EP1852878B2 - Power resistor module - Google Patents

Abstract

The resistor has a resistor element provided with a housing element, where the resistor element is section-wise mounted between two electrically insulating, thermally conductive insulation elements in the housing element. The insulation elements are section-wise abutted against the housing element, where the resistor element is a wire, which is section-wise abutted against one of the insulation elements. A surface contour of the wire is pressed and/or impressed into the insulation element. The housing element is an extruded profile, which has opening that is sealed with an elastic seal (15). An independent claim is also included for a method for producing an electrical power resistor module for an electrical circuit.

Description

The invention relates to a power resistor module for electrical circuits having at least one resistance element and at least one housing element, wherein the at least one resistance element is at least partially mounted between two electrically insulating, heat-conducting insulation elements in the housing member, and abut the insulation elements at least partially on the at least one housing element. The invention further relates to a method for producing an electrical power resistor module for an electrical circuit, wherein at least one resistance element is pressed between two electrically insulating, heat-conducting insulation elements, and at least one of the two insulation elements is pressed at least in sections against a housing element.

Power resistor modules are known as protective elements in electrical circuits, also called braking, discharging or protective resistors, and as electrical heating elements. They convert electrical energy into heat.

With a braking resistor, for example, excess electrical energy is reduced in the braking operation of an electric motor. Above all, it must be ensured that the power resistor module safely converts high-voltage pulses into heat and dissipates them to the environment.

According to the prior art, as for example from the DE 203 11 068 U1 As is well known in power resistor modules, resistance wires are often used to convert the electrical energy into heat. Thus, according to the required power dimensioned heating wire of a defined resistance alloy is wound on one or more insulation plates. The free wire ends of such a wire heating element are each connected by welding, crimping or the like with an electrical cable feed. For improved heat storage capability and heat transfer to the environment, the wire heating element is electrically insulated and heat-transfer coupled to a suitable heat sink, such as an aluminum profile body.

Measures are known in the prior art as to how a wire heating element can be electrically insulated and heat-coupled to an aluminum heat sink. So is in the EP 1 681 906 A1 a method for producing a radiator described. In the process mentioned there, a lining of pressed mica is first introduced into a profile body closed on all sides, for example an aluminum extruded profile. Subsequently, the wire heating element is pushed into the profile, wherein there is an air space around the wire heating element on all sides. For this reason, the wire heating element must be suitably positioned and fixed for the further work steps. On the opposite side of the cable exit the profile is then closed with another Mikanitplatte. Subsequently, the air space is filled up with magnesium oxide. The magnesium oxide serves for the thermal coupling of the wire heating element to the profile body as well as for heat storage for a time-delayed heat release and buffering and for electrical insulation. To fulfill these purposes safely, the magnesium oxide must be compacted in a shaking process. Thereafter, more magnesium oxide is replenished, after which the profile body can be closed. For this purpose, another Mikanitplatte is inserted at the filling or cable side, in which cable openings for carrying out the connection lines for the wire heating element are present. Finally, the front sides of the profile are first sealed with a silicone sealing layer and finally with a layer of cement.

In the EP 1 225 080 A2 a protective element for an electrical circuit is described. Here, a PTC resistor element is arranged in a layered structure between two sheets, which in turn abut against a heat sink by a film electrically isolated.

Femer is in the DE 85 03 272 U1 describes an electric heating element which has a PTC heating element which is clamped in a flat tube between two insulating Mikanit-Pressstoffplatten. The use of a heating wire or a Heizdrahtwendel is in the DE 85 03 272 U1 but not mentioned.

The use of PTC heating elements is problematic because they are made of ceramic material and thus can easily break if they are not processed very accurately. In addition, PTC heating elements are more expensive than resistance wires of the same power.

The measures known in the prior art for electrically insulated thermal coupling of a wire heating element to a profile body and for sealing the profile body are time-consuming and expensive. There are too many steps for the introduction of magnesium oxide necessary and the cost and the time required for the sealants used and their drying time are also too high.

The invention is therefore based on the object to simplify the production of a power resistor module without sacrificing the efficiency.

This object is achieved for the above-mentioned power resistor module by the features of claim 1 and a method according to claim 13. Advantageous developments of the invention are the subject of the dependent claims.

