Machining device
10668643 · 2020-06-02
Assignee
Inventors
- Stefan FRIESE (Pfalzgrafenweiler, DE)
- Volker SCHMIEDER (Mössingen, DE)
- Christian STURM (Sulz am Neckar, DE)
Cpc classification
B25B1/18
PERFORMING OPERATIONS; TRANSPORTING
B23Q3/00
PERFORMING OPERATIONS; TRANSPORTING
B27C5/06
PERFORMING OPERATIONS; TRANSPORTING
International classification
B27C5/06
PERFORMING OPERATIONS; TRANSPORTING
B25B5/14
PERFORMING OPERATIONS; TRANSPORTING
B25B1/18
PERFORMING OPERATIONS; TRANSPORTING
Abstract
The invention relates to a machining device, in particular for machining workpieces of wood, wood materials, plastic or the like, comprising a workpiece table with a workpiece holder for holding at least one workpiece, and a feeding device for supplying at least one workpiece to the workpiece table, wherein the workpiece can be positioned in three dimensions with respect to the workpiece table. The invention further relates to a corresponding method.
Claims
1. A machining device comprising: at least one workpiece table with a workpiece holder for holding at least one workpiece, a supply device for supplying the at least one workpiece to the at least one workpiece table, wherein the at least one workpiece is positionable in three dimensions with respect to the at least one workpiece table, wherein the at least one workpiece table is shiftable in a longitudinal direction of the at least one workpiece table relative to the supply device using a first advancing unit, wherein the supply device is shiftable in two directions relative to the at least one workpiece table using a second and third advancing unit.
2. The machining device as claimed in claim 1, wherein two or more workpiece tables is or are provided.
3. The machining device as claimed in claim 1, wherein the workpiece holder of at least one workpiece table has a plurality of clamping elements which are arranged spaced apart from one another in the longitudinal direction of the at least one workpiece table.
4. The machining device as claimed in claim 3, wherein each clamping element has at least one pair of clamping jaws, wherein each pair of clamping jaws has two clamping jaws, wherein at least one of the clamping jaws is shiftable relative to the other clamping jaw.
5. The machining device as claimed in claim 4, wherein each clamping element has two pairs of clamping jaws.
6. The machining device as claimed in claim 4, wherein the clamping jaws of each pair each protrude in a direction perpendicular to the longitudinal direction of the at least one workpiece table.
7. The machining device as claimed in claim 5, wherein the clamping jaws of a first pair of clamping jaws protrude in a first direction perpendicular to the longitudinal direction of the at least one workpiece table, wherein the clamping jaws of a second pair of clamping jaws protrude in a direction opposed to the first direction perpendicular to the longitudinal direction of the at least one workpiece table.
8. The machining device as claimed in claim 1, wherein the least one workpiece is suppliable using the supply device to the at least one workpiece table in such a manner that one workpiece or a plurality of workpieces is holdable simultaneously.
9. The machining device as claimed in claim 1, wherein a plurality of workpieces are suppliable simultaneously using the supply device to the at least one workpiece table in such a manner that the plurality of workpieces are holdable simultaneously by the at least one workpiece table.
10. The machining device as claimed in claim 1, wherein the supply device has a plurality of clamping elements which are arranged spaced apart from one another in the longitudinal direction of the supply device.
11. The machining device as claimed in claim 10, wherein each clamping element of the plurality of clamping elements has at least one pair of clamping jaws with two clamping jaws, wherein at least one of the clamping jaws is shiftable relative to the other clamping jaw.
12. The machining device as claimed in claim 10, wherein each clamping element has two pairs of clamping jaws, wherein each pair of clamping jaws has two clamping jaws, wherein in each case at least one of the clamping jaws of each pair is shiftable relative to the other clamping jaw of the pair.
13. The machining device as claimed in claim 11, wherein the clamping jaws of each pair each protrude in a direction perpendicular to the longitudinal direction of the at least one workpiece table.
14. The machining device as claimed in claim 12, wherein the clamping jaws of a first pair protrude in a first direction perpendicular to the longitudinal direction of the at least one workpiece table, wherein the clamping jaws of a second pair protrude in a direction opposed to the first direction perpendicular to the longitudinal direction of the at least one workpiece table.
15. The machining device as claimed in claim 1, wherein the supply device, at least in a central region, as viewed in the longitudinal direction, has clamping jaw pairs which are arranged spaced apart from one another and fixed with respect to one another in the longitudinal direction.
