Provided is a machine tool capable of reducing the influence of vibration from the side of a base of a vibration removal device. A machine tool is provided with: a vibration removal device that is provided on a base and that blocks the vibration transmitted from the base; a frame which is disposed on the vibration removal device and on which the machine tool body is placed; a container that is disposed on the base, that is for storing a liquid, and that is connected to a hose for discharging the stored liquid; and a flow path that is provided to the frame and that is for passing the liquid flowing from the machine tool body to the end of the frame and pouring the liquid into the container.

A stage for cutting a substrate includes: a body member; a plurality of first discharging members, each including a first suction portion in the body member and a first partition wall portion connected to the first suction portion and protruding from a top surface of the body member, each of the first discharging members defining a first space connected to an outside; a plurality of second discharging members, each including a second suction portion in the body member and a second partition wall portion connected to the second suction portion and protruding from the top surface of the body member, each of the second discharging members defining a second space connected to the outside; a plurality of connecting pipes each connected to the first partition wall portion and the second partition wall portion; and a plurality of supply pipes connected to the connecting pipes.

A method of assembling a modular machine on-site. The modular machine includes a first container frame including a first machine module attachable to the first container frame, and a second container frame including a second machine module releasably attachable to the second container frame. Further, the first machine module and the second machine module are connectable to each other. The method includes arranging the first container frame on top of a support. Further, the second container frame is arranged to be in contact with the first container frame, wherein alignment means of the first container frame and alignment means of the second container frame are arranged in connection with each other. Moreover, the second machine module is released from the second container frame and moved from a transportation position to a working position. Additionally, the second machine module is connected to the first machine module.

A machine tool includes a rotation table unit (25) including a rotation table (39) configured to rotate with respect to a first axis. The rotation table unit (25) is configured to move along a second axis that is orthogonal to the first axis. The machine tool includes a spindle unit (26) including a spindle (58) configured to rotate with respect to a third axis that is orthogonal to the first axis and the second axis. The spindle unit (26) is configured to move along the third axis. The machine tool includes a bed (22) that supports the rotation table unit (25) and the spindle unit (26). A front part of an upper surface of the bed (22) includes a recess (232) in which the rotation table unit (25) is arranged. The spindle unit (26) is located at a rear part of the upper surface of the bed (22).

A machine tool (1) includes a spindle (32) supported on a support surface (37a) of a support body (37) with such an orientation that the longitudinal axis of the spindle extends along the support surface (37a). The spindle (32) is movable in a vertical direction that is perpendicular to the longitudinal axis of the spindle (32). The support body (37) is provided with a ventilation hole (80) extending through the support body (37) between the support surface (37a) and a surface (37b) facing in the direction opposite to the support surface (37a), to open toward the spindle (32).

A combined transfer and storage device for machining comprises a storage level, a transfer device, at least one machining interface, and a feeding interface. The storage level comprises two or more storages that are spaced apart from one another in a longitudinal direction and having storage spaces for workpiece carriers, which are arranged one above the other for holding blanks or machined workpieces. The transfer device extends in the longitudinal direction. The machining interface is used for directly or mediately coupling with a machine tool. The feeding interface is accessible for a driverless transport vehicle. The transfer device accomplishes a workpiece transfer between the feeding interface, the storage level and the at least one machining interface. A manufacturing line is provided with a combined transfer and storage device and with at least one manufacturing system having at least one machine tool and a handling cell that is arranged between a machining interface of the combined transfer and storage device and the machine tool.

A manufacturing system for machining comprises a machine tool and a handling cell. The machine tool is arranged for multi-axis machining and includes a tool holder and a workpiece holder, which are movable relative to each other in at least three axes. The handling cell comprises a first interface to the machine tool, which is laterally coupled to the working space, a second interface for transfer purposes, a handling unit, and at least one buffer storage, wherein the handling unit is arranged for an automated workpiece change. A manufacturing line for machining comprises at least one manufacturing system and a combined transfer and storage device.

A processing device of the invention includes a partition member partitioning a processing space and an external space, a frame body on which the partition member is mounted, a positioning unit for holding a workpiece at a predetermined position in the processing space, a processing unit for applying a predetermined process using a processing tool on the workpiece, an opening/closing member capable of opening/closing a first opening formed in the partition member, and an instrument attachment member to which a control instrument is attached, wherein the partition member has a plurality of uniform mounting sections on which the opening/closing member and the instrument attachment member are mutually selectively mounted.

The invention discloses a system for hole making for an aircraft skin by normal positioning and locking. The hole-making system includes a posture adjustment part, a normal positioning and locking part and a hole-making execution part. This system solves the problems that the device in the prior art has high complexity and cumbersome positioning and does not adapt to complex curved surfaces, thereby failing to satisfy the needs of efficient hole making in different space states. In the present invention, the expansion of an outer expansion sleeve in a bottom sleeve locks a normal direction for hole making, thereby ensuring the positioning accuracy of the normal direction. An axial position is locked by the mutual cooperation of an axial positioning groove of the bottom sleeve and an axial positioning rib of the outer expansion sleeve. A hole-making auxiliary cylinder contracts to counteract part of an axial force for hole making.

A machine tool includes a Z-slider with a main spindle rotating about a spindle axis, a main body on which the Z-slide is arranged, a machining table with a machining plane, a clamping device for clamping a workpiece, and a first drive to rotate the clamping device about an rotational axis. A support member is arranged on a pivot-axis housing on which the machining table is arranged. A second drive pivots the support member and the machining table about a pivot axis. The support member has first and second legs. The machining table is arranged on the first leg such that the support member and the housing form a U-shaped unit and provide an interspace between the second leg and the housing, into which interspace a toric workpiece clamped on the clamping device can project and is rotatable about the axis of rotation by the first drive.