This simple solution has the advantage that the wire can generate the heat energy generated directly to the insulating element and is electrically isolated from the housing element in the power resistor module. By biasing bias the insulation element and / or the wire is elastically deformed and there is a surface contact between the insulation element and the wire, which meets the requirements for heat transfer and storage in a generic power resistor module.

The solution according to the invention can be combined with the following further, each for themselves advantageous embodiments, and further improved.

Thus, it is provided according to the invention that the surface contour of the wire is impressed at least in sections into the insulation elements. This makes it possible that the wire is embedded in the insulation elements and is surrounded by the plastically deformed material, whereby an intimate contact is achieved.

According to another possible embodiment of a power resistor module can be provided that this contains no magnesium oxide. As a result, the time-consuming processing of the magnesium oxide can be dispensed with and the material costs for the magnesium oxide can be saved.

According to the invention, the insulating element contains mica. Mica is a silicate mineral from natural deposits, which has an electrically insulating effect and is temperature-resistant up to 600 degrees Celsius.

According to the invention, the insulation elements are constructed of plate-shaped mica pressed material. Mica compact is also known as mica or synthetic mica and consists of pressed with a heat-resistant binder mica, which can be pressed with plates impregnated with binder under heat and high pressure in several layers to plates. The mica compact is also heat resistant up to 600 ° C and usually has a voltage or dielectric strength of over 10 kV / mm.

According to the invention, the housing element is an extruded profile. Thus, the housing element can be easily manufactured by simply cutting it to length from an extruded profile of the desired cross-section. In this case, the extruded profile is a hollow profile which has an opening on at least one side and forms at least one receiving channel in which the at least one wire and the insulation elements are accommodated. Trained as a hollow profile extruded profile forms a solid housing body for a power resistor module according to the invention, which is stable and easy to seal.

For this purpose, it is possible according to a further advantageous embodiment that the at least one opening is closed with an elastic seal. By the use of an elastic seal, or a prefabricated sealing element, can on the use of any sealing and auxiliary materials, such as. Silicone and cement are dispensed with. Thus, a rapid and cost-effective sealing of a power resistor module according to the invention can be achieved.

It can be advantageously provided that the seal has at least one passage which receives at least one electrically connected to the at least one wire electrical conductor. Thus, the electrical conductor can be easily led out of the sealed interior of the power resistor module.

The sealing of the housing element can be improved according to a further advantageous embodiment for improved sealing of the passage for the electrical conductor, characterized in that the implementation is adapted in a compressed state of the gasket to a cross-sectional shape of the electrical conductor.

According to the invention, the at least one wire is wound on a carrier at least in sections. Thus, the wire can be easily in a desired wide or narrow installation evenly and widely used in the module. This is particularly advantageous if the wire by itself has no mechanical stability necessary for the assembly and is difficult to handle on its own, especially in the case of mechanical processing. Of course, it is also possible to use wires with a material thickness which is sufficient in itself to insert the wire into the module in a desired course.

For easier handling of the wire and its electrical connection can be provided according to a further advantageous embodiment that on the support at least one fastening means is attached to which the at least one wire and / or the at least one electrical conductor is attached / is. The attachment means may be attached, for example, as a clip to the carrier, which may have any necessary recesses or eyelets. At this clip or Lötfahne then the wire and the electrical conductor can be attached and are thus fixed to the carrier, which further simplifies the handling and assembly of a power resistor module according to the invention.

For a modular combination of multiple carriers to increase the heat output of a power resistor module according to the invention can be provided according to a further advantageous embodiment that a plurality of carriers form at least one shock, in which a positive locking element is arranged, which connects the carrier. In this case, an overlap of the carrier can be dispensed with, if the positive-locking element provides sufficient support of its own accord. This is particularly advantageous for a flat and as flat as possible construction of a power resistor module, because it is possible to dispense with the use of additional fillers, sealants or auxiliaries.

According to another possible embodiment, it can be provided that the carriers are constructed identically. This can be achieved by having two e.g. plate-shaped carrier have an axis of symmetry and each having a portion for forming a shock, which fits snugly against a carrier rotated about the axis of symmetry. Thus, only one type of carrier is necessary, which simplifies material procurement. Material procurement and production costs can be further reduced if it is provided according to a further possible embodiment that the support and the insulation elements are constructed from the substantially same material.