16. The machining device as claimed in claim 1, wherein the supply device, at least on one of its end regions, as viewed in the longitudinal direction, has at least one clamping jaw pair which is arranged so as to be shiftable in the longitudinal direction.
17. The machining device as claimed in claim 1, wherein the supply device, at least on one of its end regions, as viewed in the longitudinal direction, has at least two clamping jaw pairs which are arranged so as to be shiftable in the longitudinal direction.
18. The machining device as claimed in claim 16, wherein the shiftable clamping jaw pair of the supply device is adjustable and fixable in their position in the longitudinal direction.
19. The machining device as claimed in claim 15, wherein the shiftable clamping jaw pair is or are shiftable using a drive unit.
20. The machining device as claimed in claim 3, wherein each clamping element of the plurality of clamping elements has at least one pair of clamping jaws with two clamping jaws, wherein one of the clamping jaws is rotatable relative to the other clamping jaw by up to 90.
21. A method for operating a machining device, the method comprising: providing a machining device according to claim 1, guiding the at least one workpiece to the at least one workpiece table and positioning the at least one workpiece thereon using the supply device, positioning the at least one workpiece in three dimensions with respect to the at least one workpiece table, wherein the workpiece table is displaced relative to the supply device in at least the longitudinal direction when positioning the at least one workpiece, wherein the supply device is displaced in at least two directions relative to the workpiece table when positioning the at least one workpiece.
22. The method as claimed in claim 21, wherein the workpiece holder has pairs of clamping jaws configured to permit a workpiece to be clamped in the workpiece holder of the at least one workpiece table.
23. The method as claimed in claim 21, wherein the workpiece holder has at least two sets of pairs of clamping jaws configured to permit a workpiece to be clamped in the workpiece holder of the at least one workpiece table, wherein the at least one workpiece is transferable from a first set of pairs to a second set of pairs.
24. The method as claimed in claim 23, wherein the workpiece is clamped in the pairs of clamping jaws of the workpiece holder of the at least one workpiece table.
25. The method as claimed in claim 24, wherein the at least one workpiece, following clamping in the workpiece holder, is machined on a longitudinal side by at least one tool.
26. The method as claimed in claim 24, wherein the at least one workpiece, following clamping in the workpiece holder, is machined with end finishing machining on a narrow side by at least one tool.
27. The method as claimed in claim 24, wherein the at least one workpiece, following clamping in the workpiece holder, is machined with end finishing machining on both narrow sides by at least one tool.
28. The method as claimed in claim 25, wherein, following a machining of the at least one workpiece, the at least one workpiece is rechucked into the second set of clamping jaws, for the further machining of the at least one workpiece on a second longitudinal side or on at least one of the narrow sides.
29. The method as claimed in claim 28, wherein, following a machining step, the at least one workpiece is removed from the at least one workpiece table by the supply device.
30. The method as claimed in claim 21, wherein a glass strip or another element is removable from a workpiece by using the supply device with at least individual pairs of its clamping jaw pairs.
31. The method as claimed in claim 21, wherein a fitting, an RFID chip, or another element is suppliable to the at least one workpiece by using the supply device with at least individual pairs of its clamping jaw pairs.
Description
BRIEF DESCRIPTION OF THE DRAWINGS
(1) The invention is explained in more detail below on the basis of at least one exemplary embodiment with reference to the drawings, in which:
(2)
(3)
(4)
(5)
(6)
(7)
(8)
(9)
(10)
(11)
(12)
PREFERRED EMBODIMENT OF THE INVENTION
(13)
(14) The machining device 1 has a workpiece table 2 with a workpiece holder 3 with clamping elements 4 for clamping a workpiece, by means of which workpieces 5 can be securely held for machining. The workpiece table 2 is preferably designed connected to an advancing unit, by means of which the workpiece table 2 is designed so as to be shiftable in direction 13. The direction 13 is advantageously oriented perpendicular here to the direction 11 and to the direction 12.
(15) Furthermore, a supply device 6 is provided which serves to supply a workpiece 5 to the workpiece holder 3 of the workpiece table 2 and to place the workpiece 5 on the workpiece table 2.
(16) Furthermore, a device framework is provided on which the supply device 6, also called manipulator, is arranged so as to be shiftable. A guide device 8 is also provided to which the supply device 6 is furthermore coupled so as to be shiftable. The supply device 6 is thus arranged in a shiftable manner on one side on the device framework 7 and on the other side on the guide device 8. The supply device 6 can be moved here with its elongate carrier element 9 and the clamping elements 10 arranged thereon both in the vertical direction 11 and in the lateral direction 12 which is oriented perpendicular to the direction 11.
