Processing Units and Use of Multiple Processing Units

Abstract

The invention relates to a processing unit for assisting and / or performing a process elementary operation of a chemical reaction, with an operating unit for preparing a contribution for said process elementary operation and a frame for accommodating the operating unit, the frame having a dimension d in the longitudinal direction L , which basically corresponds to the size L in the longitudinal direction of the interior of a standard transport container L An integral part of L Integer multiple of Z L , in particular a standard transport container as specified in DIN ISO 668, and / or the frame has a dimension d in the transverse direction Q , which basically corresponds to the size L in the lateral direction of the interior of a standard transport container Q An integral part of Q Integer multiple of Z Q , in particular the standard transport containers specified in DIN ISO 668. Thus, for example, different process units can be stored in the pool for different process base operations and these process units can be assembled in a modular and flexible manner in a standard transport container according to the required plant structure to synthesize a given chemical product, thus making it possible to carry out different chemical reactions with little effort.

Description

[0001] This application is a divisional application of the patent application with the application date of December 18, 2013, the application number of 201380066910.3, and the invention creation name of "Processing Unit and Use of Multiple Processing Units".

[0002] The work that led to the present invention was funded under the European Union's Seventh Framework Programme for research, technological development and demonstration activities (FP7 / 2007 - 2013) under grant agreement no 228867.

[0003] The present invention relates to a processing unit and also to the use of a plurality of such processing units, with which process engineering unit operations can be carried out or at least supported in order to carry out chemical reactions.

[0004] For the purpose of producing chemical products, it is necessary to assemble individually designed equipment structures in order to carry out the desired synthesis of the chemical product to be produced, so that the necessary engineering process steps can be carried out. When it is no longer desired to produce such a product, the equipment structure is usually dismantled or disassembled again in order to assemble different individually designed equipment structures at the same location, with which different chemical products can be produced.

[0005] There has always been a need to reduce the cost of carrying out different chemical reactions.

[0006] The object of the present invention is to specify measures that allow different chemical reactions to be carried out at low cost.

[0007] The solution according to the invention is achieved by a processing unit having the features of claim 1 and a use having the features of claim 10. Preferred embodiments of the invention are specified in the dependent claims, each of which may represent an aspect of the invention individually or in combination.

[0008] According to the invention, there is provided a processing unit for supporting and / or carrying out process engineering unit operations of chemical reactions, having an operating unit that makes a contribution to the process engineering unit operation and a framework for accommodating the operating unit, wherein the framework has a size d in the longitudinal direction L , which is essentially an integer multiple Z of an indivisible part N of the size L in the longitudinal direction of the interior of a standard shipping container L , in particular a standard shipping container as defined in DIN ISO 668, and / or the framework has a size d in the transverse direction L , which is essentially an integer multiple Z of an indivisible part N of the size L in the transverse direction of the interior of a standard shipping container L , and / or the framework has a size d in the transverse direction Q , which is essentially an integer multiple Z of an indivisible part N of the size L in the transverse direction of the interior of a standard shipping container Q , and / or the framework has a size d in the transverse direction Q , which is essentially an integer multiple Z of an indivisible part N of the size L in the transverse direction of the interior of a standard shipping container Q, in particular, standard shipping containers as specifically defined in DIN ISO 668.

[0009] Standard shipping containers, in particular the type 1D ("10-foot container") or type 1C ("20-foot container") as specifically defined in DIN ISO 668, are international general standards, and their sizes in the longitudinal direction, transverse direction, and height are basically standardized internationally. In the case of the rectangular base area inside the standard shipping container, the longer side defines the longitudinal direction and the shorter side defines the transverse direction. Such standard shipping containers can be used in particular for transportation by trucks and / or sea container ships. For example, the interior of a type 1C standard shipping container has a length L of 5867 mm L , a width L of 2330 mm Q and a height L of 2197 mm H , while the interior of a type 1D standard shipping container has a length L of 2802 mm L , a width L of 2330 mm Q and a height L of 2197 mm H . The available storage space of such standard shipping containers is divided into multiple nominal logical areas of equal size. The floor area of the processing unit basically corresponds exactly to this logical area or an integer multiple of this logical area, and a certain gap ("clearance") can be provided between adjacent logical areas of the standard shipping container in the dimensions of the floor area of the processing unit defined by the frame.

