DE102019133206B4 - Device for cooling at least one heat-generating electronic component and plug-in element - Google Patents

Abstract

Device (1000) for cooling at least one heat-generating electronic component (10), comprising - at least one first heat sink (1), which is in heat-dissipating contact with the electronic component (10), - at least one second heat sink (2), which in is in heat-dissipating contact with the electronic component (10),- at least one carrier element (3) on and/or on which the electronic component (10) is mounted in a mounting plane (MX) of the carrier element (3), the two heat sinks ( 1,2) are in mechanical and heat-dissipating contact with the carrier element (3) via heat dissipation elements (4) assigned to them, so that thermal energy generated by the electronic component (10) is transferred from the carrier element (3) to the two heat sinks (1,2 ) is derived by means of the heat dissipation elements (4), so that the electronic component (10) can be cooled during its operation, - characterized in that between the carrier element (3) and at least one of the Cooling body (1, 2) at least one insertion element (5) is arranged, which maintains and/or creates a distance between the cooling body (1, 2) and the carrier element (3).

Description

The present invention relates to a device for cooling at least one heat-generating electronic component according to the preamble of patent claim 1. The present invention also relates to a slide-in element.

Previously known devices for cooling at least one heat-generating electronic component, in particular a system component, in particular an inverter (which can be a system component), and in particular from the field of electronic controls, electronic regulations and the like are one-sided for reasons of space and installation chilled For this purpose, in the prior art, the heat sink must be positioned in a mechanically stable manner relative to the electronic, heat-generating component. In the prior art, this sometimes happened using simple spacer elements, which, however, were difficult to attach.

This means that in the prior art, mechanically stable mounting of the heat sink relative to the heat-generating electronic component in a cost-effective and simple manner was not readily possible.

The present invention comprises at least one heat-generating electronic component, at least one first heat sink which is in thermally conductive contact with the electronic component, in particular with the inverter, the device having at least one second heat sink which is in thermally conductive contact with the electronic component, wherein the device has at least one carrier element on and/or on which the electronic component is mounted in a mounting plane of the carrier element, the two heat sinks being in mechanical and thermally conductive contact with the carrier element via heat dissipation elements assigned to them, so that one of the electronic Component heat energy generated is dissipated from the carrier element to the two heat sinks by means of the heat dissipation elements, so that the electronic component can be cooled during operation.

Such a device is already known from the publication, for example CN 109 257 905 A known. This document shows a heatsink for an electronic element, comprising a heatsink in contact with a heating element, a first heatsink and a second heatsink connected to the heatsink via a thermally conductive element, the first heatsink and the second heatsink each being on the same are arranged on the side of the heatsink and the distance between the first and second heatsinks and the heatsink is not less than 30 mm.

US 2003/0 218 849 A1 shows a heat sink in which a heat pipe for transporting heat, thereby generating latent heat of a working fluid encapsulated therein, is erected generally vertically on an upper surface of a flat plate-shaped base portion, and a plurality of heat radiating fins are attached to the heat pipe, and has an intermediate portion formed with a bend of a portion of the heat pipe where the heat radiating fins are not attached, and a through hole formed on the base portion to let the heat pipe pass through to project one end portion thereof, to which the ribs are attached, from the upper surface of the base portion, and to expose the heating portion on the lower surface of the base portion.

US 2017/0 231 116 A1 shows a heat-dissipating device and a method for increasing the heat conduction of the heat-dissipating device is provided. The heat dissipation device includes at least one fin group, a heat conduction block having a coupling portion, and a plurality of heat pipes. First, the heat conducting block is placed in the fin assembly. Then, first tubular bodies of at least parts of the plurality of heat pipes are placed in the coupling area. The exposed surfaces of the first tubular bodies partially protrude beyond an outer edge surface of the heat-conducting block. Then, in response to an external force, the exposed surfaces of the tubes of the first part are positioned adjacent and coplanar or nearly coplanar with the outer peripheral surface of the heat conducting block. The contact area of the first tubular body parts in the coupling area is increased, and thus the heat dissipation efficiency is improved.