(17) The guide device 8 is advantageously designed as a gantry or as a crossbar on which a tool side 14 is shiftably arranged in order to be able to shift a tool 15 in direction 12 and/or in direction 11. As a result, the workpiece 5 can be shifted in the longitudinal direction of the workpiece table 2 and, in the process, can be guided past the tool 15 for machining.
(18) Furthermore, a supply and/or discharge table 16 can also be provided, by means of which the workpieces can be supplied and/or removed, and therefore a stock of workpieces can be made available to the machining device 1 in order to be able to machine said workpieces efficiently and to be able to remove same again from the machining device 1 and supply same for further processing or commissioning.
(19) According to the invention, clamping of the workpieces with three-dimensional shifting or positioning is provided. For this purpose, three axes or three manipulation directions in the x, y and in the z direction are provided for the three-dimensional clamping of the workpieces 5. In this case, the x direction represents the direction 13, the y direction represents the direction 12, and the z direction represents the direction 11.
(20) The machining device 1 of
(21) The various possibilities for shifting the workpiece 5 relative to the workpiece table 2 in order to achieve an attractive and in particular also economical device concept are distributed here between the workpiece table 2 and the supply device 6. Fundamentally different combination possibilities for distributing the shifting possibilities along the directions 11, 12 and 13 mentioned are possible here.
(22)
(23) The workpiece table 2 is preferably designed as a table which is of elongate design and has a basic body 17 which is of correspondingly elongate design and on which the workpiece holder 3 with the clamping elements 4 arranged adjacent to one another is arranged. The clamping elements 4 are arranged adjacent to one another along the x direction 13, and therefore a workpiece can be held with the clamping elements, wherein the workpiece can be held in a manner oriented along the x direction 13 by the clamping elements 4. Since the workpiece table 2 is shiftable with its advancing device in the x direction 13, the workpiece holder 3 which is connected thereto is also shiftable in the x direction and therefore the clamping elements 4 are also shiftable in the x direction. As a result, before the workpiece is positioned in the clamping elements 4 of the workpiece table 2, the workpiece table 2 can be shifted in the x direction 13 in order to define the position of the workpiece 5 in the x direction 13 relative to the workpiece table 2.
(24) The clamping elements 4 consist of two clamping jaws 18, 19 which are shiftable with respect to each other and are shiftable in the z direction in order to clamp a workpiece 5 between them. Alternatively, different clamping elements can also be provided. The clamping jaws 18, 19 protrude here in the y direction 12 in order to be able to clamp a workpiece 5 between them. It is advantageous here if the clamping jaws 18, 19 are designed in such a manner that the clamping jaws 18, 19 are arranged in pairs such that they are arranged protruding in both y directions, and therefore two setups are possible between the two clamping jaw pairs 18, 19.
(25) The distance between adjacent clamping elements 4 can advantageously be selected here to be of a size sufficient in order to be able to carry out an end finishing machining on a narrow side or advantageously also on both narrow sides of the workpiece 5, i.e. on the short workpiece sides, between two adjacent clamping elements 4 and the longitudinal machining of a longitudinal side of the workpiece in one setup.
(26) The supply device 6 likewise has an elongate basic body and an elongate carrier element 9 on which the clamping elements 10 with two clamping jaws 20, 21, which protrude in the y direction 12 and are shiftable in the z direction 11, are arranged adjacent to and spaced apart from one another. The supply device 6 is itself designed so as to be shiftable in the y direction and in the z direction. As a result, the workpieces 5 can be offset in the x, y and in the z direction relative to the clamping jaws 18, 19 both upon insertion into the clamping jaws 18, 19 of the workpiece holder 3 and during the rechucking from one clamping jaw pair to the other clamping jaw pair between machining operations.
(27) It is also possible here that a plurality of workpieces 5 are arranged next to one another in the x direction and are clamped at the same time in the clamping jaws 18, 19, and therefore they can machined simultaneously.
(28) The individual workpieces 5 can be picked up next to one another simultaneously with the supply device 6, and therefore their position can also be changed simultaneously in the x, y and z direction.
(29) For the insertion of workpieces, even machining which has been undertaken on the unmachined part, such as, for example, previously separated glass strips, can be taken into consideration here, and therefore the workpiece can optionally even be clamped in a rebate which is present, instead of on the upper side and lower side of the workpiece 5.