[0010] Preferably, a type 1C standard shipping container is divided into N L = 10 parts in the longitudinal direction and N Q = 4 parts in the transverse direction, in such a way that for this frame when Z L = 1 and Z Q = 1, the minimum size in the longitudinal direction can be d L,min = 570 mm ± 15 mm and the minimum size in the transverse direction can be d Q,min = 570 mm ± 5 mm. Therefore, the process engineering unit operations supported and / or performed by this processing unit theoretically particularly need to be carried out in the area of d L,min × d Q,min . If this area is not sufficient for this purpose, then the frame can be enlarged by an integer multiple in the longitudinal direction and / or transverse direction, in such a way that the process engineering unit operations supported and / or performed by this processing unit can be carried out at most in an area of (Z L d L,min ) × (ZQ d Q,min ) is carried out on the area where Z L ≤ N L and Z Q ≤N Q . Therefore, for the frame size in the longitudinal direction, d L = Z L d L,min , where Z L = 1...N L , and for the frame size in the transverse direction, d Q = Z Q d Q,min , where Z Q = 1...N Q . Moreover, N L , N Q , Z L , Z Q . Preferably, 2 ≤ N L ≤ 40, especially 3 ≤ N L ≤ 20, preferably 4 ≤ N L ≤ 10, and particularly preferably 5 ≤ N L ≤ 8. Preferably, 2 ≤ N Q ≤ 10, especially 3 ≤ N Q ≤ 8, and particularly preferably 4 ≤ N Q ≤ 6. If a gap S L is provided between adjacent processing units in the longitudinal direction, and / or a gap S Q is provided in the transverse direction, preferably this gap S is considered when determining d L and d Q in such a way that a constant stepped increment of a standard shipping container can be maintained. In this case, in particular, d L = Z L d L,min + (Z L – 1) S L , where Z L = 1...N L , and / or d Q = Z Q d Q,min + (Z Q – 1) S Q , where Z Q = 1...N Q .

[0011] In particular, the dimensions of the frame in the longitudinal and transverse directions are selected such that, in the case of the maximum possible number of processing units within a standard shipping container, more than 95% of the available storage space of the standard shipping container is used by the processing units. Preferably, 0.9 ≤ (N L d L,min ) / L L ≤ 1.0, in particular 0.95 ≤ (N L d L,min ) / L L ≤ 0.99 and particularly preferably 0.97 ≤ (N L d L,min ) / L L ≤ 0.98. Correspondingly, in particular 0.9 ≤ (N Q d Q,min ) / L Q ≤ 1.0, in particular 0.95 ≤ (N Q d Q,min ) / L Q ≤ 0.99, and particularly preferably 0.97 ≤ (N Q d Q,min ) / L Q ≤ 0.98. Preferably 0.95 ≤ [(N L d L,min ) (N Q d Q,min )] / (L L L Q ) ≤ 1.0, and particularly preferably 0.97 ≤ [(N L d L,min ) (N Q d Q,min )] / (L L L Q ) ≤ 0.99. In particular 450 mm ≤ d L,min ≤ 650 mm, preferably 500 mm ≤ d L,min ≤ 600 mm, and particularly preferably d L,min =°570 mm 15 mm. Correspondingly, in particular 450 mm ≤ d Q,min ≤ 650 mm, preferably 500 mm ≤ d Q,min ≤ 600 mm, and particularly preferably d Q,min =°570 mm 5 mm.

[0012] Through this standardization of the dimensions of the processing units, multiple processing units can be placed in an ordered structure within a standard shipping container, which support and / or execute different process engineering unit operations of the planned chemical reactions within the standard shipping container, in particular chemical batch reactions and / or continuous chemical reactions, and can be connected to each other, in particular for mass transfer and / or energy exchange and / or information exchange. The system structure implemented within the standard shipping container can consist of multiple standardized processing units, which are connected to each other such that, for example, various different processing units can be available in a pool for various different process engineering unit operations, and depending on the necessary system structure, these processing units can be flexibly assembled in a modular manner within the standard shipping container to synthesize a certain chemical product, thus allowing different chemical reactions, in particular continuous chemical reactions, to be carried out at low cost.

