Device for assembling cage welding machine and cage welding machine

Abstract

A device for assembling a cage welding machine (15), wherein the device has a push-in device. The device is characterized in that all the push-in devices have a plurality of receiving positions for all longitudinal wires (7) of a cage to be manufactured using the cage welding machine, wherein all the push-in devices have a receiving part (4) for receiving the longitudinal wires of the cage, wherein the receiving positions are spaced apart from the rotation axis (D) of the push-in device in the radial direction, wherein the push-in device is designed to feed at least two longitudinal wires arranged on the push-in device to the cage welding machine simultaneously during the push-in process, wherein the push-in process of pushing the longitudinal wires onto the cage welding machine is carried out by moving the push-in device in the axial direction of the rotation axis of the push-in device. The invention also relates to a cage welding machine.

Description

Background Art

[0001] Devices for assembling cage welding machines are known.

[0002] The known assembly device is designed as an automated device, which assembles a cage welding machine with the longitudinal wires of the reinforcement cage to be produced, wherein the device feeds the longitudinal wires of the reinforcement cage to be produced to the cage welding machine individually and successively in the direction of the longitudinal axis, wherein the longitudinal axis corresponds to the rotation axis of the cage welding machine.

[0003] In the case of the known device, the device and the cage welding machine are coordinated with each other so that after a single receiving position has been loaded with a single longitudinal wire by means of the device, the production wheel of the cage welding machine is rotated by one receiving position about the axis of rotation of the production wheel, and then another receiving position of the production wheel that has not yet been loaded with a longitudinal wire can be loaded by means of the device. This process is repeated until the cage welding machine has been loaded with all the longitudinal wires required for the production of the reinforcing cage by means of the device. Summary of the invention

[0004] The object of the present invention is to provide an improved device for assembling a cage welding machine, in particular an improved device for assembling a cage welding machine, with which a cage welding machine can be assembled relatively quickly.

[0005] This object is achieved by the features of claim 1 .

[0006] Advantageous and expedient embodiments of the invention are specified in the dependent claims.

[0007] The invention is based on a device for assembling a cage welding machine, wherein the device has a push-in device. For example, the device is designed as a push-in device for feeding longitudinal wires into a cage welding machine.

[0008] The cage is designed, for example, as a reinforcing cage. Advantageously, the cage welding machine is designed for producing reinforcements, in particular for producing reinforcement cages for concrete pipes. For example, the cage welding machine comprises a welding device for welding longitudinal wires to transverse wires and / or a binding unit for connecting longitudinal wires to transverse wires, for example, by means of a ferrule. Advantageously, the cage welding machine comprises an expansion device with an expansion slide, wherein the expansion slide is designed to change the radial position of an adjustment component for the longitudinal wire of the reinforcement, in particular during the production process of the reinforcement, by means of a transmission member of the expansion device. The adjustment component is advantageously present on an expansion wheel of the cage welding machine. The transmission member of the expansion device is, for example, shaped as a transmission chain and / or a transmission rod. The expansion wheel, for example a main wheel and / or a propulsion wheel, comprises, for example, 4 to 48 spokes, 8 to 40 spokes, 12 to 36 spokes, 16 to 32 spokes or 20 to 28 spokes, in particular 24 spokes.

[0009] Preferably, the cage welding machine comprises a main wheel and a propulsion wheel. The main wheel serves, for example, as an expansion wheel. Advantageously, a wire guide tube is fixed to the main wheel, in particular to the spokes of the main wheel. Preferably, the wire guide tube is located on the main wheel so as to be movable in the radial direction. The propulsion wheel is advantageously designed for clamping the longitudinal wire during the production of the cage and for conveying the longitudinal wire away from the main wheel along the axis of rotation of the cage welding machine.

[0010] For example, a reinforcement body or a cage in the form of a reinforcement cage is advantageously configured as a reinforcement for a pipe, pile, column and / or pier. The reinforcement body is for example configured as a rectangle, square, polygon or polygon, circle and / or ellipse in cross section, particularly transverse to the longitudinal extension of the rod.

[0011] Preferably, the cage, for example the reinforcement body, has a plurality of longitudinal wires and wires, in particular coiled wires, wherein the longitudinal wires can be connected to the coiled wires by a cage welding machine. It is also conceivable to arrange two, three or more coiled wires on the reinforcement body.

[0012] The longitudinal wire is advantageously of rod-shaped design. The longitudinal wire is, for example, a rod, in particular a longitudinal rod.

[0013] The cage welding machine is designed, for example, as a pile-rebar cage welding machine and / or a pier-rebar cage welding machine and / or a tube-rebar cage welding machine and / or a rebar tube welding machine. It is also conceivable that the proposed cage welding machine can be used to manufacture reinforcement mat cages, such as three-dimensional reinforcement mats.

[0014] An advantageous and particularly important embodiment of the invention is that the insertion device has a receiving part for receiving the longitudinal wires of the cage to be produced using the cage welding machine, wherein the insertion device has a plurality of receiving positions for all the longitudinal wires of the cage on the receiving part, wherein the receiving positions are spaced apart from the rotation axis of the insertion device in the radial direction, wherein the insertion device is designed to feed at least two longitudinal wires arranged on the insertion device to the cage welding machine simultaneously during the insertion process, wherein the insertion process of feeding the longitudinal wires to the cage welding machine is carried out by a movement of the insertion device in the axial direction of the rotation axis of the insertion device. As a result, the cage welding machine can be equipped with longitudinal wires relatively quickly. Preferably, the insertion device is designed to feed at least 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 14, 16 or at least 18 longitudinal wires arranged on the insertion device to the cage welding machine simultaneously during the insertion process.

[0015] The pushing device is designed, for example, as a longitudinal wire feed device.

[0016] The axial direction of the rotation axis is to be understood as a direction along the rotation axis of the insertion device. In particular, the axial direction of the rotation axis is to be understood as a direction along and / or parallel to the longitudinal extension of the rotation axis of the insertion device. Correspondingly, the radial direction of the rotation axis is to be understood as a direction transverse to the axial direction of the rotation axis. For example, the radial direction of the rotation axis is to be understood as a direction transverse to the longitudinal extension of the rotation axis of the insertion device towards the rotation axis or away from the rotation axis.

[0017] The receiving part is advantageously designed as an assembly wheel. Advantageously, the receiving part, in particular in the form of an assembly wheel, can be moved around the rotation axis of the insertion device, for example can be rotated.

[0018] The assembly wheel comprises, for example, 4 to 48 spokes, 8 to 40 spokes, 12 to 36 spokes, 16 to 32 spokes or 20 to 28 spokes, in particular 24 spokes. The assembly wheel comprises, for example, 4, 6, 8, 10, 12, 14, 16, 28, 32, 36, 40, 48 or more spokes. For example, the receiving part comprises more than two receiving positions, in particular more than 4 receiving positions. For example, the receiving part comprises 4, 6, 8, 10, 12, 14, 16, 18, 20, 22, 24, 26, 28, 30, 32, 36, 40 or 48 receiving positions. These receiving positions are advantageously formed in the spoke region. Advantageously, each spoke comprises a receiving position.