(30) By means of the offset of the workpieces 5, even parts with a negative clamping yoke offset downward can be picked up and clamped. The parts are normally clamped in the clamping device on the upper side and lower side. The overlapping of the two clamping surfaces is the clamping yoke. The trend is toward profiles having a very small or even a negative clamping yoke, if any at all. This does not give rise to any overlapping of the upper side and lower side. The workpiece then has to be clamped in the rebate.
(31) The device according to the invention can advantageously be used as described below.
(32) The workpiece is picked up, for example as an unmachined part, by the supply device 6 from the retrieval position of the workpiece inlet on the supply table 16.
(33) The workpiece 5 is subsequently placed by means of the supply device into the clamping jaws 18, 19 of the workpiece holder for the first setup. The position of the workpiece 5 can be oriented variably in the y and z direction, depending on the intended machining operations to be carried out on the workpiece 5, wherein the y and z orientation can be selected by shifting the supply device 6 along the axes of the supply device 6.
(34)
(35) With the clamping elements 10 of the supply device 6, the workpiece 5 can be gripped and inserted into the setup shown. The clamping jaws 18, 19 can grip and clamp the workpiece 5 here.
(36) The workpiece table 2 can be shifted here in the x direction by means of an advancing device, in particular into the machining region 24, in order to machine the workpiece 5 by means of a tool, for example to carry out a longitudinal profiling, or to undertake end finishing machining and/or drilling.
(37) The workpiece table 2 subsequently moves back again in the x direction into the charging region 22 in which the supply device inserts the workpiece, rechucks same and/or removes same again.
(38) The workpiece 5 is removed from the clamping jaws 18, 19 by the supply device 6 and shifted from the left side of the clamping jaws 18, 19, see
(39) The workpiece 5 can be positioned in a correspondingly variable manner in the x, y and/or z direction and inserted into the clamping jaws 18, 19.
(40) The workpiece table 2 subsequently moves again in the x direction into the machining region 24 in order to profile the workpiece in the second longitudinal side and optionally also to carry out further machining operations.
(41) The workpiece table 2 subsequently moves again into the charging region 22 and the ready-finished workpiece can be removed by the supply device 6 and deposited on the depositing position on the workpiece outlet.
(42) The above-described device has the advantage that diverse clamping possibilities can be provided in order to clamp and to machine the workpiece. This is advantageously achieved by the workpiece being able to be shifted in the three directions: x direction, y direction and z direction.
(43) The upper and/or lower sides required for the setup in earlier devices can thereby be released during rechucking for carrying out machining operations in order to permit a machining operation which machines the upper or lower side of the workpiece in such a manner that only small webs of the upper or lower side are left or the upper or lower side is entirely removed.
(44) This minimizes the non-productive and/or handling times since a plurality of workpieces can also be positioned and machined simultaneously. This can be carried out with maximum precision during the manufacturing of parts.
(45) It is preferred if the supply device is equipped with a plurality of clamping elements 10 which are arranged next to one another in a manner spaced apart from one another in the x direction. At least the central clamping elements 10 are arranged spaced apart here in an advantageously fixed and rather elongated grid.
(46) It is advantageous here if at least one clamping element 10 is arranged at at least one lateral end of the supply device so as to be shiftable in the x direction. As a result, the distance between the clamping elements 10 can be changed in order to be adapted to the length of a workpiece.
(47) The figures show that the workpieces can be held horizontally next to one another in various positions by the two clamping jaw pairs of a workpiece table.
(48) Alternatively, for the supply, at least two supply tables can be provided in such a manner that the finished parts and the unmachined parts can be placed one above another.
(49) An alignment station can also be provided by means of which the workpieces can be aligned and in particular can also be pushed rectilinearly, in particular also in the x direction.
(50) It is also possible that, in one exemplary embodiment of the invention, a double supply device is provided by means of which two workpieces can also be supplied synchronously and inserted into the clamping jaws.
(51) A display of a double occupancy loading can also be provided, in particular for the manual workpiece charging of the device.
(52)
(53)
(54) The machining device 101 has a workpiece table 102 with a workpiece holder 103 with clamping elements 104 for clamping a workpiece 105, by means of which workpieces can be securely held for machining. The workpiece table 102 is preferably designed to be connected to an advancing unit, by means of which the workpiece table 102 is designed so as be shiftable in its longitudinal direction in direction 113. The direction 113 is advantageously oriented here perpendicular to the direction 111 and to the direction 112.