[0013] Using a process engineering unit operation in principle refers to any process in which at least one material is changed in terms of type, properties, and / or composition, in particular by using physical-chemical or biological processes. Preferably, within a processing unit, only one process engineering unit operation is carried out, thus improving the interchangeability and reusability for different chemical reactions. Process engineering unit operations are, for example, mixing, separation, aggregation, comminution, heating, cooling, drying, filtration, distillation, oxidation, hydrogenation. Polymerization, fermentation, electroplating. The process engineering unit operations supported and / or executed by the operating units of the processing units in particular extend beyond pure mass transfer and are not limited to storage or transportation.

[0014] In particular, the framework has support columns extending substantially vertically. Preferably, four support columns are provided, which are arranged at the corners of a nominal rectangle with edge lengths d L and d Q . The support columns can be connected to each other by a base extending substantially horizontally and / or side walls extending substantially vertically and / or connecting columns. The framework can define a volume within which the operating units are positioned. The operating units can be connected to the framework in a substantially immovable manner. In particular, suitable recesses are provided within the framework, which allow the operating units to be connected to at least one additional operating unit of a different processing unit.

[0015] In particular, the framework has a height d H , which substantially corresponds to an integer multiple Z L of an indivisible part N L of the size L H in the longitudinal direction of the interior of the standard shipping container or an integer multiple Z Q of an indivisible part N Q of the size L HThis in particular allows the dimensions of the processing unit to be constructed substantially in a cubic manner and / or to consist of nominal cubes. In particular, d H = Z H L L / N L or d H = Z H L Q / N Q Preferably, d H = Z H d L,min or d H = Z H d Q,min wherein d L,min and / or d Q,min takes into account in particular the clearance S when determining. Also, Z H Preferably, 1 ≤ Z H ≤ 5 and particularly preferably 2 ≤ Z H ≤ 4. Also, this dimensioning allows a free space to be left above and / or below the processing unit within a standard shipping container, the size of which free space is in particular less than L L / N L or L Q / N Q . In this free space, supply ducts for materials, energy and / or information can be provided, which can be connected to different processing units in an easily accessible manner.

[0016] For the minimum dimension d of the frame in the longitudinal direction and / or the transverse direction with respect to the total size L of the interior of a standard shipping container in the longitudinal direction and / or the transverse direction and an integer division N, taking into account the clearance S, it is determined according to d min = (L - (N + 1)S) / N, in particular 1 mm ≤ S ≤ 50 mm, preferably 2 mm ≤ S ≤ 30 mm, more preferably 3 mm ≤ S ≤ 20 mm, and particularly preferably 4 mm ≤ S ≤ 15 mm. Thus, this specifies that in the longitudinal direction d min = (L L,min - (N L + 1)S L ) / N L and in the transverse direction d L = (L Q,min - (N Q + 1)S Q ) / N Q ) / N QDue to this gap, it is easier to access individual processing units and, in particular, to manipulate individual processing units more easily during installation and / or disassembly. Moreover, if necessary, better passive cooling of the processing units is achieved. Thus, heat accumulation is avoided, especially in the case of electrical operating components for operating the operating units.

[0017] Particularly preferably, the minimum dimension d of the frame in the longitudinal direction L,min substantially corresponds to the minimum dimension d of the frame (22) in the transverse direction Q,min , where, in particular, the minimum height d of the frame H,min substantially corresponds to the minimum dimension d of the frame in the longitudinal direction L,min and / or the minimum dimension d of the frame in the transverse direction Q,min . The minimum storage space for the processing units can thus be configured to be substantially square. This allows the processing units to be fixed in a standard shipping container with a 90-degree offset, thus simplifying the connection and accessibility of different processing units. For example, multiple processing units can be arranged in an L-shape in the longitudinal and transverse directions within a standard shipping container.

[0018] In particular, within the frame, in particular below the operating unit, a waste water conduit is provided that is connected or not connected to the operating unit, where the waste water conduit has at least one, preferably at least two, pipe flanges that face laterally towards the outside of the frame. Unwanted materials and / or products can thus be fed by gravity to the waste water conduit, where different conduits can be provided for different material flows. In this case, this waste water conduit can be shared by the processing units, where a waste water conduit in a suitable form is connected to the operating unit. In particular, waste water conduits can be provided to convey material flows from different processing units. Thus, a material flow can easily be passed from one processing unit located relatively far from the relevant outlet and / or relevant storage through other processing units located between them. For this purpose, it is not necessary to provide separate conduits that are routed through the corresponding processing units. Instead, a processing unit that does not require such a waste water conduit for its own operating unit can also provide the corresponding part of the required conduit section through its own waste water conduit.

