FR3061878A1 - FRONT FACE AIR ENTRY SHUTTERING DEVICE OF MOTOR VEHICLE - Google Patents

Abstract

The present invention relates to a shutter device (1) for front air intake of a motor vehicle, comprising: a support frame (5) in which is installed at least one set of flaps (3) pivoting around pivot axes (A), ○ at least one control element (13) arranged in a housing (20) of the support frame (5) and configured to control the positioning of the flaps (3), said control element (13) comprising At least one control member (7) connected to the flaps (3), the at least one control member (7) being mounted within the housing (20) by a first sliding connection disposed between a side wall (22) said housing (20) and said control member (7).

Description

@ Holder (s): VALEO THERMAL SYSTEMS Simplified joint-stock company.

® Agent (s): VALEO SYSTEMES THERMIQUESTHS.

© FRONT AIR INLET SHUTTERING DEVICE OF MOTOR VEHICLE.

FR 3,061,878 - A1 yÿj The present invention relates to a closure device (1) for air intake on the front face of a motor vehicle, comprising:

O a support frame (5) in which is installed at least one set of flaps (3) pivoting around pivot axes (A),

O at least one control element (13) disposed in a housing (20) of the support frame (5) and configured to control the positioning of the flaps (3), said control element (13) comprising:

at least one control member (7) connected to the flaps (3), the at least one control member (7) being mounted within the housing (20) by a first slide link disposed between a side wall (22) of said housing (20) and said control member (7).

The present invention relates to shutter devices and more specifically to a shutter device for air intake on the front face of a motor vehicle as well as its manufacturing process.

The front sides of motor vehicles are generally composed of two main air inlets called the upper track and the lower track. These air intakes are generally separated by a bumper beam. Behind this bumper beam are placed the heat exchangers of the motor vehicle, such as that used for air conditioning the passenger compartment and / or that used for cooling the engine.

It is also known to have, in the air path passing through the main air inlets, more generally the low track, a support frame comprising a multitude of flaps mounted pivoting about parallel axes and suitable for taking a multitude of different angular positions, between an open position and a closed position, under the action of appropriate control means.

A obturation device is thus obtained, similar to a jealousy which makes it possible to adjust the air flow rate passing through the air inlets and arriving at the heat exchangers. It is thus possible to optimize the efficiency of these heat exchangers as required and by varying the amount of air they receive. In addition, at high speed, the flaps in the closed position reduce the drag coefficient of the vehicle and thus improve the aerodynamics of said vehicle.

The flaps are pivoted under the action of a control element which has a translational movement perpendicular to the axis of rotation of the flaps. This control element is driven by a lever rotated by an actuator. Due to its connection with the flaps as well as with the lever which are rotary elements, the translational movement of the control element has a movement in an arc of a circle which induces a depth shift of said control element during its translation. This offset forces the shutter devices to have a certain depth to operate and therefore take up an important place within the motor vehicle.

One of the aims of the present invention is therefore to at least partially remedy the drawbacks of the prior art and to propose an improved shutter device as well as its manufacturing process.

The present invention therefore relates to a shutter device for air inlet of the front face of a motor vehicle, comprising:

• a support frame in which is installed at least one set of pivoting flaps around pivot axes between a closed position and an open position, • at least one control element arranged in a housing of the support frame and configured to control the positioning of the flaps, said control element comprising:

at least one control member connected to the flaps, the at least one control member being mounted within the housing by a first slide link disposed between a side wall of said housing and said control member.

Said control element further comprises at least one control member connected to the flaps, an actuator, and a lever connected on the one hand to the actuator and on the other hand to the control member so as to be able to pivot the shutters.

According to one aspect of the invention, the side wall is an internal wall of said housing.

According to one aspect of the invention, said first slide link is configured to limit the vertical and lateral movements of the control member.

According to one aspect of the invention, the first slide link comprises:

° at least one rail arranged on the internal lateral wall of the housing, and ° at least one lug arranged on the control member and engaging on the rail so as to restrict the lateral movements of the control member, ° au minus a counter rail parallel to the rail and configured to restrict the vertical movements of the control member.

According to another aspect of the invention, the post has a hook-shaped section, the end of which slides in the rail.

According to another aspect of the invention, the housing comprises two rails aligned and separated by a spacing, and the control member comprises two separate studs.

According to another aspect of the invention, the control member comprises a first oblong housing whose major axis is oriented perpendicular to the first slide link and intended to receive a lever connected on the one hand to an actuator and on the other hand to the control member so that the flaps can be pivoted.