(55) Furthermore, a supply device 106 is provided which serves to supply a workpiece to the workpiece holder 103 of the workpiece table 102 and to place the workpiece on the workpiece table 102.
(56) Furthermore, a device framework 107 is provided on which the supply device 106, also called manipulator, is arranged so as to be shiftable. A guide device 108 is also provided to which the supply device 106 is furthermore coupled so as to be shiftable. The supply device 106 is arranged so as to be shiftable on one side on the device framework 107 and on the other side on the guide device 108. The guide device 108 also serves to arrange and to guide tools 115 thereon with a tool slide 114. The at least one tool 115 is mounted here on one side of the guide device 108, while the supply device 106 is mounted on the other side of the guide device 108 in a shiftable manner. Alternatively, a second device framework 107 can also be arranged adjacent to the guide device 108, and therefore the supply device 106 is guided so as to be shiftable by means of two device frameworks. It is then also advantageous if tools 115 are arranged on both sides on the guide device 108 so as to be shiftable, for example, by means of tool slides 114.
(57) The supply device 106 can be moved with its elongate carrier element 109 and the clamping elements 110 arranged thereon both in the vertical direction 111 and also in the lateral direction 112 which is oriented perpendicular to the direction 111.
(58) The clamping elements 110 are arranged spaced apart from one another here. The clamping elements 110 of the supply device 106 are advantageously arranged fixedly with respect to one another or in another exemplary embodiment, at least one clamping element or two or more clamping elements 110 of the supply device 106 is or are arranged on one end region of the supply device in a shiftable manner or alternatively on both end regions of the supply device 106.
(59) The guide device 108 is advantageously designed as a gantry or crossmember on which a tool slide 114 is arranged in a shiftable manner in order to be able to shift a tool 115 in direction 112 and/or in direction 111. As a result, the workpiece 105 can be shifted in the longitudinal direction of the workpiece table 102 and can be guided past the tool 115 for the machining.
(60) Furthermore, a supply and/or discharge table 116 can also be provided by means of which the workpieces 105 can be supplied and/or removed, and therefore a stock of workpieces 105 can be made available to the machining device 101 in order to be able to efficiently machine said workpieces or to be able to remove said workpieces again from the machining device 101 and supply them for further machining or commissioning.
(61) The two
(62) According to an inventive concept, clamping of the workpieces with three-dimensional shifting or positioning is provided. For this purpose, three axes or three manipulation directions in the x, y and in the z direction are provided for the three-dimensional clamping of the workpieces 105. Here the x direction represents the direction 113, the y direction the direction 112 and the z direction the direction 111.
(63) The machining device 101 of
(64) The various possibilities of shifting the workpiece 105 relative to a workpiece table 102 in order to achieve an attractive and in particular also economical device concept are distributed here between the workpiece table 102 and the supply device 106. Various combination possibilities for distributing the shifting possibilities along the directions 111, 112 and 113 mentioned are basically possible here.
(65)
(66) The individual workpiece table 102 or in the case of more than one workpiece table the respective workpiece tables is or are preferably designed here as a table of elongate design with a basic body 117 which is of correspondingly elongate design and on which the workpiece holder 103 with the clamping elements 104 arranged adjacent to one another is arranged. The clamping elements 104 are arranged adjacent to one another along the x direction 113, and therefore a workpiece 105 can be held with the clamping elements 104, wherein the workpiece 105 can be held by the clamping elements 104 in a manner oriented along the x direction 113. Since the respective workpiece table 102 is shiftable with its advancing device in the x direction 113, the workpiece holder 103 connected to said workpiece table is also shiftable in the x direction and therefore the clamping elements 104 are also shiftable in the x direction. As a result, prior to the positioning of the workpiece 105 in the clamping elements 104 of the workpiece table 102, the respective workpiece table 102 can be shifted in the x direction 113 in order to define the position of the workpiece 105 the x direction 113 relative to the workpiece table 102.
(67) The clamping elements 104 consist of two clamping jaws 118, 119 which are shiftable with respect to each other and are shiftable in the z direction in order to clamp a workpiece 105 between them. It may also be advantageous here if, for example, the lower clamping jaw is of stationary design in the z direction and the upper clamping jaw is shiftable in the z direction with respect thereto. Alternatively, other clamping elements can also be provided. The clamping jaws 118, 119 protrude here in the y direction 112 in order to be able to clamp a workpiece 105 between them. It is advantageous here if the clamping jaws 118, 119 are designed in such a manner that the clamping jaws 118, 119 are arranged in pairs such that they are arranged protruding in both y directions, and therefore two setups between the two clamping jaw pairs 118, 119 are possible.