[0019] Preferably, at least one transport unit is provided for transporting materials to and / or from an adjacent processing unit, and the at least one transport unit is connected or not connected to the operating unit. The transport unit can in particular compensate for the pressure drop occurring in the material transport within the processing unit, and / or can overcompensate in order to establish a corresponding high transport pressure. In particular, if the material transport is to be carried out by a plurality of processing units arranged in series, the transport unit can ensure that the desired transport pressure can always be maintained regardless of the total transport section. The dimensions of the transport unit of the processing unit can thus be set as desired over the entire transport section substantially independently of the pressure drop. This is advantageous for the interchangeability and reusability of the processing unit for different chemical reactions.

[0020] Particularly preferably, the frame is connected to a base, wherein the base is positioned at a distance from the substrate by means of feet for fastening to the substrate. By means of the corners, the frame and thus the processing unit can be fixedly but detachably connected to the substrate, for example. By the spaced arrangement of the base and the substrate, a gap is left which is substantially defined by the vertical extensions of the corners and which can be used for other purposes as required, for example for laying cables for operating measuring instruments. In particular, a support crossbeam can be provided which can increase the stability of a standard transport container and can cope with the weight of the processing unit, to which the processing unit is preferably connected. The centerlines of the crossbeams are preferably spaced from each other by d L,min or d Q,min . In particular, the spacing between the base and the substrate allows easy visual inspection of the substrate and thus makes it possible to easily recognize leaks or other defects in the processing unit. Moreover, a forklift can be used to access the processing unit from below and transport it easily, thus simplifying the conversion of the system structure. Preferably, the dimensions of the base substantially correspond to the dimensions of a standard pallet or a quarter of the dimensions of a standard pallet, in such a way that the transport of the processing unit using a forklift and / or the storage of a relatively large processing unit or the storage of a plurality of relatively small processing units on a standard pallet are simplified. In particular, a forklift can be used to move a plurality of relatively small processing units which are stored together on a standard pallet. Preferably, the dimensions of the frame of the processing unit are set in terms of mechanical stability such that the pallets containing these processing units can be stacked one above the other. This mechanical stability of the frame is generally sufficient to prevent irreparable deformation of the frame and / or the processing unit, even in the event of an explosion in a standard transport container.

[0021] In particular, a support device, in particular a measuring instrument, is connected to the operating unit and is arranged below the operating unit to operate the operating unit. The processing unit may in particular have a support area above a defined height, for example for a measuring instrument or a waste water conduit, an operating area above the defined height for the operating unit, and an interface area above the defined height to connect the processing unit to a supply network for materials and / or energy and / or information. If these areas are arranged at substantially the same height for all the processing units used, then the interchangeability and reusability of the processing units for different chemical reactions are further improved. In particular, the operating unit may be arranged on a part of the measuring instrument which can measure the weight of the operating unit, for example using an extended measuring strip. For example, the filling height can be measured thereby. Moreover, the volumetric flow rate can be measured and / or controlled using the measuring instrument.

[0022] Preferably, an interface module connected to the operating unit is arranged above the operating unit to accommodate materials and / or energy and / or information. This enables mass transfer and / or energy exchange and / or information exchange to be provided to the operating unit of the processing unit above. Thus, a plurality of processing units can be particularly simply linked to one another above and / or particularly simply connected to a common supply network. For example, the supply network connected by the interface module may have a data bus which enables information, in particular measurement results, to be obtained and reach other processing units, thus allowing improved control, in particular feedforward control, of the attached processing unit according to the state of other processing units. Moreover, electrical energy, steam, compressed air, etc. can be obtained from the supply network as required through the interface module. Preferably, the interface module has a controller which allows a defined exchange with the supply network, in particular mass transfer, in response to a control signal of the controller, for example.

[0023] The invention also relates to the use of a plurality of processing units which can be constructed and developed as described previously herein, and which are directly or indirectly connected to one another within a common standard transport container, in particular within a standard transport container as specified in DIN ISO 668, to construct a production system for performing chemical reactions. This enables different process engineering units to operate with different processing units available in a pool and to be flexibly assembled in a modular manner within the standard transport container according to the required system structure to synthesize defined chemical products, thus enabling different chemical reactions to be carried out at low cost.