According to another aspect of the invention, the control member comprises at least one set of second oblong housings whose major axes are oriented perpendicular to the first slide link and intended to be connected to the flaps.

According to another aspect of the invention, the control member comprises a second slide link with a cover intended to cover the housing.

According to another aspect of the invention, the second slide link has a groove parallel to the first slide link arranged on the control member and intended to receive a stud arranged on the internal wall of the cover.

Other characteristics and advantages of the invention will appear more clearly on reading the following description, given by way of illustrative and nonlimiting example, and the appended drawings among which:

• Figure 1 shows a schematic front perspective view of a shutter device in the closed position, • Figure 2 shows a schematic exploded perspective view of a shutter device, • Figure 3 shows a schematic perspective representation of the connection between a set of flaps and a control member, • Figure 4 shows a schematic perspective view of a control member, • Figures 5 and 6 show a partial schematic perspective view of a support frame and its housing, • Figure 7 shows a schematic perspective representation of an actuator, • Figure 8 shows a partial schematic representation of the attachment of an actuator according to a first embodiment, • the Figure 9 shows a schematic perspective representation of the attachment of an actuator according to a second embodiment ation, • Figures 10 and 11 show a partial schematic representation in perspective of a support frame and the fixing of the flaps, • Figures 12 to 15 show a schematic representation in perspective of a closure device according to different stages of its manufacturing process.

Identical elements in the different figures have the same references.

The following embodiments are examples. Although the description refers to one or more embodiments, this does not necessarily mean that each reference relates to the same embodiment, or that the characteristics apply only to a single embodiment. Simple features of different embodiments can also be combined or interchanged to provide other embodiments.

In the present description, it is possible to index certain elements or parameters, such as for example first element or second element as well as first parameter and second parameter or even first criterion and second criterion etc. In this case, it is a simple indexing to differentiate and name elements or parameters or criteria that are similar but not identical. This indexing does not imply a priority of an element, parameter or criterion over another and one can easily interchange such names without departing from the scope of this description. This indexing does not imply an order in time for example to assess such or such criteria.

In FIGS. 1 to 6 and 12 to 15, an XYZ trihedron shows the orientation of the different parts, in particular when they are mounted on a motor vehicle. The axes of this trihedron can thus correspond to the different orientations of the motor vehicle. The X axis can thus correspond to the length of the vehicle, the vector X indicating the front of the vehicle. The Y axis can correspond to the width of the vehicle and the Z axis to its height.

Figure 1 shows a schematic perspective representation of a shutter device 1 in the shutter position. This FIG. 1 shows more precisely the external face of the shutter device 1, that is to say the face directed towards the outside of the motor vehicle when the shutter device 1 is assembled on the vehicle. The shutter device 1 is arranged on the front face of the motor vehicle, in front of heat exchangers such as a radiator, or other exchangers such as, for example, a charge air cooler, a condenser of a circuit. air conditioning.

The shutter device 1 comprises a support frame 5 comprising in particular two longitudinal crosspieces 5a, extending parallel to the axis Y of the trihedron, and at least two lateral uprights 5b, extending parallel to the axis Z of the trihedron, and connecting the longitudinal crosspieces 5a. The support frame 5 is made for example of plastic. The two longitudinal crosspieces 5a and the at least two lateral uprights 5b are thus molded. In order to improve the rigidity of the support frame 5, the latter can be molded in one piece. The support frame 5 comprises in particular a front face, that is to say which is oriented towards the front of the motor vehicle, according to the vector X of the trihedron, and a rear face, that is to say which is oriented towards the rear of the motor vehicle, contrary to the vector X of the trihedron.

Within the support frame 5 is installed a plurality of flaps 3, the latter form rows of flaps 3 parallel to each other and form sets 3a, 3b and 3c of flaps 3. The shutter device 1 also comprises a control element 13 configured to control the rotation of the flap or flaps 3 about a pivot axis A, between an open position, where the flaps 3 are positioned so that an air flow can pass through the shutter device 1 , in particular inside the support frame 5, and a shutter position illustrated in FIG. 1, where the flaps 3 are positioned so that an air flow cannot pass through the shutter device 1. L the control element 13 can be arranged on one side of the closure device 1 at a lateral upright 5b or even between two sets of flaps 3 as illustrated in FIG. 1.

FIG. 1 more specifically shows a shutter device 1 comprising three sets 3a, 3b and 3c of flaps 3.