[0019] The receiving location is, for example, a slot-shaped recess on or in the receiving part. The recess is, for example, designed as a slot. The receiving location is, for example, configured as a slot-shaped, for example U-shaped or V-shaped recess. Advantageously, the longitudinal extension of the recess is designed tangentially to the rotation axis of the insertion device. For example, the slot extends tangentially to the rotation axis of the insertion device.

[0020] Preferably, the pushing device is designed to feed at least two longitudinal wires arranged on the pushing device to a cage welding machine, in particular an expansion device of the cage welding machine, and / or to convey them to the cage welding machine in a single pushing process. Advantageously, the pushing process includes a single, in particular only, movement in the axial direction of the axis of rotation. The movement advantageously occurs along the axis of rotation of the axis of rotation of the pushing device. For example, the pushing process includes a single, in particular only parallel movement relative to the axis of rotation. Advantageously, the pushing device is constructed to feed all longitudinal wires arranged on the pushing device to the cage welding machine together in a single, in particular, pushing process. Preferably, all longitudinal wires required for the manufacture of the cage can be arranged on the pushing device.

[0021] Preferably, the insertion process is carried out by a single movement of the insertion device in the axial direction. For example, the insertion process includes multiple, particularly linear, movements of the insertion device. For example, the insertion process includes multiple movements of the insertion device, wherein all movements are designed to be parallel to the axis of rotation of the insertion device. Advantageously, all movements of the insertion process are oriented parallel to each other. Advantageously, the insertion process is carried out by the movement of the receiving component in the direction of the cage welding machine. Preferably, the insertion process includes multiple movements of the receiving component, wherein all movements of the receiving component are designed to be parallel to the axis of rotation of the insertion device. Advantageously, the insertion process includes the forward movement of the receiving component toward the cage welding machine, particularly toward the expansion device of the cage welding machine, and the return and / or retraction movement away from the cage welding machine, particularly away from the expansion device of the cage welding machine. For example, the forward movement should be understood as the forward movement.

[0022] Advantageously, the insertion device, in particular the receiving part, can be equipped with all the longitudinal wires required for the manufacture of the cage in a single, in particular, assembly process. Advantageously, the assembly process is carried out in time, in particular completely before the insertion process. Preferably, the insertion device is designed to be equipped with the longitudinal wires by movement of the longitudinal wires in a direction transverse to the axis of rotation of the insertion device.

[0023] Another advantageous and particularly important embodiment of the invention is that the device has a feed device, wherein the feed device has a storage support, a separation device, a conveying device and / or a transfer device and is designed to feed the longitudinal wire to the push-in device, wherein the push-in device is configured to be equipped with the longitudinal wire by movement of the longitudinal wire in a direction transverse to the axis of rotation of the push-in device, and the feed device is equipped with the push-in device from the side. As a result, the push-in device can be equipped with the longitudinal wire relatively quickly. Advantageously, the push-in device can be equipped with the longitudinal wire faster than is required for the cage welding machine to produce the cage by the feed device.

[0024] Advantageously, the side surface of the insertion device is present on the insertion device in a circumferential manner. For example, the side surface of the insertion device can be seen from the circumferential direction outward. In particular, the side surface of the insertion device facing away from the axis of rotation can be seen transversely to the axis of rotation of the insertion device. For example, the receiving part is designed in an annular disk-like, wheel-shaped and / or cylindrical manner and comprises a shell surface, for example a cylindrical shell surface. The shell surface or the cylindrical shell surface advantageously constitutes the side surface of the insertion device. Preferably, the receiving part forms a recess on the shell surface.

[0025] Preferably, the pushing device is configured to fit the longitudinal wire in a transverse direction relative to the axis of rotation of the pushing device. Advantageously, the pushing device is configured to fit the longitudinal wire in a radial direction relative to the axis of rotation of the pushing device. For example, the longitudinal wire is suitably arranged on the feeding device so that the longitudinal extension of the longitudinal wire is oriented along the axis of rotation, in particular parallel to the axis of rotation. For example, the feeding device, in particular the conveying device, is configured so that the feeding device feeds the longitudinal wire to the pushing device in a direction transverse to the longitudinal extension of the longitudinal wire.

[0026] The supply support of the feed device is advantageously designed so that more longitudinal wires can be stored on or in the supply support than is necessary for manufacturing the cage. Advantageously, the supply support is designed as a container, in particular a trough.

[0027] The separating device is designed, for example, so that the separating device takes out a single longitudinal wire from a longitudinal wire reserve stored in or on a reserve support and / or selects a single longitudinal wire from the reserve and feeds it to the conveying device. Preferably, the separating device is designed to feed a single longitudinal wire to the conveying device. Advantageously, the separating device is designed to feed each longitudinal wire to the conveying device in sequence.

[0028] For example, the conveying device is designed to ensure that in particular individual longitudinal wires are conveyed from the conveying device to the pushing device. Advantageously, the conveying device is designed as a chute. For example, the chute is designed so that the longitudinal wires can be moved from the conveying device toward the pushing device, in particular only transversely to their longitudinal extension.

[0029] It is also advantageous if two receiving parts are present, wherein the receiving parts comprise receiving locations. As a result, the longitudinal wire can be relatively reliably and / or accurately positioned on the insertion device. This also makes it possible to feed the longitudinal wire to the cage welding machine relatively quickly.

[0030] Advantageously, the receiving parts are arranged side by side along the rotation axis of the insertion device. For example, the receiving parts are arranged one behind the other in the axial direction of the rotation axis.

[0031] Advantageously, each receiving part comprises an axis of rotation. Preferably, the axes of rotation of the two receiving parts extend in the same direction. In particular, the axes of rotation of the two receiving parts are oriented parallel to each other. Advantageously, the axes of rotation of the two receiving parts, in particular all the receiving parts, of the insertion device coincide with each other. For example, the axes of rotation of the two receiving parts, in particular all the receiving parts of the insertion device form the axis of rotation of the insertion device. For example, the axes of rotation of the receiving parts and the axis of rotation of the insertion device coincide.

[0032] The receiving locations are advantageously configured so as to be distributed circumferentially around an axis of rotation of the receiving part, in particular around an axis of rotation of the insertion device.

[0033] It is also conceivable that the receiving parts are spaced apart from each other at a fixed, especially constant distance. For example, the receiving parts are mechanically coupled to each other. For example, the receiving parts are spaced apart from each other at a fixed, especially constant distance in the axial direction.

[0034] Advantageously, the side surface of the insertion device extends from one receiving part to another receiving part in the axial direction of the rotation axis of the insertion device. For example, the side surface of the insertion device extends from one receiving part to another receiving part along the rotation axis of the insertion device.