(68) It can also be advantageous if the upper and/or the lower clamping jaws are rotatable, for example, by 90 in order to be spaced for a machining operation.
(69) The distance between adjacent clamping elements 104 can advantageously be selected here to be of a size sufficient in order also to be able to carry out end finishing machining on a narrow side or advantageously on both narrow sides of the workpiece 105, i.e. on the short workpiece sides, between two adjacent clamping elements 104 and the longitudinal machining of a longitudinal side of the workpiece in one setup.
(70) The supply device 106 likewise has an elongate basic body or a carrier element 109 on which the clamping elements 110 with two clamping jaws 120, 121, which protrude in the y direction 112 and are shiftable in the z direction 111, are arranged adjacent to and spaced apart from one another. The supply device 106 is itself of shiftable design in the y direction and in the z direction. As a result, the workpieces 105 both when inserted into the clamping jaws 118, 119 of the workpiece holder 103 and during the rechucking between the machining operations from one clamping jaw pair to the other clamping jaw pair can be offset in the x, y and in the z direction relative to the clamping jaws 118, 119.
(71) It is also possible here for a plurality of workpieces 105 to be arranged next to one another in the x direction and at the same time to be clamped in the clamping jaws 118, 119 such that they can be machined simultaneously.
(72) The plurality of individual workpieces 105 can be picked up simultaneously next to one another with the supply device 106, and therefore the position of said workpieces can be changed simultaneously in the x, y and in the z direction.
(73) For the insertion of workpieces, it is even possible to take into consideration a machining operation undertaken on the unmachined part, for example previously separated glass strips, and therefore the workpiece can optionally already be clamped in a rebate which is present, instead of on the upper side or lower side of the workpiece 105. A glass strip, for example, can also be removed from the workpiece 105 by means of the supply device 106. Alternatively, other elements can also be taken away or removed. Furthermore, elements, such as a fitting, an RFID chip or other elements, can also be supplied to the workpiece on the workpiece table 102 by means of the supply device 106.
(74) By means of the offset of the workpieces 105, even parts with a negative clamping yoke offset downward can be picked up and clamped. The parts are normally clamped on the upper side and lower side in the clamping device. The overlapping of the two clamping surfaces is the clamping yoke. The trend is toward profiles with a very small or even negative clamping yoke, if any at all. This does not result in any overlapping of the upper and lower side. The workpiece then has to be clamped in the rebate.
(75) The device according to the invention can advantageously be used as described below.
(76) The workpiece, for example as an unmachined part, is picked up by the supply device 6, 106 from the retrieving position of the workpiece inlet on the supply table 16, 116.
(77) The workpiece 105 is subsequently placed into the clamping jaws 118, 119 of the workpiece holder by means of the supply device for the first setup. The position of the workpiece 105 can be oriented variably here in the y and z direction, depending on the intended machining operations to be carried out on the workpiece 105, wherein the y and z orientation can be selected by shifting the supply device 106 along the axes of the supply device 106.
(78)
(79)
(80) The described machining operation here is in particular a machining operation, such as milling, sawing and/or drilling.
LIST OF REFERENCE SIGNS
(81) 1 Machining device 2 Workpiece table 3 Workpiece holder 4 Clamping element 5 Workpiece 6 Supply device 7 Device framework 8 Guide device 9 Carrier element 10 Clamping element 11 z direction 12 y direction 13 x direction 14 Tool slide 15 Tool 16 Supply and/or discharge table 17 Basic body 18 Clamping jaw 19 Clamping jaw 20 Clamping jaw 21 Clamping jaw 22 Charging region 23 Arrow 24 Machining region 101 Machining device 102 Workpiece table 103 Workpiece holder 104 Clamping element 105 Workpiece 106 Supply device 107 Device framework 108 Guide device 109 Carrier element 110 Clamping element 111 z direction 112 y direction 113 x direction 114 Tool slide 115 Tool 116 Supply and/or discharge table 117 Basic body 118 Clamping jaw 119 Clamping jaw 120 Clamping jaw 121 Clamping jaw 201 Supply device 202 Basic body 203 Clamping element 204 Clamping jaw 206 Central region 207 End region 208 End region 210 x direction 301 Workpiece 302 Clamping element 303 Workpiece table 304 Clamping jaw 305 Clamping jaw 306 Glass strip 307 Clamping element 308 Clamping element 309 Supply device