As shown in FIG. 2 which is an exploded schematic representation of a shutter device 1, the control element 13 notably comprises at least one control member 7 connected to the flaps 3, an actuator 9, and a lever 11 connected on the one hand to the actuator 9 and on the other hand to the control member 7 so as to be able to pivot the flaps 3.

The support frame 5 comprises a housing 20 in which the control element 13 and all of its elements is arranged. The housing 20 has an opening on the front face of the support frame 5. The housing 20 is blind, that is to say that it has a bottom on the rear face of the support frame 5. A cover 30 covers the opening of the housing 20 on the front face of the support frame 5 in order to protect the control element

13.

The fact that the housing 20 has an opening on the front face of the support frame 5 firstly allows easier access to the control element 13, in particular in the case of repair or maintenance. The actuator 9, the lever 11 and the control member 7 are thus directly accessible from the front of the vehicle, which avoids having to completely remove the shutter device 1 from the motor vehicle in order to be able to access it.

The opening of the housing 20 is in particular sufficient to be able to install and remove all of the elements of the control element 13.

The support frame 5 also comprises at least two parallel rows of bearings 51 for engaging the pivot axes A of flaps 3. These rows of bearings 51 are arranged on the support frame 5 so as to receive the pivot axes A of flaps 3 A row of bearings 51 is arranged on either side of each set of flaps 3. More particularly, these rows of bearings 51 are parallel to the axis Z of the trihedron and arranged on the front face of the support frame 5.

The fact that the bearings 51 are arranged on the front face of the support frame 5 thus makes it possible to mount the flaps 3 from the front of the support frame 5. As with the elements present in the housing 20, the flaps 3 are thus directly accessible from the front of the vehicle which avoids having to completely remove the shutter device 1 from the motor vehicle in order to be able to access it, in particular in the case of repair or maintenance. In addition, when the motor vehicle is in motion, the flaps 3 are pressed against the support frame 5 and therefore their attachment to the latter need less be strong enough to withstand the pressure exerted by the air.

FIG. 3 shows in more detail the connection between the flaps 3 and the control member 7. The flaps 3 each have a control arm 39, perpendicular to their pivot axis A and carrying a connection axis B allowing the connection between said control arm 39 and the control member 7. The control arm 39 generally comes integrally with the flaps 3.

The flaps 3 can each pivot about their pivot axis A defined by their connection with the support frame 5 at the bearings 51. The connecting axes B between the flaps 3 and the control member 7 are eccentric relative to the axes pivoting A so that a translational movement, parallel to the axis Z of the trihedron, of the control member 7, under the action of the actuator 9, causes the flaps 3 to pivot about their axes of respective pivoting A and therefore the passage of said flaps 3 from one position to another.

All the flaps 3 being connected to the same control member 7, the passage from an open position to a closed position is synchronous for all the flaps 3.

As illustrated in Figures 3 and 4, the control member 7 comprises on a first face 7a (visible in Figure 3), a first oblong housing 73 whose major axis is oriented parallel to the axis X and perpendicular to the movement of the control member 7. This first face 7a is intended to be oriented towards the inside of the housing 20 and this first oblong housing 73 is intended to receive a pin 11a of the lever 11. This first oblong housing 73 is notably arranged on a face of the control member 7 opposite its face in connection with the flaps 3. The first oblong housing 73 can in particular be opened on one of its short sides in order to facilitate the mounting and insertion of the lever 11 in the first oblong housing 73.

The fact that the first oblong housing 73 has this oblong shape allows conversion and transmission of the rotary movement of the lever 11 into a rectilinear translational movement of the control member 7 without there being any displacement in depth (according to the axis X) of the control member 7. During the translation of the control member 7, the lever 11 can thus move in the first oblong housing 73 along its major axis and cause the control member to translate 7 .

The control member 7 may also include on a second face 7b (visible in FIG. 4) at least one second oblong housing 74 whose major axis is also oriented perpendicular to the first slide link. This second face 7b is intended to be oriented towards the outside of the housing 20 in the direction of the flaps 3. The second oblong housings 74 are intended to be connected to a flap 3, more precisely to its connecting axis B. These second oblong housings 74 can in particular be opened on one of their short sides in order to facilitate the mounting and insertion of the connecting pins B. During the translation of the control member 7, the connecting axes B of the flaps 3 can thus move in the second oblong housings 74 along their major axes and transform the rectilinear movement of translation of the control member 7 into a rotary movement of the control arm 39 around the axis of rotation A and thus rotate the flaps 3.