U.S. 8,755,186 B2 Fig. 1 shows a cooling device with high performance and stable start at low ambient temperatures below 0°C. and a railway vehicle controller using the heat pipe type cooling device according to the present invention are provided. The middle portion between two bends formed on a heat pipe is used as an evaporator; the lengths of the two distal sections used as the condenser sections are intentionally different from each other; and the longer length condenser section is provided with more heat radiating fins than those on the shorter length condenser section. This configuration allows each of the two condenser sections to be designed with a different condensing capacity, and accordingly, the shorter length condenser section operates to cool the heat generating elements, although the longer length condenser section would suffer from the problem of freezing at low temperatures. At normal temperature, sufficient cooling effect is achieved.

Based on the prior art, the inventors have recognized that a particularly efficient, inexpensive and yet space-saving option for cooling a heat-generating electronic component and at the same time mechanically stable assembly is that, according to the invention, at least one slide-in element is arranged between a carrier element and at least one of the heat sinks is, which receives a distance of the heat sink from the support element.

The device comprises at least one carrier element on and/or on which the electronic component is mounted in a mounting plane of the carrier element, with the two heat sinks being in mechanical and thermally conductive contact with the carrier element via heat dissipation elements assigned to them, so that a heat generated by the electronic component Thermal energy is dissipated from the carrier element to the two heat sinks by means of the heat dissipation element, so that the electronic component can be cooled during operation. The carrier element can be the above mounting board or a part of it.

However, the carrier element can also be completely different from the electronic component, which can mean that the electronic component is mounted on or on the carrier element.

The present task, i.e. enabling a mechanically stable assembly of the heat sink relative to the heat-generating electronic component in a cost-effective and simple manner, is also achieved in that at least one slide-in element is arranged between the carrier element and at least one of the heat sinks , which maintains and/or generates a distance between the heat sink and the carrier element.

An assembly plane of the carrier element is such an imaginary plane of the carrier element, which runs completely through the carrier element and which is spanned by a main extension plane of the carrier element.

The carrier element can, for example, also be an elongate, rod-shaped or cuboid element, the mounting plane then always being a plane which is parallel to and/or through which a main extension direction of the carrier element leads.

A heat sink within the meaning of the present invention can be one that is formed from a metal, a ceramic and/or a plastic. For this purpose, the heat sink can have corresponding cooling ribs, through which at least some of the thermal energy absorbed by the heat dissipation elements and transferred to it is dissipated, but the heat sink can also or additionally be one that has cooling channels through which a cooling fluid can be conducted is or is directed. The cooling fluid can be a liquid or a gas.

The device for cooling comprises at least one heat-generating, electronic component, at least one first heat sink, which is in thermally conductive contact with the electronic component, in particular with the inverter, the device having at least one second heat sink, which is in thermally conductive contact with the electronic component, wherein the device has at least one carrier element on and/or on which the electronic component is mounted in a mounting plane of the carrier element, the two heat sinks being in mechanical and thermally conductive contact with the carrier element via heat dissipation elements assigned to them, so that one of the electronic Component heat energy generated is dissipated from the carrier element to the two heat sinks by means of the heat dissipation elements, so that the electronic component can be cooled during operation.

Preferably, the slide-in element described here serves to prevent compression and/or crushing and/or even material breakage of the heat dissipation elements during operation of the device, so that the slide-in element, in particular, through an insertion movement that generates a flow of force that forces the carrier element away from the heat sink , generated, while on the other hand a counterforce is generated by means of a screw, plug or rivet connection, which on the other hand in turn presses the carrier element onto the heat sink. A closed power flow circuit is thus created, which guarantees a firm locking of the heat sink to the carrier element.