[0035] Preferably, the first receiving position of the first receiving part and the first receiving position of the second receiving part are aligned with each other so that the longitudinal wire can be arranged in the two first receiving positions so that in the state where the longitudinal wire is arranged in the first receiving position, the longitudinal extension of the longitudinal wire is along, in particular parallel to, the rotation axis of the pushing device. For example, the first and second receiving parts are arranged relative to each other so that the receiving position of the first receiving part and the receiving position of the second receiving part are respectively aligned with each other so that all longitudinal wires required for manufacturing the cage can be arranged in the receiving positions so that in the state where the longitudinal wire is arranged at the receiving positions, the longitudinal extension of the longitudinal wire is along, in particular parallel to, the rotation axis of the pushing device.

[0036] For example, all receiving positions of the receiving component are formed on the receiving component at equal distances from the rotation axis of the receiving component and / or the rotation axis of the insertion device in the radial direction. For example, all receiving positions of all receiving components are formed on the receiving component at equal distances from the rotation axis of the insertion device in the radial direction. Advantageously, all receiving positions on the receiving component are formed on the receiving component in a fixed position. In particular, all receiving positions on the receiving component are formed on the receiving component in a fixed position in the radial direction of the rotation axis of the insertion device.

[0037] It is also advantageous if at least one receiving part is movable in the axial direction of the insertion device. For example, at least one receiving part can be moved along the axis of rotation of the insertion device and / or along the extension of the axis of rotation of the insertion device. Advantageously, each receiving part of the insertion device is movable, in particular movably arranged.

[0038] Preferably, at least one receiving part can be positioned relative to another receiving part. In particular, these receiving parts can be positioned relative to each other. For example, one receiving part can be positioned relative to another receiving part in the axial direction, in particular, it can be movably present.

[0039] It has also proven to be advantageous if the insertion device has a shaft, wherein the shaft and at least one receiving part are connected to one another in a rotationally fixed manner so that a rotational movement of the shaft causes a rotational movement of the receiving part. The position of the receiving location can thus be changed by rotating the shaft about its axis of rotation. Advantageously, the axis of rotation of the shaft corresponds to the axis of rotation of the insertion device.

[0040] It is also conceivable that the shaft is in the form of a guide unit, wherein the guide unit advantageously has a track-shaped guide mechanism. For example, the receiving part is guided on the shaft in the axial direction of the axis of rotation by the track-shaped guide mechanism. The shaft advantageously comprises two track-shaped guide mechanisms. For example, the track-shaped guide mechanism is designed as a guide rail.

[0041] The shaft advantageously comprises a transmission unit for driving the receiving part. The transmission unit is designed, for example, as a chain drive and / or a toothed belt drive.

[0042] Advantageously, the shaft is designed so that it can be rotatably mounted on a cage welding machine with one shaft end. For example, the shaft is connected to a drive of a push-in device at a second shaft end, wherein the second shaft end is spaced apart from the first shaft end along the axis of rotation and is opposite the first shaft end. The drive of the push-in device is designed, for example, for driving a shaft, in particular for rotating a shaft. It is also conceivable that an expansion drive for driving an expansion device of a cage welding machine is present at the second shaft end. Advantageously, the expansion drive is coupled to the second shaft end.

[0043] It is further proposed that the receiving part has a support part, wherein the receiving part is rotatably mounted on the support part. Thus, the shaft is supported, in particular mounted, for example, via the first receiving part.

[0044] The support part is designed, for example, as a shell-shaped receiving part, for example as a half shell. For example, the support part comprises a guide, by means of which the receiving part is arranged to be guided rotatably about a rotation axis of the receiving part, in particular about a rotation axis of the insertion device. Advantageously, the support part is designed as a support foot, in particular with a shell-shaped receiving part. Preferably, the shell-shaped receiving part forms a guide for the receiving part.

[0045] Advantageously, the support part is movably mounted on the guide part. In particular, the support part is arranged to be movable along the axis of rotation of the shaft. Advantageously, the receiving part is movably mounted on the guide part and / or the track-shaped guide. For example, all receiving parts are movably mounted on the guide part and / or the track-shaped guide. The guide part is designed, for example, as a track part, such as a track. Advantageously, the support part supports the receiving part on the ground. For example, the push-in device can be arranged on the ground. Advantageously, the support part is supported on the ground via the guide part.

[0046] Advantageously, the second receiving part is located along the axis of rotation between the drive of the shaft and the first receiving part.

[0047] It is further proposed that the receiving part comprises a clamping part, wherein the clamping part is designed to clamp the longitudinal wire arranged on the receiving part. Advantageously, the clamping part is located in the area of ​​the receiving position, in particular at the receiving position. Advantageously, there is exactly one clamping part at the receiving position. For example, there are two clamping parts at each receiving position. For example, the two clamping parts form a clamp-like shape with each other on the receiving part.

[0048] Preferably, the clamping part comprises a buffer part, for example two buffer parts. For example, the clamping part comprises exactly one buffer part, for example exactly two buffer parts. The buffer part is, for example, elastic, for example cushioning, in particular flexible. It is conceivable that the buffer part is present as a rubber buffer.

[0049] Advantageously, in the closed position of the clamping element, the longitudinal wire arranged at the receiving position is fixed in the receiving position by the clamping element. For example, the clamping element in the closed position rests on the longitudinal wire, in particular with a stop surface. Advantageously, the clamping element in the closed position presses the longitudinal wire against the stop of the receiving position, so that the longitudinal wire is clamped between the stop of the receiving position and the stop surface of the clamping element. By using the buffer element, it is advantageously possible to compensate for dimensional differences in diameter between the longitudinal wires, so that each longitudinal wire arranged on the push-in device is clamped in the closed position of the clamping element by means of the clamping element.

[0050] Advantageously, the pushing device comprises a particularly pneumatic drive unit, by means of which the movement of the clamping part can be driven. Advantageously, the drive unit comprises a pneumatic drive. The pneumatic drive is designed, for example, as a pneumatic cylinder. For example, a plurality of drive units, for example two, three, five or six, in particular four drive units, are arranged on the receiving part. For example, a plurality of pneumatic drives, for example a plurality of pneumatic cylinders, are arranged on the receiving part. For example, two, three, five, six or four pneumatic drives are present on the receiving part.

[0051] Preferably, the drive unit comprises a buffer reservoir located on the receiving part. By using the buffer reservoir, the push-in device is constructed relatively quickly and at low cost. Advantageously, the buffer reservoir is arranged to be rotatable around the rotation axis of the receiving part, especially around the rotation axis of the push-in device. For example, the drive unit comprises a plurality of buffer reservoirs, in particular two, three or four buffer reservoirs. For example, each buffer reservoir is arranged on the receiving part. It is also conceivable to arrange two, three, four or more buffer reservoirs on each receiving part. For example, the buffer reservoir is designed as a tank, such as a pressure tank. It is also advantageous to arrange a buffer reservoir on the propulsion wheel of the cage welding machine and / or on the receiving part of the push-in device, so that the buffer reservoir on the propulsion wheel together with other parts of the propulsion wheel, and / or the buffer reservoir on the receiving part together with other parts of the receiving part, can rotate around the rotation axis of the cage welding machine and / or around the rotation axis D of the push-in device. Thus, for example, the opening and closing of the fixed part of the propulsion wheel can be performed relatively quickly.

