control mechanism, in which the track turning mechanism has a turning drive part, a track turning transmission part, and a track guide part, the rotation control mechanism has a rotation restriction transmission part, a rotation control part, and a rotation restriction receiving part, the turning center part, the turning drive part, the track turning transmission part, the rotation restriction transmission part, and the rotation restriction receiving part are provided on the turning arm, the track guide part and the rotation control part are provided on the base, the rotation restriction receiving part is provided on a workpiece hand support shaft, and the rotation restriction transmission part and the rotation restriction receiving part are connected to each other by a connection part.

The invention concerns a robot cell (1) comprising a multi axis robot arm (3), which terminates in a gripper (4) arranged to handle a pallet (2), and a sawing device (10), which is arranged to separate a nailed pallet part from a pallet (2) handled by said gripper (4). The sawing device (10) comprises a saw blade immersed in a liquid bath, which is contained in a trough (11) of the sawing device (10), such that separation of said nailed pallet part is performed in a liquid environment.

Methods are disclosed for handling cylindrical tubulars in a process that, in preferred embodiments, also performs cleaning, inspection and other operations on the tubular. The tubular is held stationary while it is rotated. During rotation of the tubular, internal and external cleaning systems, and data acquisition systems, pass up and down the length of the rotating tubular. In preferred embodiments, a first tubular is loaded onto the handling machine, whereupon it is indexed and then rotated. Cleaning, inspection and other operations may be performed during rotation. Once operations are complete, the handling system ejects the first tubular while queuing up a second tubular to be loaded.

An automated lumber handling method for transferring various size boards from multiples board storage stations to a common board-receiving area uses a trolley that carries at least two board pickers that can operate independently. The method provides several operating modes. In a first mode, a first board picker retrieves single boards from various stations, while a second board picker is inactive. In a second mode, two board pickers retrieve two individual boards from a single station. In a third mode, one board picker retrieves one size board from a first station, and s second board picker retrieves a different size board from a second station. The two different boards can be released simultaneously at the board-receiving area. In some examples, the lumber at each station is laser scanned to determine the number of boards at each station, and a worker is notified if a station needs to be restocked.

A part-holding device includes a holding portion configured to hold an object to be held and a main body configured to detachably connected to the holding portion. The main body has a first surface, a second surface, and a third surface oriented in respective differing directions, and the holding portion has a first abutting surface, a second abutting surface and a third abutting surface capable of abutting against the first surface, the second surface, and the third surface, respectively. The part-holding device further includes pressing means configured to press the holding portion to cause the first abutting surface to abut against the first surface and to cause the second abutting surface to abut against the second surface, and fixing means configured to cause the third abutting surface to abut against the third surface and to fix the holding portion to the main body.

A machine tool system and an opening stop position calculating device are provided. The machine tool system includes an openable and closable door for closing an opening of a cover surrounding a machine tool. Furthermore, the machine tool system includes an opening width setting unit for setting an opening width of the door, an opening stop position calculating unit for calculating an opening stop position of the door at which a total time, which is obtained by summing a time required to move the door from a fully closed position to a position of the set opening width and a time required to move the door from an opening stop position where the door is opened and stopped to the fully closed position, is minimized, and a door control unit for controlling opening and closing of the door based on the calculated opening stop position when exchanging the workpiece.