In at least one embodiment, such screw, rivet or plug-in connections are produced in that they connect the carrier element to the heat sink. The first, preferably however, the second base element also has corresponding projections, eyelets and/or holes for this purpose, through which screws and/or rivets can be driven in order finally to be able to be anchored with one end in the heat sink.

The insertion element can be a plate-like structure, in particular in the form of a plate, whose main plane of extension runs perpendicularly or parallel to the mounting plane.

According to at least one embodiment, the first heat sink is arranged on a first side relative to the mounting plane of the carrier element and the second heat sink is arranged on a second side of the heat sink opposite the first side.

In particular, the heat dissipation elements can form a spacer element between the electronic component and the two heat sinks. It is conceivable that the two heat sinks are not in direct mechanical contact with the electronic component. The two heat sinks are preferably in heat-dissipating contact with the electronic component, for example only via the heat-dissipating elements. The electronic component can have a mounting board with semiconductor components attached thereto, such as a computing chip.

In such a scenario, it is therefore conceivable that none or at least one of the heat sinks does not touch the heat-generating electronic component itself and is only connected to the electronic component via the heat dissipation elements.

A mechanical connection can therefore, in an exemplary embodiment, be produced exclusively via the heat dissipation elements between the individual heat sinks and the electronic component.

However, this does not necessarily mean that further stabilizing elements cannot be present between the heat sink and the electronic component, in particular for installation within a housing for the device, with such stabilizing elements strengthening the spacing of the heat sink from the electronic component.

According to at least one embodiment, the present and inventive device therefore initially comprises a first heat sink, which is in thermally conductive contact with the electronic component, in particular with the inverter, the device also having at least one second heat sink, which is in thermally conductive contact with the electronic component stands.

Preferably, both heat sinks are spatially spaced apart and positioned on different sides of the electronic component, for example on two opposite sides of a mounting board of the electronic component.

In at least one embodiment of the present invention, the first heat sink is arranged on a first side relative to the mounting plane of the carrier element and the second heat sink is arranged on a second side of the heat sink opposite the first side.

According to at least one embodiment, the heat dissipation elements lead away from the carrier element on each of the two sides and open into the respective heat sink.

If heat dissipation elements open into the first heat sink, these are heat dissipation elements of the first group within the meaning of the present application, while heat dissipation elements which open out from the carrier element into the second heat sink are associated with heat dissipation elements of the second group. The two heat dissipation elements preferably do not touch and lead away from the carrier element in different directions and thus to the preferably opposite side of the carrier element.

In at least one embodiment, the heat dissipation elements of the first and the second group are therefore not arranged in an orientation-parallel manner relative to the carrier element. If the heat dissipating elements of the first group lead away from the carrier element in a direction to the right, it is conceivable that the heat dissipating elements of the second group lead away from the carrier element in a direction to the left.

According to at least one embodiment, at least one of the heat dissipation elements is constructed in the form of a heat pipe. A heat pipe within the meaning of the invention can be a hollow structure with a preferably continuous wall, along which or within which the thermal energy is at least partially conducted from one end of the heat dissipation element to the other.

However, a “heat pipe” within the meaning of the invention can also be understood to mean an element that is elongate or curved and not only hollow, but also instead at least partially with a stable core or else is also formed with a continuous material cross section.

Therefore, a heat pipe inevitably includes not only such a preferably elongate structure which is hollow on the inside at least in places, but also one which has a completely filled inner volume. At least one of the heat dissipation elements can be formed from a metal, a plastic and/or a ceramic. However, a hybrid material is possible, such as CFRP (= carbon fiber reinforced plastic, also carbon fiber reinforced plastic (CFRP) or abbreviated (colloquially) carbon fiber, carbon or carbon, is a composite material in which carbon fibers are embedded in a plastic matrix or A GRP (= glass-fibre reinforced plastic, GRP for short) is a fiber-plastic composite made of a plastic and glass fibers. Both thermoset plastics (e.g. polyester resin [UP] or Epoxy resin) and thermoplastics (e.g. polyamide) in question.