[0052] Advantageously, the buffer reservoir on the propulsion wheel is rotatable about the rotation axis of the cage welding machine. It is conceivable to design a plurality of buffer reservoirs on the propulsion wheel, for example two, three, four, five, seven or eight. In particular, there are six buffer reservoirs on the propulsion wheel.

[0053] Advantageously, the buffer accumulator has a receiving volume of, for example, 2 liters for compressed air. For example, the receiving volume of the buffer accumulator, for example for compressed air, is 1 to 15 liters. For example, the receiving volume of the buffer accumulator is 1 to 10 liters or 2 to 10 liters. For example, a pressure of 2 to 12 bar, 4 to 10 bar or 6 to 10 bar is applied to the buffer accumulator in the maximum filling state.

[0054] Advantageously, the clamping part is arranged on the receiving part so as to be swingable, in particular rotatable, via a swing axis. For example, the clamping part of the receiving part is arranged to be rotatable around the rotation axis of the receiving part, in particular around the rotation axis of the insertion device. For example, all the clamping parts of the receiving part are arranged to be rotatable, in particular jointly, around the rotation axis of the receiving part, in particular around the rotation axis of the insertion device. Advantageously, all the clamping parts of the receiving part can be driven, in particular displaced, by means of a single drive. Advantageously, the swing axis of the clamping part is different from the rotation axis of the insertion device. Preferably, the swing axis of the clamping part and the rotation axis of the insertion device extend in the same direction, for example they face parallel to each other.

[0055] For example, the clamping part can be rotated around the swing axis in one direction, for example in the opening direction, by the drive unit. It is also conceivable that the clamping part can be rotated around the swing axis in another direction, for example in the closing direction, by the drive unit. The closing direction and the opening direction are advantageously designed to be opposite.

[0056] It is also advantageous if a magnetic element is present in the region of the receiving position for magnetically holding the longitudinal wire arranged on the receiving element. Thus, the longitudinal wire can be relatively simply and quickly, in particular releasably, fixed on the receiving element.

[0057] For example, the clamping part comprises a magnetic part for magnetically holding the longitudinal wire when arranged on the receiving part. Advantageously, the magnetic part and the clamping part of the receiving part are separated from each other. In particular, the clamping part of the receiving part is present on the receiving part in a relatively movable manner relative to the magnetic part of the receiving part.

[0058] Advantageously, the magnetic component is designed as a permanent magnet, for example a ferromagnet. For example, the magnetic component is designed as a neodymium iron boron magnet. It is also conceivable that the magnetic component is designed as an electromagnet. Preferably, the magnetic component is designed and / or arranged on the receiving part so that the longitudinal wire can be fixed to the receiving part, in particular only by the magnetic component.

[0059] It has also been found to be advantageous if three receiving parts are present. Thus, in particular longer longitudinal wires for larger and / or longer cages can be fed to the cage welding machine by means of the push-in device.

[0060] Advantageously, at least two of the three receiving parts are arranged so as to be movable along the axis of rotation of the insertion device. It is conceivable that two of the three receiving parts are arranged so as to be movable along the axis of rotation of the insertion device and that the third receiving part is provided in a fixed position. Advantageously, all receiving parts are movable relative to one another along the axis of rotation.

[0061] Advantageously, two of the three receiving parts are fixed in position relative to one another, in particular at a distance along the axis of rotation of the push-in device. Preferably, two of the three receiving parts are connected to one another in a rotationally fixed manner. In particular, two of the three receiving parts are connected to one another at a prescribed distance along the axis of rotation. For example, two of the three receiving parts are coupled to one another and can move, in particular can be moved, relative to the third receiving part along the axis of rotation of the push-in device. Advantageously, two of the three receiving parts are coupled to one another, wherein at least one of the two receiving parts does not comprise a clamping part. It is also conceivable that two of the three receiving parts are coupled to one another and that only one of the two receiving parts has a clamping part. It is also conceivable that two of the three receiving parts are coupled to one another and that only the third receiving part has a clamping part.

[0062] It has also been found to be advantageous that, in the case of the insertion device comprising two receiving parts, in particular three receiving parts, at least two receiving parts are designed differently from one another. For example, it is conceivable that a clamping part is provided on the first receiving part, while no clamping part is provided on the second receiving part. Advantageously, in the case of a plurality of receiving parts and two of the receiving parts are designed differently from one another, one of the receiving parts serves purely for the placement and / or support of the longitudinal wire arranged along the axis of rotation of the insertion device. For example, it is conceivable that, in the case of the insertion device comprising three receiving parts, two receiving parts are designed identically and the third receiving part is designed differently from the other two receiving parts. As a result, the insertion device is designed relatively cost-effectively.

[0063] It is also advantageous if the receiving location comprises a receiving opening for receiving the longitudinal wire so that the longitudinal wire can be arranged laterally on the insertion device. For example, the receiving opening of the receiving location is located on a circumferential region of the receiving component, for example on a housing of the receiving component. For example, the receiving opening is located radially outside the receiving component, as seen from the axis of rotation of the insertion device. It is also conceivable that the receiving component has a receiving opening of the receiving location on an outer circumferential region. It is also conceivable that the receiving opening is configured on the receiving component so that the longitudinal wire can be arranged at the receiving location in a radial direction relative to the axis of rotation of the insertion device.

[0064] It has also proved advantageous that the receiving part has a feed funnel. For example, the feed funnel protrudes from the receiving part in the axial direction. In particular, the feed funnel is configured in the region of the receiving position. The feed funnel is configured, for example, funnel-shaped, in particular half-shell-shaped. Advantageously, the feed funnel is configured and arranged on the receiving part so that the longitudinal wire can be fed to the receiving position guided in the direction of the receiving opening. Advantageously, a single receiving part of the pushing device comprises the feed funnel. For example, a single receiving part of the pushing device comprises a plurality of feed funnels. For example, the receiving part of the pushing device comprises a feed funnel in each receiving position.

[0065] Advantageously, the receiving part has a multi-part design. For example, the receiving part comprises a plurality of receiving means, for example two or three receiving means. The receiving means are designed, for example, as a circular ring disk, a circular disk, an annular disk and / or a ring. Advantageously, the receiving means are rotatable relative to each other around the rotation axis of the receiving part and / or around the rotation axis of the pushing device. Preferably, a magnetic part is arranged on the first receiving means and a clamping part is arranged on the second receiving means. It is also conceivable that there is a third receiving means, wherein a magnetic part is arranged on the third receiving means. For example, the feed funnel is present on the first receiving means.