[0024] Hereafter, the invention will be explained by way of example with the aid of the drawings according to preferred exemplary embodiments, where each of the features shown hereafter individually and in combination can represent an aspect of the invention. In the drawings:

[0025] Figure 1 shows a schematic perspective conceptual view of a standard shipping container,

[0026] Figure 2 shows a standard shipping container with differently conceptually shown processing units Figure 1 in a schematic perspective conceptual view,

[0027] Figure 3 shows Figure 1 a schematic perspective view of an example of a processing unit of a standard shipping container,

[0028] Figure 4 shows Figure 1 a schematic perspective view of the lower region of a processing unit of a standard shipping container, and

[0029] Figure 5 shows Figure 1 a schematic perspective view of the support region of a processing unit of a standard shipping container.

[0030] In Figure 1 the interior of the type 1C standard shipping container 10 as specified in DIN ISO 668 has a size of L L = 5867 mm in the longitudinal direction, a size of L Q = 2300 mm in the transverse direction, and a height of L H = 2197 mm. The size L L in the longitudinal direction is divided into N L = 10 substantially equally sized nominal logic units in such a way that for each logic unit a segment of substantially d L,min = 570 mm is obtained in the longitudinal direction. The size L Q in the transverse direction is divided into N Q = 4 substantially equally sized nominal logic units in such a way that for each logic unit a segment of substantially d Q,min = 570 mm is likewise obtained in the transverse direction. As shown in Figure 2 the interior of the standard shipping container 10, a plurality of processing units 12 can be arranged, which are oriented according to the nominal stepped increments of the standard shipping container 10. This means that each of the provided processing units 12 has a size of d L in the longitudinal direction and a size of d Q in the transverse direction, which in each case are each substantially an integer multiple of d L,min or d Q,min For the processing unit 12, there is also a predetermined minimum height of d H,min= 570 mm, such that the smallest processing unit 12 has a cubic height with an edge length of 570 mm. The dimensions of the larger processing units 12 used basically correspond to an integer multiple of this cube.

[0031] By selecting the minimum height of the processing unit 12 as d H,min = 570 mm, the maximum height for the processing unit 12 is d H,min in the Z H = 3 times, it can still be installed inside the standard transport container 10. Thus, in the exemplary embodiment shown, an upper region with a height of 460 mm is reserved. This region is large enough to provide a supply network 14 there, which can supply materials, energy, and / or information to the corresponding processing unit 12 at almost any desired position within the standard transport container 10 from above. In particular, this upper region does not have parts of the processing unit 12. However, the supply network 14 can leave enough free volume within the upper region, and the processing unit 12 can extend into the reserved free volume within this upper region. The supply network extends in particular over the volume of a corresponding predetermined stepped increment at the end face 16 of the standard transport container 10, or can have a size deviating therefrom in the longitudinal direction. At this end face 16 of the standard transport container 10, a multi-coupler 18 connected to the supply network can be provided, through which the standard transport container 10 can be docked to a docking station 20. The docking station 20 can in turn be connected to a main structure, through which materials, energy, and / or information can be exchanged via the multi-coupler 18 and the docking station 20. In particular, the standard transport container 10 can thus be supplied with sufficient materials, energy, and / or information to perform a chemical reaction using the processing units 12 provided within the standard transport container 10. Products and / or residues and wastes can optionally be fed through the multi-coupler 18 to the docking station 20 of a separate connection device and the main structure and / or to the multi-coupler 18 for feeding to the docking station 20 of a separate connection device and the main structure after the chemical reaction is carried out. In particular, a chemical reaction can be autonomously carried out within the standard transport container 10, that is, the standard transport container 10 can be positioned separately from the docking station 20 when performing a chemical reaction, especially a chemical batch reaction and / or a continuous reaction.

[0032] At Figure 3The processing unit 12 shown in [description] has a frame 22 which defines the size of the processing unit 12 in the longitudinal and transverse directions. An operating unit 24 is inserted into the frame 22, and the operating unit 24 is configured, for example, as a reactor or a mixing tank. Below the operating unit 24, a support area 28 is provided between the operating unit 24 and a base 26 connected to the frame 22, and support means, such as a measuring instrument 30, are arranged in this support area to monitor and / or control the operating parameters of the operating unit 24. Feet 32 are connected to the base 26 and / or the frame 22, and through these feet the frame 22 and thus the processing unit 12 can be fixed within a standard shipping container 10. An interface module 34 is provided above the operating unit 24, and through this interface module the operating unit 24 can be connected to a supply network 14. In particular, the interface module 34 contains a controller and process control technology provided for operating the operating unit 24, and in particular, information about the state of the operating unit 24 can be transmitted through the interface module to the supply network 14 to allow other processing units 12 to access this information. The mass transfer between the operating unit 24 and the supply network 14 can be carried out, for example, through pipes 36 which can be connected to each other.