According to at least one embodiment, a first end of the heat pipe is connected to the carrier element and a second end of the heat pipe is connected to one of the heat sinks.

A “connection” preferably refers to a mechanical connection, preferably a self-supporting connection. It is conceivable that the mechanical connection of the heat sink, in particular at least one of the heat sinks, to the carrier element represents a self-supporting connection and in this respect is a connection which does not require any further elements, in particular mechanical elements, for mechanical stabilization.

According to at least one embodiment, at least one heat pipe opens out along a curved progression line, starting from the carrier element into the heat sink.

A “curved course” is understood to mean a course of the heat pipe that deviates from a straight course within the scope of the manufacturing tolerance.

Appropriate bends are preferably introduced into the heat pipe as part of a bending or other manufacturing process. However, it is also conceivable that the heat pipe is manufactured from the ground up with such a bend. Subsequent formation of a bend in a once straight heat pipe can be omitted.

By means of the above-described curved progression, a space-saving arrangement of the heat sink together with the support element in a common housing is made possible in a particularly simple manner, so that a particularly low height requirement can be placed on the device. Housings with a particularly small volume are therefore entirely sufficient to accommodate the device there and to be able to mount it within the housing.

According to at least one embodiment, those heat pipes which are connected to the first heat sink are mounted on both sides of the carrier element. These two opposite sides thus define directions which are parallel to the mounting plane.

According to at least one embodiment, the heat dissipation elements of the first group, which are connected to the second heat sink, are preferably only mounted on one side on the carrier element and protrude from it on one side, in particular parallel to the mounting plane, in order to be able to open into the heat sink.

In this embodiment, therefore, the heat pipes are not routed away on both sides, for example within the mounting plane and relative to the mounting plane of the carrier element. This can be due to reasons of space or the fact that sufficient heat dissipation already appears to be sufficient if the heat dissipation elements are routed away from the carrier element on both sides in the direction of the first heat sink.

For example, better heat dissipation can be generated by guiding the individual heat dissipation elements away from the carrier element on both sides.

According to at least one embodiment, the carrier element has a first base element, in particular in the form of a first base plate, and a second base element, in particular in the form of a second base plate. In particular, the electronic component being arranged, for example clamped, between these base elements.

Each of the base elements can be assigned to at least one, preferably precisely one, heat sink. It is conceivable in this context that the heat dissipation elements of the first group lead away from the first base element and open into the first heat sink, while the heat dissipation elements of the second group lead away from the second base element and open out into the second heat sink.

The two base elements can be connected to one another in a detachable or non-detachable manner by means of bolts, rivets or an adhesive connection. However, the two base elements are preferably connected to one another in a detachable manner so that the heat-generating electronic component can be replaced.

The support element can be formed with a thermally conductive material.

According to at least one embodiment, the insertion element has at least two openings into which corresponding holding elements of the carrier move during the insertion process, in particular the insertion process only having an insertion direction parallel to the assembly plane.

According to at least one embodiment, the device is characterized in that the openings in the slide-in element have different opening cross-sections along the main extension direction of the slide-in element, so that each is assigned to one, preferably precisely one, holding element.

According to at least one embodiment, the respective association consists in the fact that a holding element snaps into place with a precise fit in the opening associated with this holding element.

According to at least one embodiment, the openings together with the holding elements create a key-lock principle.

According to at least one embodiment, the openings only partially pass through a cross-sectional thickness of the insert element, so that the openings are different from an opening hole.

According to at least one embodiment, the openings are made in the slide-in element from one side of the slide-in element, in particular with the openings running in an opening rail of the slide-in element.

In accordance with at least one further embodiment, the opening rail is a material recess in the slide-in element and extends along the main extension direction of the slide-in element.

According to at least one embodiment, the longitudinal cross-sections of the openings increase or decrease along the main direction of extent of the slide-in element, beginning with a slide-in holding element.