[0066] It is also advantageous that, viewed in the axial direction, the second receiving mechanism is located between the first receiving mechanism and the third receiving mechanism. For example, the clamping part is fixedly fixed to the second receiving mechanism in a fixed position, in particular in an immovable manner. For example, the clamping part is arranged on the second receiving mechanism in a swingable manner around the swing axis of the clamping part. For example, the magnetic part is fixedly fixed to the first and / or third receiving mechanism in a fixed position, in particular in an immovable manner. Advantageously, the closing movement and / or opening movement of the clamping part from the open position to the closed position and / or vice versa is carried out by the relative movement of the second receiving mechanism relative to the first receiving mechanism and / or relative to the third receiving mechanism, in particular by the opposite movement of the two receiving mechanisms relative to each other. For example, the closing movement and / or opening movement of the clamping part from the open position to the closed position and / or vice versa is carried out by the rotational movement of the second receiving mechanism around the rotational axis of the receiving mechanism, in particular around the rotational axis of the pushing device. For example, the first and third receiving mechanisms are connected to each other in a rotationally fixed manner.

[0067] Advantageously, the second receiving mechanism including the clamping member is different from the first receiving mechanism and / or the third receiving mechanism. Advantageously, the second receiving mechanism includes a star-shaped member, on which the clamping member is configured. The star-shaped member exists, for example, as a disk, in particular as an annular disk, on which the clamping member is arranged radially protruding. For example, the star-shaped member is integrally configured with the clamping member. Advantageously, in addition to the star-shaped member, the second receiving mechanism also includes a stop member. The stop member exists, for example, as a particularly unique disk, in particular as a particularly unique annular disk. Advantageously, the stop member includes two disks and / or two annular disks. Advantageously, the star-shaped member exists on the receiving member between the two disks and / or between the two annular disks in the axial direction. Advantageously, the receiving member and the clamping member are disc-shaped, in particular annular disk-shaped. For example, the second receiving mechanism is wheel-shaped. For example, the second receiving mechanism is rotatably arranged on the first receiving mechanism and the third receiving mechanism between the first receiving mechanism and the third receiving mechanism.

[0068] Advantageously, in the closed position, the star-shaped part rests on the first boundary surface of the stop part via the first buffer part. Preferably, in the open position, the star-shaped part rests on the second boundary surface of the stop part via the second buffer part. Thus, longitudinal wires with different diameters can be clamped on the first receiving mechanism using the second receiving mechanism.

[0069] In an advantageous variant of the invention, the conveying device is designed as a circulating lifting mechanism, a belt conveyor, an elevator and / or a surrounding lifting mechanism. This makes it possible to separate the longitudinal wires before feeding them to the pushing device. This speeds up the loading speed for loading the pushing device with the longitudinal wires by the feeding device.

[0070] Advantageously, the feed device is designed so that all the longitudinal wires required for manufacturing the cage can be placed separately on the feed device before the assembly process. This speeds up the loading speed for loading the push-in device with the longitudinal wires via the feed device.

[0071] Another advantageous embodiment of the invention is a cage welding machine which has a holding element for clamping the longitudinal wire on a wire feed tube of the cage welding machine. For example, the cage welding machine comprises a holding element for releasably fixing the longitudinal wire. This allows a relatively fast feeding of the longitudinal wire by means of a push-in device, in particular by means of a push-in device according to one of the above-described designs. Preferably, the holding element is designed as a pneumatic clamp, for example a pneumatic clamp. The wire feed tube is also referred to as a wire feed tube, for example.

[0072] Another advantageous embodiment of the invention is a cage welding machine, in particular with a device according to one of the above-described embodiments, wherein the cage welding machine is designed so that the rotation axis D of the insertion device, in particular the shaft of the insertion device, can be mounted on the cage welding machine. For example, the cage welding machine comprises an axial mounting, so that the rotation axis of the insertion device can be mounted on the axial mounting on the cage welding machine.

[0073] Advantageously, the axis of rotation of the push-in device can be arranged on an axial placement mechanism of the cage welding machine, so that the axial placement mechanism supports the axis of rotation. Advantageously, the axis of rotation of the push-in device and the axis of rotation of the cage welding machine coincide with each other. For example, the axis of rotation of the push-in device and the axis of rotation of the cage welding machine overlap each other. For example, the shaft of the push-in device is placed on a rotary bearing of a main wheel of the cage welding machine. Advantageously, the shaft of the push-in device is connected to the main wheel of the cage welding machine.

[0074] In an advantageous embodiment of the invention, the push-in device according to one of the aforementioned embodiments is a component of a cage welding machine, wherein the push-in device comprises a drive shaft and a drive for driving the adjustment components of the cage welding machine. Preferably, the drive shaft is present in the shaft of the push-in device and / or in the track-shaped guide mechanism of the push-in device. The shaft of the push-in device and / or the track-shaped guide mechanism are advantageously in the form of a square tube. The shaft is designed, for example, as a drawn square tube. The shaft advantageously comprises a track-shaped guide mechanism.

[0075] It has also proven to be advantageous if a guide device for guiding a wire guide tube of the cage welding machine is present on the cage welding machine.

[0076] The wire guide tube is used to equip the cage welding machine with longitudinal wires in a relatively simple and production-reliable manner and to guide and support the longitudinal wires during the production of the cage using the cage welding machine. For example, a retaining component is formed on the wire guide tube.

[0077] The guide device advantageously comprises guide slots extending in a radial direction relative to the axis of rotation of the cage welding machine, wherein a wire guide tube can be arranged in each guide slot movably in a radial direction. This ensures the circumferential spacing of the wire guide tubes from one another around the axis of rotation of the cage welding machine. For example, the guide device is disc-shaped and / or wheel-shaped. For example, the guide device is configured in the form of a disc and / or in the form of a wheel. It is conceivable that the guide slots are configured in a spoke-shaped manner, for example as spokes. Preferably, the guide device is present on the cage welding machine in the axial direction of the axis of rotation of the cage welding machine, spaced apart from the expansion wheel of the cage welding machine.

[0078] An advantageous embodiment of the invention is a method for equipping a cage welding machine with longitudinal wires by means of a push-in device, wherein the method comprises the following method steps to be performed in sequence:

[0079] - moving the receiving part of the insertion device in the axial direction of the axis of rotation of the insertion device towards the expansion wheel of the cage welding machine;

[0080] - fixing the longitudinal wires by means of another receiving element and / or by means of a cage welding machine;

[0081] - moving the receiving part of the insertion device away from the expansion wheel of the cage welding machine in the axial direction of the axis of rotation of the insertion device;

[0082] - Fixing of the longitudinal wires by means of receiving parts;

[0083] - releasing the fixing of the longitudinal wire by means of a further receiving element and / or releasing the fixing of the longitudinal wire by means of a cage welding machine;

[0084] The receiving part of the insertion device is displaced in the axial direction of the axis of rotation of the insertion device towards the expansion wheel of the cage welding machine.

