A turret tool holder includes an engagement means having engaging elements on a turret side and a support base side, a clutch member for transmitting a driving power to a turret drive section, and a moving mechanism. The moving mechanism includes a rotatably supported drive shaft, a first feed screw mechanism and a second feed screw mechanism rotatable in response to the rotational drive of the drive shaft for moving the clutch member and the engagement elements, and a coordination mechanism arranged between the drive shaft and the first feed screw mechanism or the second feed screw mechanism, for moving the engaging elements in response to the rotational drive of the drive shaft, with a feed amount smaller than the feed amount of the clutch member.

A portable and field-adjustable milling machine comprises: a base; a milling assembly coupled to the base and that includes a milling tool rotatable by a driver; a roller bed coupled to the base and configured to support a tubular member thereon; and a vice assembly that is coupled to the base. Each vice member of the vice assembly is configured to be moved towards the other of the pair and includes camming surfaces configured to lift the tubular member off of the roller bed in response to the vice members being moved toward one another. The vice member may have a v-shaped notch defined by a pair of angled surfaces. The vice assembly lifts the tubular member and retains it in the notch at a position that is a predetermined distance away from the roller bed.

A CNC milling machine includes a chassis unit having vertical seats. A machining unit includes a frontward-rearward movable machining seat located on the vertical seats, a leftward-rightward movable machining seat in front of the frontward-rearward movable machining seat, an upward-downward movable machining seat in front of the leftward-rightward movable machining seat, and a machining tool set at a bottom of the upward-downward movable machining seat. A picking robotic arm unit includes a frontward-rearward movable picking seat located on the vertical seats and in front of the frontward-rearward movable machining seat, a leftward-rightward movable picking seat above the frontward-rearward movable picking seat, an upward-downward movable picking seat adjacent to the leftward-rightward movable picking seat, and a claw set at a bottom of the upward-downward movable picking seat. Coupling achieved with a coupling unit allows the picking robotic arm unit to be driven to move by the machining unit.

A CNC milling machine includes a chassis unit having vertical seats. A machining unit includes a frontward-rearward movable machining seat located on the vertical seats, a leftward-rightward movable machining seat in front of the frontward-rearward movable machining seat, an upward-downward movable machining seat in front of the leftward-rightward movable machining seat, and a machining tool set at a bottom of the upward-downward movable machining seat. A picking robotic arm unit includes a frontward-rearward movable picking seat located on the vertical seats and in front of the frontward-rearward movable machining seat, a leftward-rightward movable picking seat above the frontward-rearward movable picking seat, an upward-downward movable picking seat adjacent to the leftward-rightward movable picking seat, and a claw set at a bottom of the upward-downward movable picking seat. Coupling achieved with a coupling unit allows the picking robotic arm unit to be driven to move by the machining unit.

A CNC milling machine includes a chassis unit having vertical seats. A machining unit includes a frontward-rearward movable machining seat located on the vertical seats, a leftward-rightward movable machining seat in front of the frontward-rearward movable machining seat, an upward-downward movable machining seat in front of the leftward-rightward movable machining seat, and a machining tool set at a bottom of the upward-downward movable machining seat. A picking robotic arm unit includes a frontward-rearward movable picking seat located on the vertical seats and in front of the frontward-rearward movable machining seat, a leftward-rightward movable picking seat above the frontward-rearward movable picking seat, an upward-downward movable picking seat adjacent to the leftward-rightward movable picking seat, and a claw set at a bottom of the upward-downward movable picking seat. Coupling achieved with a coupling unit allows the picking robotic arm unit to be driven to move by the machining unit.

The present invention includes two guide rails (15, 16) arranged in parallel in a feeding direction, sliders (17, 19, 21, 23) arranged on the guide rails (15, 16), a movable carriage (3) mounted on the sliders (17, 19, 21, 23) and moved in the feeding direction, and a drive mechanism (11) moving the movable carriage (3).

The present invention further includes a scale arranged along the feeding direction on the guide rails (15, 16), read heads (18, 20, 22, 24) respectively arranged on the sliders (17, 19, 21, 23) and detecting a position in the feeding direction and a position in a direction orthogonal to the feeding direction by reading information given to the scale, and a motion error calculator (70) calculating a motion error of the movable carriage (3) based on position information in two directions detected by the read heads (18, 20, 22, 24).

The present invention includes two guide rails (15, 16) arranged in parallel in a feeding direction, sliders (17, 19, 21, 23) arranged on the guide rails (15, 16), a movable carriage (3) mounted on the sliders (17, 19, 21, 23) and moved in the feeding direction, and a drive mechanism (11) moving the movable carriage (3).

The present invention further includes a scale arranged along the feeding direction on the guide rails (15, 16), read heads (18, 20, 22, 24) respectively arranged on the sliders (17, 19, 21, 23) and detecting a position in the feeding direction and a position in a direction orthogonal to the feeding direction by reading information given to the scale, and a motion error calculator (70) calculating a motion error of the movable carriage (3) based on position information in two directions detected by the read heads (18, 20, 22, 24).

A machine tool equipped with a robot includes a stocker which has one or more effector holder units for holding an end effector to be mounted on the robot, in which the stocker can be stored within a casing of the machine tool. At least a part of the stocker is configured to be bilaterally advanceable into a machining chamber of the machine tool and an external region located outside the machine tool.

A workpiece lifting and lowering device is provided with: a workpiece base supported as to be capable of being lifted and lowered, and mounting a workpiece; a link mechanism connected to the workpiece base, and lifting and lowering the workpiece base by converting a rotation motion to a lifting and lowering motion; and a driving mechanism rotationally driving the link mechanism through a transmission member.

A system 10 for processing work products 12 includes a housing 14 to contain the components of the system, which include a conveyor 16 for carrying the work products through the housing and past a work tool 18 being supported and moved relative to the conveyor by an X-Y actuator apparatus 20. A scanning system 21 is positioned in the housing 14 upstream of the X-Y actuator for ascertaining selected physical parameters of the work products so as to determine the manner in which the work tool 18 operates on the work products. The housing includes a compartment 22 in which is mounted a high-pressure pump system 23 to provide high pressure working fluid for the work tool 18. Also, a compact guard system 24 is positioned at the outlet 26 of the housing to prevent individuals from reaching into the housing from the exterior.