According to a further, possible advantageous embodiment it can be provided that the at least one resistance element between the at least one housing element and at least one biased against the resistive element pressure element is arranged, which is held by at least one support on the housing element support. Thus, a contact pressure on the resistance element relative to the housing element can be easily constructed. As a pressing element is for example a metal plate used. It is Z. B. possible that the housing element is a simple one-sided ribbed aluminum profile body, on the flattened side of the resistance element is arranged. The pressure element can then be pressed against the resistance element or the insulating elements surrounding the resistance element. If the desired contact pressure is reached, then the pressing element can be easily fixed with the holder supported on the housing element. The holder can be designed as a simple, the pressing element and the housing element comprehensive bracket. However, it can just as well be pre-assembled or formed on the housing element and fixed by simple bending, snapping or other friction, form, force or cohesive closure or fastening techniques.

According to a further, possible advantageous embodiment, it can also be provided that the wire is arranged between at least two housing elements, which are connected to one another by positive-locking elements. Similar to the embodiment with a housing element and a pressure element, in this case two essentially identically constructed housing elements can serve to press the wire. The wire is accordingly arranged between the housing elements, which after reaching the desired contact pressure by suitable interlocking elements, such. Screws or rivets, to be joined together. It is also conceivable, the housing element in the desired position by any cohesive bonding techniques, such. As welding, soldering or gluing, to connect together.

The assembly of a power resistor module according to the invention can be generally simplified according to a further, possible advantageous embodiment, if it is provided that the carrier and the insulation elements are arranged substantially in a flat stack structure. Thus, the carrier receiving the resistance wire can be sandwiched between the insulation elements. The carrier and the insulation elements thus form an easy-to-process unit.

If the wire is pressed according to the invention in the power resistor module, the stack construction can be particularly advantageous because the stack can be pressed in such a way that contacts the sections of the carrier and the respectively applied insulating element between the webs of the wires surface contact and thus the wire in completely embedded in a compact stack and enclosed by the material of the carrier and the insulation elements.

According to a further, possible advantageous embodiment of the resistance element can be particularly easily applied to the insulating element by the at least one housing element is elastically deformed to form a force acting on the at least one resistance element biasing force.

With regard to the above-mentioned method for producing a module for an electrical circuit, the above object is achieved in that a wire is used as the resistance element, which is applied during pressing at least partially to both insulation elements. Thus, a more intimate Contact between the wire and the insulation elements can be made easily. This ensures a sufficient heat transfer requirements between the wire and the insulation elements.

According to the method according to the invention, the surface contour of the wire is impressed at least in sections into the two insulation elements. The wire may have a round, flat or angular contour. Both the insulation element and the wire can plastically deform during the pressing or embossing. By impressing the wire is formally embedded in the material of the insulating element and at least partially enclosed by it, whereby the heat transfer area between the wire and the insulating element is increased. The heat transfer between wire and insulation element is thus improved and the power resistor module becomes more compact.

The inventive method for producing the module provides that at the at least one housing element, a receiving channel is formed, in which the wire and the two insulating elements are used, and the housing element is compressed under plastic deformation of its cross section, so that the wire and this insulating elements be pressed in the receiving channel. In this case, the housing element is designed so that it remains after the pressing in a desired cross-sectional shape in which it exerts a pressure corresponding to the requirements of the wire and the insulating elements in the receiving channel. In order to fix the housing element in the desired cross-sectional shape, notches and indentations are additionally made on the housing element, so that zones of maximum bending stresses are secured against Auffedem.

According to the method according to the invention for producing the power resistor module, the at least one wire is wound at least in sections onto a carrier. Thus, the wire can be easier to introduce in the desired length and in a uniform area distribution in the module and the carrier can be used in later operation as an additional heat storage.

A method according to the invention for producing a power resistance module according to the invention can be improved in that at least one seal inserted into an opening of the at least one housing element is sealingly clamped during a pressing operation. Thus, it can be dispensed with the use of further sealants, if it is provided that the seal ensures adequate sealing of the interior of the power resistor module according to the invention.

By clamping the gasket during a pressing operation, the entire inventive power resistor module can be pressed and sealed in a single pressing operation. It is also possible first to press the wire and the insulation elements and then clamp the seal sealingly when compressing the receiving channel of a housing element or between a plurality of housing elements.

In the following, the invention will be explained in more detail by way of example with reference to advantageous embodiments with reference to the drawings. The described embodiments represent only possible embodiments in which, however, the individual features, as described above, can be realized independently of one another or omitted.