[0085] Advantageously, prior to the above-described assembly method, the insertion device is equipped with a plurality of longitudinal wires required for the production of the cage by means of a cage welding machine. BRIEF DESCRIPTION OF THE DRAWINGS

[0086] One embodiment will be explained in more detail with reference to the following schematic drawings and further details and advantages will be explained.

[0087] Figure 1 A schematic diagram of the device according to the invention is shown in a side view in the direction of the rotation axis of the device,

[0088] Figure 2 A schematic diagram of a cage welding machine with arranged devices is shown in a side view transversely to the axis of rotation of the device,

[0089] Figure 3A partial view of the device viewed from an oblique side upward is shown,

[0090] Figure 4 A cross-sectional view showing a partial detail of the device viewed from the front oblique side,

[0091] Figure 5 A partial view of a cage welding machine with arranged devices viewed from the oblique side and rear is shown,

[0092] Figure 6 A view of the wire guide tube viewed from the front and side is shown.

[0093] Figure 7 shows a view of the guide device viewed from the oblique side front,

[0094] Figure 8 A partial view of a receiving part of the device is shown,

[0095] Fig. 9 Shown according to Figure 8 An enlarged detail A of the receiving part,

[0096] Figures 10 to 12 A detailed view of a portion of a receiving component viewed in the axial direction is shown, wherein parts of the receiving component are respectively omitted for easier understanding, and

[0097] Fig.13 A schematic diagram of a cage welding machine is shown together with the arranged devices in different positions. DETAILED DESCRIPTION

[0098] Figure 1 2 shows a device according to the invention, which comprises a pushing device 1 and, for example, a feeding device 2 .

[0099] The pushing device 1 comprises, for example, an assembly roller 3, which comprises, for example, a receiving part, for example in the form of a collecting wheel 4. Advantageously, the receiving part, for example, the collecting wheel 4, constitutes the assembly roller 3. The collecting wheel 4 is advantageously rotatable about the rotation axis D of the pushing device 1, for example, and is arranged on a support foot 5. For example, the support foot 5 comprises rollers, on which the collecting wheel 4 is rotatably arranged. A receiving position 6 for receiving the longitudinal wire 7 is configured on the collecting wheel 4. The receiving position 6 is configured on the circumferential outer side 8 of the collecting wheel 4, for example, on the outer shell surface, so that the pushing device 1 is designed to be able to assemble the longitudinal wire 7 from the side.

[0100] The feeding device 2 comprises, for example, a storage support 9, a separation device 10, a conveying device 11 and / or a conveying device 12. The storage support 9 is designed, for example, as a trough in which the longitudinal wires 7 can be stored as a reserve. The separation device 10 is designed to advance the longitudinal wires 7 from the storage support 9 and separate these longitudinal wires, in particular to feed them one by one to the conveying device 11. The conveying device 11 is designed, for example, as a belt conveyor device having a belt 13 and a plurality of follower components 14. For example, on the conveying device 11, a plurality of longitudinal wires 7 required for manufacturing a cage can be separated from each other, for example, separately arranged on the follower components 14. The conveying device 12 is advantageously configured as a chute, along which the longitudinal wires 7 output from the conveying device 11 to the conveying device 12 can slide in the direction of the receiving position 6 of the collecting wheel 4.

[0101] Figure 2 The pushing device 1 is shown in a state arranged on a cage welding machine 15. The cage welding machine 15 for producing reinforcing cages has, for example, a main wheel 16, a propulsion vehicle in the form of a transport vehicle 17 and an expansion drive 18. The main wheel 16 is, for example, fixed on a main frame 19, in particular fixed in position relative to the main frame 19. In addition, the cage welding machine 15 comprises, for example, an expansion shaft 20 coupled to an expansion block 21, wherein the expansion drive 18 is, for example, arranged on the expansion block 21. The transport vehicle 17 comprises a propulsion wheel 22 and is arranged linearly movable on a guide rail 23. The main wheel 16 serves, for example, as an expansion wheel. On the main frame 19, for example, a welding and / or binding unit 24 for connecting a longitudinal wire 7 with a transverse wire (not shown) is provided. A wire guide tube 25 is advantageously provided on the main wheel 16. For example, a drive device for driving the main wheel 16 is constructed on the main frame 19. The drive on the main frame 19, for example, drives the main wheel 16 to rotate around the axis of rotation of the main wheel 16.

[0102] Advantageously, at least one collecting wheel 4 of the insertion device 1 is mounted displaceably and / or supported via supporting feet 5 on a guide element, which is designed, for example, as a guide rail 26 .

[0103] Figure 3 The shaft 27 of the insertion device 1 is shown in a partial and enlarged manner. For example, three collecting wheels 4 are arranged on the shaft 27, which can be moved in the axial direction of the rotation axis D of the insertion device 1. The shaft 27 is coupled to a drive 29 of the insertion device 1 at a second end 28. For example, the shaft 27 is movably arranged at a first end 30 on the cage welding machine 15, in particular on the main wheel 16.

[0104] A guide, for example a guide rail 31, is advantageously fixed to the shaft 27, which extends along the axis of rotation D of the insertion device 1. A toothed belt drive 32 is also provided on the shaft 27, for example, which extends along the axis of rotation D of the insertion device 1. It is also conceivable that the collecting wheel 4 is driven by means of a rack and pinion motor. Advantageously, the collecting wheel 4 is guided by the guide rail 31. For example, the collecting wheel 4 is driven. Advantageously, the collecting wheels 4 are designed to be drivable independently of one another by means of a toothed belt drive 32 and / or by means of a rack drive.

[0105] Figure 4 2 shows the shaft 27 in a cross-sectional view transversely to the axis of rotation D of the push-in device 1. The shaft 27 is advantageously designed as a square tube. Preferably, the expansion shaft 20 and a drive rod 33 and / or a drive shaft, for example for driving the main wheel 16 of the cage welding machine 15, are arranged inside the shaft 27 designed as a square tube. For example, a positioning unit 34 is provided on the shaft 27, for example in the form of a grating plate, a grid plate and / or a glass scale for determining the position of the collecting wheel 4 relative to the zero point and / or in the form of a toothed rack.

[0106] Figure 5 A partial detail of a device arranged on a cage welding machine 15 is shown, which device comprises a pushing device 1 and a feeding device 2 . Figure 5 1 shows a main wheel 16 of a cage welding machine 15, which is rotatably mounted on a main frame 19. A wire guide tube 25 is fixed to the main wheel 16 in a radial direction relative to the rotation axis D of the push-in device and / or in a radial direction relative to the rotation axis of the cage welding machine. The wire guide tube 25 can be moved in a radial direction along the spokes 36 of the main wheel 16 by means of expansion slides of the cage welding machine 15 together with adjustment elements 35 of the main wheel 16, which can be driven by the expansion shaft 20.