Furthermore, the present invention relates to a slide-in element for mechanically fixed locking of a heat sink relative to an electronic component in a device according to claim 1.

The method described here has the same advantages and advantageous configurations as the device described above. In this respect, a method for using and in particular an operating method for operating a corresponding device as claimed and shown above can also be disclosed here.

The present invention is described in more detail below using an exemplary embodiment and the corresponding figures.

• 1A in einer schematisch perspektivischen Ansicht ein Ausführungsbeispiel einer hier beschriebenen Vorrichtung zum Kühlen, während die
• 1B die in der 1A gezeigte Vorrichtung in einer weiteren schematisch perspektivischen Ansicht zeigt.
• In der 1C ist in einer Explosionsdarstellung die in den 1A und 1B dargestellte Vorrichtung nochmals dargestellt.
• In der 1D ist in einer schematischen Seitenansicht die in den vorgenannten Figuren dargestellte Vorrichtung gezeigt.
• In der 1E ist eine Explosionsdarstellung der in den oben genannten Figuren vorhandenen beidseitigen Befestigungsmechanismus.
• In der 1F ist ein Befestigungsmechanismus mittels der Wärmeableitelemente dargestellt, wie diese ebenso bereits in den vorgenannten Figuren gezeigt sind.
• Die 2A und 2B zeigen in verschiedenen perspektivischen Ansichten ein hier dargestellten erfindungsgemäßes Einschubelement.

The

• 1A in a schematic perspective view an embodiment of a device for cooling described here, while the
• 1B the one in the 1A shows the device shown in a further schematic perspective view.
• In the 1C is in an exploded view in the 1A and 1B shown device shown again.
• In the 1D is shown in a schematic side view of the device shown in the aforementioned figures.
• In the 1E Figure 12 is an exploded view of the bilateral attachment mechanism shown in the above Figures.
• In the 1F a fastening mechanism is shown by means of the heat dissipation elements, as these are also already shown in the aforementioned figures.
• the 2A and 2 B show a slide-in element according to the invention shown here in various perspective views.

All elements shown in the figures are represented with reference numbers, even if individual elements may be exaggerated, the elements always correspond to the same reference numbers as shown in more detail in the figures.

In the 1A An exemplary embodiment of a device 1000 described here for cooling at least one heat-generating electronic component 10 is shown in a schematic perspective view.

It can be seen that the device 1000 has at least one first heat sink 1 which is in thermally conductive contact with the electronic component 10 . In particular, it can also be seen that device 1000 has at least one second heat sink 2, which is in thermally conductive contact with electronic component 10, wherein device 1000 also has a carrier element 3, on which electronic component 10 is mounted in a mounting plane MX of the Carrier element 3 is mounted, with the two heat sinks 1, 2 being in mechanical contact and thermally conductive contact with the carrier element 3 via heat dissipation elements 4 assigned to them, so that thermal energy generated by the electronic component 10 is transferred from the carrier element to the two heat sinks 1, 2 by means of the heat dissipation elements 4 is dissipated, so that the electronic component 10 can be cooled during its operation.

Can be recognized from the 1A that the first heat sink 1 is arranged on a first side 1S relative to the mounting plane MX of the carrier element 3 and the second heat sink 2 is arranged on a second side 2S of the heat sink 2 opposite the first side 1S.

The heat dissipation elements 4 are led away from the carrier element 3 on each of the two sides 1S, 2S and open into the respective heat sinks 1, 2.

The heat dissipation elements 4 are each constructed in the form of heat pipes 41 and each have at least one curvature along their course.

A first end 410 of the heat pipe 41 is connected to the carrier element 3 and a second end 411 of the heat pipe 41 is connected to one of the heat sinks 1, 2. It can be seen that the carrier element 3 has a first base element 31 and a second base element 32 , with the electronic component 10 being arranged between the two base elements 31 , 32 .