• Fig. 1 eine schematische Draufsicht sowie halbseitige Schnittansicht eines erfindungsgemäßen Leistungswiderstandsmoduls;
• Fig. 2 eine schematischen Schnittansicht eines erfindungsgemäßen Leistungswiderstandsmoduls;
• Fig. 3 eine schematische Perspektivansicht einer erfindungsgemäßen Dichtung für ein erfindungsgemäßes Leistungswiderstandsmodul;
• Fig. 4 eine schematische Perspektivansicht einer in ein erfindungsgemäßes Leistungswiderstandsmodul eingesetzten erfindungsgemäßen Dichtung.

Show it

• Fig. 1 a schematic plan view and half-side sectional view of a power resistor module according to the invention;
• Fig. 2 a schematic sectional view of a power resistor module according to the invention;
• Fig. 3 a schematic perspective view of a seal according to the invention for a power resistor module according to the invention;
• Fig. 4 a schematic perspective view of a seal according to the invention used in a power resistor module according to the invention.

First, the construction of a power resistor module 1 according to the present invention will be described with reference to FIGS Fig. 1 which shows a schematic plan view and a sectional view of a power resistor module 1 designed according to the invention.

The power resistor module 1 has a housing element 2, which is designed as an aluminum profile 2 '. The housing element 2 has a receiving channel 3 for a resistance element 4, which converts electrical energy into heat output. The resistance element 4 is designed as a wire 4 ', which is wound on two carriers 5. The carriers 5 have attachment portions 6 which form a joint 7. In the 7th stroke is in the middle Positive locking element 8 in the form of a rivet 8 'used, which connects the carrier 5. In order to allow a particularly flat design of the power resistor module 1, the carrier 5 does not overlap in the region of the joint 7.

Furthermore, a fastening means 9 in the form of a contact or Lötfahne 9 'is attached to each of the two carriers 5, to which in each case the wire 4' and the stripped end 10 of an electrical conductor 11 are attached. For this purpose, the wire 4 'can be soldered, welded or adhesively bonded at its attachment point 12. In general, the most suitable connection technology between the wire 4 'and the fastening means 9 for the particular application can be selected, which also applies to the attachment of the electrical conductor 11 to the fastening means 9. The wire 4 'or the resistance element 4 and the electrical conductor 11 can also be connected directly to one another.

In openings 13 on the end faces 14 of the housing element 2 are seals 15, 15 'used to protect the receiving channel 3 of the housing element 2 against ingress of dirt and liquids, or corrosive media. The electrical conductor 11 is inserted through a passage 16 in the seal 15 from the outside into the housing element 2.

Furthermore, ribs 17 for surface enlargement and improved heat transfer of the heat generated by the resistance element 4 to the environment are formed on the side of the housing element 2 facing away from the resistance element. At the end faces 14, the housing element 2 also has attachment elements 17 ', which serve for fastening the power resistor module 1.

In Fig. 2 is a power resistor module according to the invention in a sectional view along in FIG Fig. 1 shown section line AA shown. Here it is clear that the carrier 5 is inserted with the wire 4 'in the receiving channel 3 of the housing element 2, wherein the housing element 2 is designed as a hollow profile 2 "or extruded profile 2"'.

The carrier 5 is arranged between two insulating elements 18, whereby the wire 4 'applied to the carrier 5 is electrically insulated from the housing element 2.

As in Fig. 2 can be seen, the two insulation elements 18 and the carrier 5 are stacked in a flat stack structure 19 and are flush with each other. This means that the wire 4 'has pressed into the insulation elements and / or the support 5 by compressing the stack structure 19, whereby the insulation elements 18 and / or the support 5 are formally located at the points where the wire 4' lies are impressed. Carrier 5 and insulation elements 18 are designed as Mikanitpressstoffplatten, in which the wire 4 'formally digs, whereby a good heat transfer from the wire 4' is ensured to the surrounding insulation elements 18. Due to the intimate contacting of wire 4 ', carrier 5 and insulation elements 18, the heat storage capacity of the power resistor module 1 is ensured. Thus, in the construction according to the invention of a power resistor module 1, it is possible to dispense with the use of any fillers, such as magnesium oxide (MgO). The use of prefabricated seals 15, 15 'also makes a sealing of the power resistor module 1 with any excipients, such as silicone or the like superfluous.