[0107] Furthermore, it is advantageous if a guide device in the form of a guide wheel 37 is additionally provided, wherein the wire guide tube 25 is arranged to be guided in a linear motion along a guide slot 38. Preferably, the guide wheel 37 is rotatably movable on the cage welding machine 15. For example, the guide wheel 37 can be driven by means of a drive shaft, in particular jointly with the main wheel 16. The guide wheel 37 can be arranged on the cage welding machine 15, for example, rotatably about an axis of rotation 41 of the guide wheel 37 ( Figure 7 ).

[0108] A holding element 39, which can be driven pneumatically in particular, is advantageously present on the wire guide tube 25. The longitudinal wire 7 arranged on the wire guide tube 25 can advantageously be releasably fixed by means of the holding element 39. For example, the holding element 39 comprises a ram 40 which, in the holding state of the holding element 39, clamps the longitudinal wire 7 to the inner wall of the wire guide tube 25 ( Figure 6 ).

[0109] Figure 8 The collecting wheel 4 is shown, wherein some parts of the collecting wheel 4 are omitted for a better understanding. The collecting wheel 4 comprises, for example, three receiving means 42, 43, 44. For example, a feed funnel 46 is formed protruding in the axial direction on the outer side 45 of the first receiving means 42. In addition, the collecting wheel 4 comprises, for example, a drive unit 60, which comprises a buffer reservoir in the form of a pressure tank 47 and a pneumatic drive in the form of a pneumatic cylinder 59.

[0110] A slot-shaped receiving location 6 with a receiving opening 48 is advantageously present on the first and, for example, third receiving means 42, 44. The receiving opening 48 is advantageously located on a housing surface 49 of the first and third receiving means 42, 44. The second receiving means 43 is, for example, designed differently from the first and third receiving means 42, 44. The second receiving means 43 comprises, for example, a clamping part 50 with a clamping surface 51.

[0111] Figures 10 to 12 Another partial detail of the collecting wheel 4 is shown in FIG. Fig.11 and 12 In each of the figures, parts of the third receiving means 44 are omitted. On the first and third receiving means 42, 44, magnetic components in the form of permanent magnets 52 are constructed in the region of the receiving position 6. The receiving position 6 also advantageously comprises support surfaces 53, in which a plurality of longitudinal wires 7 can be placed, and against which a longitudinal wire 7 is pressed by the clamping surface 51 in the closed position of the clamping member 50 and thereby fixed. Buffering components 54 are advantageously provided on the clamping member 50, by which dimensional differences, in particular in diameter, between the longitudinal wires 7 arranged on the collecting wheel 4 can be compensated. The clamping of the longitudinal wire 7 is advantageously carried out by relative movement, in particular by rotation of the second receiving means 43 relative to the first and second receiving means 42, 44. The relative movement is caused, for example, by a stroke movement of a pneumatic cylinder 59.

[0112] Fig.13 A possible method sequence for assembling a cage welding machine 15 by means of an insertion device 1 is shown in FIG. For example, other, in particular different, method sequences for assembling a cage welding machine 15 are not excluded. Fig.13 The pushing device 1 comprises two collecting wheels 56 , 57 .

[0113] The following will introduce Fig.13 The method flow shown in:

[0114] First, in a first method step (illustration I, Fig.13), the push-in device 1 is equipped with the longitudinal wire 7. Here, the feed device (not shown) is advantageously fixed in position and is always installed in the same position. More specifically, once the receiving location 6 has been equipped with the longitudinal wire 7, the collecting wheel of the push-in device 1 rotates the receiving location 6 about the rotation axis D of the push-in device 1 by one more position (illustration II, Fig.13 During the assembly of the push-in device 1 , the production of the cage 55 is advantageously carried out by means of a cage welding machine 15 .

[0115] In a further method step (illustration III, Fig.13 ), the production of the cage 55 by the cage welding machine is completed, in particular, at the end of the production, the collecting wheel together with the longitudinal wire 7 is moved along the rotation axis D of the pushing device 1 to the main wheel 16.

[0116] During the assembly of the longitudinal wires 7 in the cage welding machine 15, it is advantageous to remove the already produced cages 55 (illustrations III-V, Fig.13 ).

[0117] If the collecting wheel is moved towards the main wheel 16 of the cage welding machine 15 to such an extent that the longitudinal wire 7 is at least partially inserted into the wire guide tube 25, then, for example, the second collecting wheel 56 clamps the longitudinal wire 7 so that the first collecting wheel 57 can be retracted along the rotation axis D (inset V, Fig.13 It is also conceivable that the first collecting wheel 57 remains stationary, the fixing of the longitudinal wire 7 is released if necessary, and the second collecting wheel 56 conveys the longitudinal wire 7 further toward the cage welding machine 15.

[0118] If the first collecting wheel 57 is retracted, the two collecting wheels 56, 57 advantageously hold the longitudinal wire 7 and in the next step convey the longitudinal wire 7 further along the axis of rotation D toward the cage welding machine 15 (Fig. VI, Fig.13 ).

[0119] As soon as the first collecting wheel 57 has moved as far as possible toward the cage welding machine 15, the fixing of the longitudinal wire 7 on the first collecting wheel 57 is released, if necessary, and the second collecting wheel 56 conveys the longitudinal wire 7 further toward the cage welding machine 15 until the second collecting wheel 56 has also reached a position in which it can be moved as far as possible toward the cage welding machine 15 (Fig. VII, Fig.13 ). The second collecting wheel 56 then releases the fixation of the longitudinal wire 7.

[0120] In a further method step, the second collecting wheel 56 is retracted into the assembly position in order to reassemble the longitudinal wire 7. In particular, the transport vehicle 17 simultaneously moves towards the longitudinal wire 7 introduced into the cage welding machine 15 (illustration VIII, Fig.13 ).

[0121] Here, the transport vehicle 17 is moved back along the axis of rotation D toward the first collecting wheel 57 to the longitudinal wire 7 until the ends 58 of the longitudinal wire 7 are introduced into the cage welding machine 15 equidistantly in the direction of the transport vehicle 17 (illustration IX, Fig.13 The first collecting wheel 57 then fixes the longitudinal wire 7 so that the transport vehicle 17 can clamp the longitudinal wire at the end 58 without changing the position of the longitudinal wire along the axis of rotation D. If the transport vehicle 17 has already fixed the longitudinal wire 7 at its end 58, the first collecting wheel 57 releases the fixation of the longitudinal wire 7 and retreats to the assembly position in order to reassemble the longitudinal wire 7 (insertion). Figure X , Fig.13 ).