In the present exemplary embodiment, the first base element 31 forms a one-piece component, i.e. a component which is free of interruptions and/or gaps, while the second component 32 corresponds to fitting pieces which are also arranged separately from one another along the mounting plane MX on corresponding mounting surfaces the first component 31 are arranged.

In particular, in the 1A the second base member 32 is formed by three fitting pieces to which corresponding recesses and/or fittings in the first base member 31 are fitted. Screws passed through the carrier element 3 or other mechanical binding means 35 screw the first base element 31 to the first and/or second heat sink 1, 2, so that the component 10 is clamped between the two base elements 31, 32 as a result of this screw connection.

Furthermore, it can be seen that the heat dissipation elements 4 in the form of heat pipes 41 are led away from the base element 32 on both sides (the other side of the second base element 32 is shown schematically in perspective in FIG 1A only partially recognizable and thus covered). In any case, it can be seen that the heat pipes 41, which lead to the second heat sink 2, open into the first base element 31 and are also preferably pressed onto the base element 31 by means of a press fit.

The heat dissipation elements 4 of the second group are therefore guided only on one side from the carrier element 3 into the second heat sink 2, with routing on both sides being conceivable just as in the case of the first heat sink 1.

The two-sided routing of the heat pipes 41 of the first group is particularly catchy in the 1B recognizable, the individual second ends 411 of the heat pipes 41 protruding in the same direction away from the carrier element 3 .

However, as well as from both the 1A as well as from the 1B can be seen, for the mechanical positioning of the carrier element 3 relative to the first heat sink 1, a rod-shaped insertion element 5 is shown in the present exemplary embodiment, which maintains and also creates a distance between the heat sink 1 and the carrier element 3, preferably namely by means of the insertion movement, more preferably solely by the insertion movement causes the carrier element 3 to be pushed away from the first heat sink 1 .

By means of suitable screw connections, in particular as by the screw, rivet or other connecting means 35 according to the 1A and 1B is shown, a closed force effect circuit can be generated, which ultimately leads to mechanical stabilization of the entire system and in particular a position of the carrier element 3 relative to at least one of the heat sinks, preferably to at least the two heat sinks 1, 2.

In the 1C is an exploded view of the in the 1A and 1B shown device 1000 shown again, in this case from particular The individual recesses 310 of the first base element 31, into which the base elements 32 can also be inserted, are shown in a suitable perspective view.

A corresponding attachment is in particular by means of the 1C shown pin-like elements 360 recognizable. More preferably, the pin-like elements 360 are present either for fastening the individual base elements 31, 32 to one another and/or for fastening the electronic component 10 to the first base element 31. The electronic component 10 can therefore be plugged onto the pin-like elements 360 shown there in a particularly simple manner.

In the 1D is in a schematic side view in the 1A until 1C Device 1000 shown is shown again and in particular this side view shows how the heat dissipating elements 4 of the second group are guided away on both sides relative to the mounting plane MX, with the heat dissipating elements 4 of the first group being guided away from the first base element 31 on one side. In the 2 B is an exploded view of the two-sided fastening mechanism present in the above-mentioned figures, with the second base element 32 clamping the U-shaped heat dissipation elements 4 from one side and part of the first base element 31 from the other side, and thus the above-mentioned locking mechanism in particular is simply made.

In the 1E is an exploded view of the two-sided fastening mechanism present in the above-mentioned figures, with the second base element 32 clamping the U-shaped heat dissipation elements 4 from one side and part of the first base element 31 from the other side, and thus the above-mentioned locking mechanism in particular is simply made.

In the 1F 1 shows the one-sided routing of the heat dissipation elements 4 of the first group from the first base element 31, as mentioned and also shown in the above-mentioned figures, with a corresponding pinching also taking place here by means of further pinching elements. The pin-like fastening means 350 shown above are also shown accordingly.

the 2A and 2 B show a slide-in element according to the invention shown here in various perspective views. The slide-in element 5 has a slide-in holding element 512 at one end, which enables manual insertion of the slide-in element 2 between the carrier element 3 and the first heat sink.