[0033] As shown in Figure 4 [description], in the support area 28, in particular, a waste water conduit 38 can be provided which is not necessarily connected to the operating unit 24 of the processing unit 12 shown. The waste water conduit 38 can have pipe flanges 40 in two or more positions, and through these pipe flanges the waste water conduit 38 can be connected to corresponding waste water conduits 38 of adjacent processing units 12. This allows waste water, products or other materials to be transported from the processing unit 12 through a plurality of processing units 12 via waste water conduits 38 connected to each other to a desired location. As shown in Figure 5 [description], for this purpose, the processing unit 12, in particular a plurality of processing units provided within the standard shipping container 10 or all of these processing units provided, has a transfer unit 42, such as a pump. The transfer unit 42 can in particular compensate for pressure drops which occur temporarily in the waste water conduit 38. Moreover, in the support area 28, a support unit in the form of a filter device 44 can be provided, for example, to keep the product free of unwanted solid particles.

Claims

1. A production system for performing a chemical reaction, the production system comprising: A standard transport container (10), wherein the standard transport container is a standard transport container as specified in DIN ISO 668; A plurality of processing units (12) for supporting and / or performing process engineering unit operations of chemical reactions, wherein the plurality of processing units (12) are detachably connected to a base plate of the standard transport container (10), and a gap S between adjacent processing units (12) satisfies 4 mm ≤ S ≤ 15 mm, and each of the processing units has: an operating unit (24) for providing contributions to the process engineering unit operation; and A frame (22) for accommodating the operating unit (24), wherein the frame (22) has a size dL in the longitudinal direction, wherein dL is set to be greater than or equal to 555 mm and less than or equal to 585 mm, and / or the frame (22) has a size dQ in the transverse direction, wherein dQ is set to be greater than or equal to 565 mm and less than or equal to 575 mm; a wastewater conduit (38) arranged in the frame (22) and below the operating unit (24), the wastewater conduit (38) being connected to the operating unit (24) or not connected to the operating unit (24), wherein the wastewater conduit (38) has at least one pipe flange (40) which faces laterally to the outside of the frame (22) and is connected to the wastewater conduit (38) of an adjacent treatment unit (12); an interface module (34), the interface module (34) being attached to the frame 22 and being located above the operating unit (24); A supply network (14) is arranged in an upper region of the standard transport container (10) and is configured to supply materials, energy and / or information to a corresponding processing unit 12 located at almost any desired location within the standard transport container 10 from above through an interface module (34) of each processing unit (12).

2. The production system according to claim 1, characterized in that The frame (22) has a height dH which substantially corresponds to an integer multiple ZH of an integral part NL of the dimension LL in the longitudinal direction or an integer multiple ZH of an integral part NQ of the dimension LQ in the transverse direction of the interior of the standard transport container (10).

3. The production system according to any one of claims 1 to 2, characterized in that: The minimum size dL,min of the frame (22) in the longitudinal direction substantially corresponds to the minimum size dQ,min of the frame (22) in the transverse direction.

4. The production system according to claim 3, characterized in that: The minimum height dH,min of the frame (22) substantially corresponds to the minimum size dL,min of the frame (22) in the longitudinal direction and / or the minimum size dQ,min of the frame (22) in the transverse direction.

5. The production system according to any one of claims 1 to 2, characterized in that: At least one transport unit (42) is provided, which is connected to the operating unit (24) or not connected to the operating unit (24) to transport material to and / or from an adjacent processing unit (12).

6. The production system according to any one of claims 1 to 2, characterized in that: The frame (22) is connected to a base (26), wherein the base (26) is positioned spaced apart from a base plate by feet (32) for fastening to the base plate.

7. The production system according to any one of claims 1 to 2, characterized in that: A supporting device (30, 44) connected to the operating unit (24) is provided below the operating unit (24) to operate the operating unit (24).

8. The production system according to claim 7, characterized in that The support device comprises a measuring instrument (30).

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