[0122] List of Reference Numerals

[0123] 1 Push-in device

[0124] 2 Feeding device

[0125] 3 Assembly rollers

[0126] 4 Collection Wheel

[0127] 5 Support feet

[0128] 6 Receiving position

[0129] 7 Longitudinal wire

[0130] 8 Outer side

[0131] 9 Reserve bracket

[0132] 10 Separation device

[0133] 11 Conveying device

[0134] 12 Conveyor

[0135] 13 belt

[0136] 14 Follower parts

[0137] 15 Cage welding machine

[0138] 16 Main wheel

[0139] 17 Transport vehicle

[0140] 18 Expansion Drive

[0141] 19 Main frame

[0142] 20 Expansion shaft

[0143] 21 expansion block

[0144] 22 Propulsion wheel

[0145] 23 Guide Rail

[0146] 24 welding and / or bonding units

[0147] 25 Wire guide tube

[0148] 26 Guide Rail

[0149] 27 Axis

[0150] 28 end

[0151] 29 Drive

[0152] 30 end

[0153] 31 Guide Rail

[0154] 32 Toothed belt drive

[0155] 33 Drive rod

[0156] 34 Positioning unit

[0157] 35 Adjustment parts

[0158] 36 spokes

[0159] 37 Guide wheel

[0160] 38 Guide slots

[0161] 39 Retention parts

[0162] 40 Pressure head

[0163] 41 Rotation axis

[0164] 42 Receiving institutions

[0165] 43 Receiving institutions

[0166] 44 Receiving institutions

[0167] 45 outer side

[0168] 46 Feeding Funnel

[0169] 47 Pressure tank

[0170] 48 Acceptance Opening

[0171] 49 Shell surface

[0172] 50 Clamping parts

[0173] 51 Clamping surface

[0174] 52 permanent magnet

[0175] 53 Support surface

[0176] 54 Buffer components

[0177] 55 Cage

[0178] 56 Collection Wheel

[0179] 57 Collection Wheel

[0180] 58 end

[0181] 59 Pneumatic Cylinder

[0182] 60 Drivers

Claims

1. A device for assembling a cage welding machine, wherein: The device for assembling a cage welding machine has a pushing device, characterized in that the pushing device has a receiving part for receiving the longitudinal wires of a cage to be manufactured using the cage welding machine, wherein the pushing device has a plurality of receiving positions for all the longitudinal wires of the cage on the receiving part, wherein the receiving positions are spaced apart from the rotation axis D of the pushing device in the radial direction, wherein the pushing device is designed to feed at least two longitudinal wires arranged on the pushing device to the cage welding machine simultaneously during the pushing process, wherein the pushing process of the longitudinal wires onto the cage welding machine is carried out by moving the pushing device in the axial direction of the rotation axis D of the pushing device, wherein there are two receiving parts, which include the receiving positions, and the two receiving parts can be displaced in the axial direction relative to the rotation axis D of the pushing device.

2. The device for assembling a cage welding machine (15) according to claim 1, characterized in that The insertion device (1) has a receiving part (4) for receiving longitudinal wires (7) of a cage (55) to be manufactured using the cage welding machine (15), wherein the insertion device (1) has a plurality of receiving positions (6) on the receiving part (4) for all longitudinal wires (7) of the cage (55), wherein the receiving positions (6) are spaced apart in radial direction from the rotation axis D of the insertion device (1), wherein the device for assembling the cage welding machine (15) has a feed device (2 ), wherein the feeding device (2) has a storage support (9), a separation device (10), a conveying device (11) and / or a transfer device (12), and is constructed to feed the longitudinal wire (7) to the pushing device (1), wherein the pushing device (1) is designed to be able to assemble the longitudinal wire (7) by moving the longitudinal wire (7) in a direction transverse to the rotation axis D of the pushing device (1), and the feeding device (2) assembles the pushing device (1) from the side.

3. The device for assembling a cage welding machine (15) according to claim 1, characterized in that The insertion device (1) has a receiving part (4) for receiving longitudinal wires (7) of a cage (55) to be manufactured using the cage welding machine (15), wherein the insertion device (1) has a plurality of receiving positions (6) on the receiving part (4) for all longitudinal wires (7) of the cage (55), wherein the receiving positions (6) are spaced apart from the rotation axis D of the insertion device (1) in the radial direction, wherein the insertion device (1) is designed to feed at least two longitudinal wires (7) arranged on the insertion device (1) simultaneously to the cage welding machine (15) during the insertion process, wherein the receiving part (4) has a supporting part (5), wherein the receiving part (4) is rotatably mounted on the supporting part (5).

4. The device for assembling a cage welding machine (15) according to claim 1, characterized in that The insertion device (1) has a receiving part (4) for receiving longitudinal wires (7) of a cage (55) to be manufactured using the cage welding machine (15), wherein the insertion device (1) has a plurality of receiving positions (6) for all longitudinal wires (7) of the cage (55) on the receiving part (4), wherein the receiving positions (6) are spaced apart from the rotation axis D of the insertion device (1) in the radial direction, wherein the insertion device (1) is designed to feed at least two longitudinal wires (7) arranged on the insertion device (1) simultaneously to the cage welding machine (15) during the insertion process, wherein the receiving part (4) comprises a clamping part (50), wherein the clamping part (50) is designed to clamp the longitudinal wires (7) arranged on the receiving part (4).

5. A device according to any one of the preceding claims, characterised in that The insertion device (1) has a shaft (27), wherein the shaft (27) and at least one receiving part (4) are connected to one another in a rotationally fixed manner, so that a rotational movement of the shaft (27) causes a rotational movement of the receiving part (4).

6. The device according to any one of claims 1 to 4, characterized in that In the region of the receiving location (6), there is a magnetic element (52) for magnetically retaining a longitudinal wire (7) arranged on the receiving element (4).

7. The device according to any one of claims 1 to 4, characterized in that There are three receiving parts (4).

8. The device according to any one of claims 1 to 4, characterized in that The receiving location (6) comprises a receiving opening (48) for receiving a longitudinal wire (7), so that the longitudinal wire (7) can be arranged laterally on the pushing device (1).

9. The device according to claim 2, characterized in that The conveying device (11) is designed as a circulating lifting mechanism.

10. The device according to any one of claims 1 to 4, characterized in that A buffer reservoir is arranged on the propulsion wheel of the cage welding machine and / or on the receiving part of the pushing device, so that the buffer reservoir on the propulsion wheel together with other parts of the propulsion wheel and / or the buffer reservoir on the receiving part together with other parts of the receiving part can rotate around the rotation axis of the cage welding machine and / or around the rotation axis D of the pushing device.

11. Cage welding machine (15) having a device for assembling the cage welding machine (15) according to any one of the preceding claims 1 to 10, characterized in that The rotation axis D of the insertion device (1) is arranged on the cage welding machine (15).

12. The cage welding machine (15) according to claim 11, characterized in that A holding member (39) is provided on the wire feed tube (25) of the cage welding machine (15) for clamping the longitudinal wire (7).

Images