In Fig. 2 In addition, it becomes clear that the sandwich or stack-type construction of a resistance module 1 according to the invention enables a very simple production of a power resistance module 1 according to the invention. The resistance element 4 or the carrier 5 and the wound on him wire 4 'and the insulation elements 18 can be easily adjusted in the receiving channel 3 of the housing element 2. In this case, the housing element 2 can be embodied as a hollow profile 2 "opened on one or both sides. Subsequently, the hollow profile 2" can be compressed along its center line M or flat, whereby its side surfaces 20 bulge inward and the height h of the housing element 2 is reduced. The side surfaces 20 can be pressed in for additional support by additional tools.

With the resistance element 4, or wire 4 'connected electrical conductors 11 protrude then, as already in Fig. 1 shown from an opening 13 in the housing element 2. The seal 15, 15 'can be used even before the compression of the housing element 2 in the openings 13 in the hollow section 2 ", wherein the electrical conductors 11 are guided through the bushings 16 in the seal 15.

In Fig. 3 a seal 15 designed according to the invention is shown in a schematic perspective view. The seal 15 can be inserted into the opening 13 in the housing element 2 in an insertion direction x. The electrical conductors 11 are guided through passages 16 in the seal 15. The seal 15 may also be configured as a seal 15 'without bushings 16, if no electrical conductors 11 are to be passed through them.

The bushings 16 have an elliptical cross-section, wherein the main axis E of the elliptical passage 16 is parallel to the height axis Z of the seal and the housing element. If that Housing element 2 is pressed together with inserted seal 15 in the Z direction, then decreases with the height H of the housing member 2 and the height H 'of the seal and the major axes E of the ellipse are shortened until the bushings 16 optimally have a circular cross-section , This ensures optimum sealing of electrical conductors 11 with round cross-sections in the passages 16.

Furthermore, the seal 15 has fins 21, which further improve the sealing effect with respect to the housing element 2 of the seal.

In Fig. 4 is a schematic perspective view of a seal 15 used in a receiving channel 3 of a housing element 2 is shown. The housing element is already compressed in the Z direction, whereby the seal 15 is closely enclosed by the housing element 2 and compressed in the Z direction.

Im in Fig. 4 shown compressed state of the seal 15, their bushings 16 have a circular cross-section. In order to ensure the sealing effect on the side surfaces 20 of the housing element 2, the seal 15 is slightly arched at its longitudinal ends 22 to the inside or concavely constricted. The seal 15 thus optimally adapts to the side surfaces of the housing element 3, which are likewise pressed inward or concavely, and optimum sealing is ensured along the entire circumference of the seal 15 or the opening 13 in the housing element 2.

Within the inventive concept, deviations from the embodiments described above are possible. Thus, housing elements 2 can also be embodied as simple plate bodies, against which an insulation element 18 rests, in which a resistance element 4 or a corresponding power module is pressed in according to the invention and thus embedded. Winding a resistance element 4 in the form of a wire 4 'onto a support 5 is optional and depends on the respective material thickness of the resistance element 4. If the resistance element 4 in itself has sufficient stability, it can also be easily arranged and pressed directly between two insulation elements 18.

A stack construction 19 can also be arranged between two housing elements 2 designed as a plate body, which are pressed together and held together by any positive locking elements.

Furthermore, it is also conceivable to form on a housing element 2 brackets 24 (not shown), which exert a contact pressure on a pressure element 25 (not shown), which holds a stack structure 19 compressed.

A power resistor module 1 with one or more seals 15, 15 'to seal is optional, it can be used depending on the requirements and any types of sealant.

The plate-shaped design of insulation elements 18 is immaterial to the inventive idea of pressing a resistance element 4 into an insulation element. There are any, advantageously coordinated geometric shapes of the resistance element 4, housing element 2 and the insulation elements 18 possible. Furthermore, an insulating element 18 can be made of both the already mentioned pressed mica (micanite) and other electrically insulating, heat-resistant materials such. B. polyimide exist. The insulation element 18 can thus also be used as a film such. As polyimide film (Kapton) be executed.

