A machining unit for use on a machining tool has a head carrier that is attachable to the machine tool and has a head carrier housing , a swivel head that is provided to swivel relative to the head carrier about a swivel head rotation axis and has a swivel head housing, a spindle head that is attached to the swivel head and has a working spindle , and a cable run that extends inside the head carrier housing to the swivel head and has a plurality of members that are arranged in succession along the cable run and are connected movably together. Adjacent members are in this case able to rotate and swivel relative to one another and each member has a central piece and a sheathing spaced apart therefrom. The central piece is connected to the sheathing via one or more connection elements.

A machine tool including a base, a slider that is supported to be linearly movable in a direction with respect to the base, a ball screw configured to cause the slider to linearly move with respect to the base, and a chain-like carrier used for wiring a movable wire body between the base and the slider. The carrier is disposed between the base and the slider and curved in a U-shape around an axis extending in a direction in which the base and the slider are apart from each other, one end of the carrier is fixed to the slider and an other end of the carrier is fixed to the base, and a curved portion of the carrier, which is curved in the U-shape, is disposed at a position where the curved portion crosses an extension line of an axis of the ball screw.

A dampening system combined between a mounting bracket and a block oriented along an x-axis. An electrical connector of a pair of electrical connectors combined to the block for relative movement about a y-axis and a z-axis to combine with the other electrical connector on the magnetic chuck of a pallet changing system.

In the case of a clamping device (1) for holding a workpiece (3) to be machined by a machine tool (2), consisting of a housing (4), at least one clamping jaw (7) mounted in the housing (4) so that it is axially movable and a counter-stop (10) formed by the housing (4), between which the workpiece (3) is clamped or at least two clamping jaws (7, 8, 9) mounted in the housing (4) so they are axially movable, between which the workpiece (3) is clamped, and an electrically operated drive device (11), by means of which the movable clamping jaws (7, 8, 9) are movably controlled, and by means of which a holding force, transmitted by the clamping jaws (7, 8, 9) to the workpiece (3) or by a clamping bolt (3′) coupled with the workpiece (3), is generated during the clamping process, both an automated insertion as well as a clamping device (1) are supposed to be further developed, by means of which an automated position check of the inserted workpiece (3) can be carried out, and by means of which, when the test result is available, either the beginning of the machining process is automatically initiated or a check of the position of the workpiece (3) in the clamping device (1) is conducted. This is achieved in that an electromechanical and/or inductive interface (12, 13) is provided on the housing (4), which interface is connected inductively to the drive device (11) and/or an analysis device (11′) and/or by means of electric lines (16), that the interface (12, 13) for an external robotic arm (14) is accessible and communicates with said robotic arm in such a way, that electric data signals and/or electric energy between the interface (12, 13) of the housing (4) and an electromechanical and/or inductive interface (12′, 13′) of the robotic arm (14) can be transmitted alternately and bidirectionally.

The adjustment head is intended for use in the working space of a CNC machine which has a base station set up and intended for the exchange of information with a measuring probe or bore measuring mandrel, which base station is connected to a control of the CNC machine, and comprises a first function module and a second function module, wherein the first function module is divided into a power supply module and a data transmission module, wherein the second function module comprises a machining module for receiving at least one tool, wherein the machining module comprises a tool adjustment device for adjustment the tool in a radial and/or an axial direction and/or in an angular orientation of the tool based on specifications of the control, and wherein the power supply module supplies components of the adjustment head, including the data transmission module and the tool adjustment device, with electrical power, and wherein the data transmission module is arranged and intended for exchanging information concerning at least the adjustment of tool accommodated in the adjustment head with the base station of the measuring probe or bore gauge in the working space of the CNC machine.

A spindle device is mountable with a tool holder, and includes a rotating spindle rotatably mounted to a spindle main body and extending axially to have an axial end surface. A contactless power transmission module is disposed on a flange end surface of the spindle main body and an outer peripheral wall of the rotating spindle for supplying power. An electrically connecting module includes two conductive units each disposed in the rotating spindle and electrically connected with the power transmission module. Each conductive unit has an electrically conductive post extending axially and exposed from the axial end surface for conducting the power to the tool holder.

The invention relates to a spindle device (100), comprising: a tool holder (14) for holding a tool or a tool interface; a spindle drive comprising a spindle rotor (130) for rotationally driving the tool holder (14); an electrical load (160), which is arranged on the side of the spindle rotor (130) facing the tool holder (14); and a coil unit (140) for supplying electrical energy to the electrical load (160); wherein the coil unit (140) is arranged on the side of the spindle rotor (130) facing away from the tool holder (14).

A machine tool of high-frequency vibration is provided. A main shaft structure of the machine tool comprises a rotating shaft, the end of which is provided with a tool holder chuck for fixing a tool holder; the upper portion of which is provided with a rotating coil portion; the main shaft structure is correspondingly provided with a stationary coil portion; and the tool holder is provided with a high-frequency vibration module. By non-contact coils, an external electric power/signal can be transmitted into the high-frequency vibration module to avoid a wear phenomenon in a contact-rotating electrode. Because the inductive coil is arranged outside of the tool holder, the manufacturing cost of the tool holder is reduced, and the convenience of changing the tool holder is increased. Moreover, the machining stability and efficiency of the tool holder are improved by a control method of sensing/feedback signals with wireless transmission.

A turning tool includes a power receiving coil, a sensor, and a wireless unit. The power receiving coil receives power transmitted from a power transmitting coil in a non-contact manner. The sensor is electrically connected to the power receiving coil. The wireless unit transmits data detected by the sensor to an outside.

In a workpiece holding system, a communication unit performs short-range wireless communication between a control device and a workpiece holding device. That is, at least one of supply of power from the control device to the workpiece holding device and transmission of a command signal for a holding operation or a non-holding operation of a workpiece from the control device to the workpiece holding device is performed between a first communication unit and a second communication unit that make up the communication unit.