The present invention includes a pallet storage device (30) having holding units (31, 32, 33) holding pallets (P) and a frame (40) supporting the holding units (31, 32, 33), a conveyance device (10) having a traveling base (11) having a traveling path (11a) extending along the pallet storage device (30) and a conveyance unit (15) loading and unloading the pallets (P) into and from the holding units (31, 32, 33) and conveying the pallets (P) to and from a predetermined place, and a controller (60) controlling operation of the conveyance device (10). The frame (40) has a space capable of receiving the controller (60) therein and has a plate-shaped cover (43, 48, 51) arranged to be located above the controller (60) and inclined downward toward the traveling base (11) side. The cover (43, 48, 51) is supported by the frame (40) such that a lower end of the cover (43, 48, 51) can be flipped up, and the cover (40) is configured such that the controller (60) can pass under the cover (43, 48, 51) when the lower end of the cover (43, 48, 51) is in a flipped-up state.

A flushing duct is installed on both sides of a table of the machine tool in a longitudinal direction of the table, a slope duct is inclinedly disposed below the flushing duct toward the coolant tank, each bottom surface of the flushing duct and the slope duct is formed with a V-shaped inclined surface and a streamlined bending portion to make flows of the coolant containing the microchips smooth, and a coolant supply valve is installed at a rear end of the flushing duct to facilitate flows of the coolant being discharged by supplying additional coolant. Further, a coolant tank is installed below the slope duct, a filter is installed in the coolant tank for filtering the microchips in the coolant. The coolant containing the microchips is transported through a return pump to a centrifugal separator device where the microchips contained in the coolant are centrifugally separated. A refined coolant through centrifugal separation is supplied to the machine tool, thereby preventing abnormal wear due to penetration of the microchips into rotating and sliding portions of the machine tool.

Provided is a machine tool having increased stiffness. A machine tool of one embodiment is provided with: a base provided on an installation face of a bed and including a first installation portion on which a guiding rail for guiding a saddle in a first direction is installed, and a second installation portion provided on one end side of the guiding rail and having a column installed thereon; and a flow path which is provided on the installation face of the bed and which drains a liquid dripping from the first installation portion toward the second installation portion via an outer side of a lateral wall of the first installation portion in a second direction. The second installation portion includes a protruding portion that protrudes beyond the lateral wall of the first installation portion in the second direction. The protruding portion has formed therein a through hole through which the flow path passes.

A method and apparatus comprising a structure and a connector. The structure may have a number of walls forming a channel with a first opening and a second opening. The connector may be associated with the first opening. The connector may be configured to change a size of the first opening.

The present invention relates to a machine tool (1000) for machining a workpiece (1), comprising: at least one first machine tool structure which can be moved freely on a base surface and has at least one machine tool component, and at least one second machine tool structure having at least one further machine tool component, wherein the at least one freely movable first machine tool structure, together with the at least one second machine tool structure, forms the machine tool (1000) configured for machining the workpiece (1), when the at least one freely movable first machine tool structure is positioned on the at least one second machine tool structure.

A drill dust receptacle (1) for collecting drill dust (2) formed of a blank (4) of foldable sheet material and configured to be detachably attached to a surface, wherein the drill dust receptacle (1) comprises a receptacle portion (1.1) for holding drill dust having an upper edge (50) and a pointed bottom (40) and further comprises a front panel (20), a back panel (21) and a first and a second side section (22, 23), coupled to each other by a joint (60) such that the front panel (20) may be folded out from the back panel (21) and that; the joints (60) are formed by folds (31, 32, 33) in the foldable sheet material wherein that the receptacle portion (1.1) is formed of a rectangular receptacle section (10) of the blank (4) of foldable sheet material.

A machining swarf removing apparatus includes a left and a right machining swarf removing units. When removing machining swarf adhered to a recovery box, the left machining swarf removing unit is placed in removal starting position. A brush enters an insertion-ready state in which transverse direction thereof is oriented in a second direction D2. The brush is moved to an insertion position for insertion into the recovery box, then the brush is rotated to enter a machining swarf removal-ready state in which a longitudinal direction thereof is oriented in the second direction D2. The left machining swarf removing unit is moved to remove the machining swarf adhered to the recovery box by the brush, while a left rod vibrating device is driven to vibrate a rod, vibrating the brush attached to the rod.

The present invention relates to a transport device (100) for receiving one or more module units having machine tool accessory devices and for transporting the one or more received module units to a machine tool (1000) set up on a base surface for use of the machine tool accessory devices of the one or more received module units on the machine tool (1000), wherein the transport device (100) is freely movable on the base surface for positioning the one or more received module units relative to the machine tool (1000), in particular within a region in front and/or next to the machine tool (1000) and/or in front and/or next to a working space of the machine tool (1000).

The present invention relates to a machine tool (1000) for machining a workpiece (1), comprising: at least one first machine tool structure which can be moved freely on a base surface and has at least one machine tool component, and at least one second machine tool structure having at least one further machine tool component, wherein the at least one freely movable first machine tool structure, together with the at least one second machine tool structure, forms the machine tool (1000) configured for machining the workpiece (1), when the at least one freely movable first machine tool structure is positioned on the at least one second machine tool structure.

The present invention relates to a transport device (100) for transporting one or more handling devices, each for handling a pallet (300) and/or a workpiece (1) on a machine tool (1000) which is set up on a base surface for machining the workpiece (1), wherein the transport device (100) is freely movable on the base surface for positioning the one or more handling devices relative to the machine tool (1000), in particular within a region in front and/or next to the machine tool (1000) and/or in front and/or next to a working space of the machine tool (1000).