Claims (14)

1. A power resistor module (1) for electrical circuits, comprising at least one resistor element (4) and at least one housing element (2), wherein the at least one resistor element (4) is impressed at least section-wise between two electrically insulating, thermally conductive insulation elements (18) in the housing element (2), and the insulation elements (18) at least section-wise abut against the at least one housing element (2), wherein the at least one resistor element (4) is a wire (4'), which at least section-wise abuts against at least one of the insulation elements (18) and the insulation elements (18) are made of a plate-shaped, pressed mica material and the at least one wire (4') is wound at least section-wise onto a carrier (5), characterized in that by compressing, the surface contour of the wire (4') is impressed at least section-wise into the insulation elements (18), wherein the at least one housing element (2) is an extruded profile (2"') formed as a hollow profile having at least one opening (13) on at least one side (14) and forming at least one receiving channel (3) in which the at least one wire (4') and the insulation elements (18) are received, wherein the hollow profile (2") is compressed while plastically deforming the cross-section thereof, so that the wire (4') and the insulation elements (18) are compressed within the receiving channel (3), wherein, in order to fix the desired cross-sectional shape of the housing element, additional notches or impressions are provided on the housing element, so that zones of maximum bending stresses are secured against unbending.
2. The power resistor module (1) according to claim 1, characterized in that it does not contain magnesium oxide.
3. The power resistor module (1) according to claim 1 or 2, characterized in that the at least one opening (13) is sealed with an elastic seal (15, 15').
4. The power resistor module (1) according to claim 3, characterized in that the seal (15) has at least one leadthrough (16) receiving at least one electric conductor (11) electrically connected to the wire (4').
5. The power resistor module (1) according to claim 4, characterized in that the leadthrough (16) is adapted, in a compressed state of the seal (15), to a cross-sectional shape of the electric conductor (11).
6. The power resistor module (1) according to claim 5, characterized in that at least one fixing element (9) is mounted on the carrier (5), to which fixing element the at least one wire (4') and/or the at least one electric conductor (11) is/are fixed.
7. The power resistor module (1) according to claim 1 or 6, characterized in that a plurality of carriers (5) form at least one abutment (7) in which a form-fit element (8) to connect the carriers (5) is disposed.
8. The power resistor module (1) according to claim 7, characterized in that the carriers (5) are constructed identically.
9. The power resistor module (1) according to any of the preceding claims, characterized in that the at least one resistor element (4) is mounted between the at least one housing element (2) and at least one press-on element (25) preloaded against the at least one resistor element (4), which is held by at least one holder (24) supported against the at least one housing element (2).
10. The power resistor module (1) according to any of the preceding claims, characterized in that the wire (4') is disposed between at least two housing elements (2) that are connected to each other by form-fit elements (23).
11. The power resistor module (1) according to any of claims 1 or 6 to 10, characterized in that the carrier (5) and the insulation elements (18) are substantially disposed in a flat stack structure (19).
12. The power resistor module (1) according to any of the preceding claims, characterized in that the at least one housing element (2) is elastically deformed by producing a preloading force acting on the at least one resistor element (4).
13. A method for producing an electrical power resistor module (1) for an electrical circuit, wherein at least one resistor element (4) is compressed with two electrically insulating, thermally conductive insulation elements (18), and at least one of the two insulation elements (18) is pressed at least section-wise against a housing element (2), characterized in that a wire (4') is used as the resistor element (4), which is placed at least section-wise against at least one of the two insulation elements (18) during the compressing step, the at least one wire (4') is wound at least section-wise onto a carrier (5), wherein the insulation element (18) contains mica, the insulation elements (18) are made of a plate-shaped, pressed mica material, wherein by compressing, the surface contour of the wire (4') is impressed at least section-wise into the two insulation elements (18), wherein the at least one housing element (2) is an extruded profile (2") formed as a hollow profile having at least one opening (13) on at least one side (14) and forming at least one receiving channel (3) in which the at least one wire (4') and the insulation elements (18) are received, wherein the at least one housing element (2) is compressed while plastically deforming the cross-section thereof, so that the wire (4') and the insulation elements (18) are compressed within the receiving channel (3), wherein, in order to fix the desired cross-sectional shape of the housing element, additional notches or impressions are provided on the housing element, so that zones of maximum bending stresses are secured against unbending.
14. The method for producing an electrical power resistor module (1) according to claim 13, characterized in that at least one seal (15) inserted into an opening (13) of the at least one housing element (2) is clamped in a sealing manner during a pressing process.

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