In particular, in the 2A and 2 B recognizable that the insertion element 5 has at least two openings 51, into which corresponding holding elements 33 of the carrier 3 move during the insertion process, in particular the insertion process exclusively having an insertion direction parallel to the assembly plane MX. In particular, in the 2A and 2 B the slide-in element 5 is not yet shown for reasons of simplification, but it can be inserted between the base element 32 and the first heat sink 1 . A main extension plane of the slide-in element 5 then runs perpendicularly to the assembly plane MX.

The invention is not limited by the description based on the exemplary embodiments, rather the invention covers every new feature and every combination of features, which in particular includes every combination of features in the patent claims, even if this feature or this combination itself is not explicitly stated in the patent claims or is indicated in the exemplary embodiments.

Reference List

1

heatsink

2

heatsink

3

carrier element

4

heatsinks

5

slide-in element

10

component

31

first base element

32

second base element

33

holding element

35

binding agent

51

openings

510

opening rail

510A

material recess

512

slide-in holding element

310

recesses

350

pin-type fastener

360

pen-like elements

41

heat pipes

410

first end of the heat pipe

411

second end of the heat pipe

1000

contraption

1S

first page

2S

second page

MX

mounting level

R1

main extension direction

Claims (10)

Device (1000) for cooling at least one heat-generating electronic component (10), comprising - at least one first heat sink (1), which is in heat-dissipating contact with the electronic component (10), - at least one second heat sink (2), which in is in heat-dissipating contact with the electronic component (10), - at least one carrier element (3) on and/or on which the electronic component (10) is mounted in a mounting plane (MX) of the carrier element (3), the two heat sinks ( 1,2) are in mechanical and heat-dissipating contact with the carrier element (3) via heat dissipation elements (4) assigned to them, so that thermal energy generated by the electronic component (10) is transferred from the carrier element (3) to the two heat sinks (1,2 ) is derived by means of the heat dissipation elements (4), so that the electronic component (10) can be cooled during operation, - characterized in that between the carrier element (3) and at least one the heat sink (1, 2) has at least one insertion element (5) which maintains and/or creates a spacing between the heat sink (1, 2) and the carrier element (3). Device (1000) after claim 1 , characterized in that the insertion element (5) has at least two openings (51) into which corresponding holding elements (33) of the carrier element (3) move during the insertion process. Device (1000) after claim 2 , characterized in that the openings (51) in the insertion element (5) along a main extension direction (R1) of the insertion element (5) have different opening cross sections, so that each opening (51) is associated with a holding element (33). Apparatus (1000) according to any one of the preceding claims 2 until 3 , characterized in that the respective association consists in the fact that a holding element (33) engages with a precise fit in the opening (51) associated with this holding element (33). Device (1000) according to the preceding claim, characterized in that the openings (51) together with the holding elements (33) produce a key-lock principle. Apparatus (1000) according to any one of the preceding claims 2 until 5 , characterized in that the openings (51) only partially pass through a cross-sectional thickness of the insert element (5), so that the openings (51) are different from an opening hole. Device (1000) according to the preceding claim, characterized in that the openings (51) are made in the insert element (5) from one side of the insert element (5), the openings (51) being in an opening rail (510) of the insert element (5) run. Device (1000) after claim 7 , characterized in that the opening rail (510) is a material recess (510A) in the slide-in element (5), and the opening rail (510) extends along the main extension direction (R1) of the slide-in element (5). Device (1000) after claim 3 , characterized in that the longitudinal cross sections of the openings (51) increase or decrease along the main extension direction (R1) of the insertion element (5) starting from an insertion holding element (512). Insertion element (5) for mechanically fixed locking of a heat sink (1, 2) relative to an electronic component (10) in a device (1000) according to one of the preceding ones claims 2 until 9 , wherein the openings (51) together with the holding elements (33) produce a key-lock principle.

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