All the flaps 3 are connected to the same control member 7, the passage from an open position to a closed position is synchronous for all the flaps 3. In FIGS. 2 to 4, the example of a control 7 is a simple control member 7 which controls only a set of flaps 3 disposed on one side of the control element 13. In the event that a set of flaps 3 is present on either side of the control element 13 as in FIG. 1, the control member 7 may have a U-shaped section (not shown) with second oblong housings 74 arranged on the two branches of the U in order to control the two sets of flaps 3 simultaneously. A cross member connects the two branches of the U and allows a synchronous movement to be transmitted to the two sets of flaps 3. In addition, this U-shaped section makes it possible to overcome the actuator 9 and the lever 11 which are arranged in the housing 20 between the branches of the U.

As illustrated in FIGS. 5 and 6, the control member 7 is mounted within the housing 20 by a first slide link, produced between an internal side wall 22 of said housing 20 and said control member 7. By internal side wall 22, it is understood here that the face of the side wall 22 of the housing 20 carrying the first slide connection is one of its internal faces located in the plane formed by the axes X and Z, located inside the housing 22. This first slide connection is configured to limit the depth (along the X axis) and lateral (along the Y axis) movements of the control member 7 and to guide it in its translational movements (along the Z axis).

The first slide link comprises at least one lug 71 disposed on the control member 7 (visible in FIGS. 3 and 4) and engaging on at least one rail 21 (visible in FIG. 5) disposed on the side walls 22 of the housing 20, so as to restrict the lateral movements (along the Y axis) of the control member 7 and guide its translation (along the Z axis). It is nevertheless quite possible to imagine, without departing from the scope of the invention, a reverse arrangement where the rail 21 is disposed on the control member 7 and where the at least one stud 71 is disposed on the wall lateral 22 internal.

In the example presented in FIGS. 3 to 6, the slide connection comprises two tenons 71, each tenon 71 being in connection with a dedicated rail 21. The rails 21 are aligned and separated by a spacing. The pins 71 are also separated for good stability and better guidance of the control member 7.

The first slide link also includes at least one counter-rail 25 parallel to the rail 21 and configured to restrict vertical movements (along the X axis) of the control member 7. The counter-rail 25 can be placed on the same element that a stud 71, here the control member 7, as illustrated in FIGS. 3 and 4. In this case, the rail 21 is then wedged between the stud 71 and the counter-rail 25. However, it is entirely it is possible to imagine another case where the counter-rail 25 can be placed on the same element as a rail 21. In this case, the lug 71 is then placed between the rail 21 and the counter-rail 25.

The tenon 71 preferably has a hook-shaped section, disposed on a side of the control member 7 or on the internal side wall 22 as the case may be, and the end of which slides in the rail 21.

In the case described above and illustrated in Figures 3 to 6 where the control member 7 comprises two pins 71 and a counter rail 25, and where the housing 20 comprises two rails 21 aligned and separated, the establishment of said control member 7 can be carried out according to the following steps:

• firstly the control member 7 is placed in the housing 20 in a so-called extreme position where the pins 71 are aligned with the ends of the rails 21, • secondly, the control member is translated so as to slide the pins 71 against the rails 21. The rails 21 are then placed between the pins 71 and the counter rail 21.

In operation, the translational travel (along the Z axis) of the control member 7 driven by the actuator 9, is less than the length of the rails 21 which prevents it from coming out of said rails 21.

The control member 7 may also include a second slide link with the cover 30 intended to cover the housing 20. This second slide link makes it possible to strengthen the guide of the control member 7 and to restrict its lateral movements (according to the Y axis).

This second slide connection may in particular comprise a groove 77, parallel to the first connection, intended to receive a stud. In the example presented in Figures 3 and 4, the groove 77 of the second slide connection is arranged on the control member 7 and the lug (not shown) is in turn disposed on the cover 30, more precisely on its face internal, that is to say on its face which covers the housing 20.

Such a connection between the control member 7 and the support frame 5 within the control element 13 can be produced both in the context of a control element 13 comprising a housing 20 having its opening on the front face of the support frame 5 as described here, but also for any other type of control element 13.

Such a control member 7 constantly keeps a rectilinear translational movement which makes it possible to make a control element 13 as shallow as possible (along the axis X of the trihedron).

The actuator 9, illustrated in more detail in FIG. 7, can be electric, such as for example an electric motor. The actuator 9 applies a translational movement to the control member 7 by means of the lever 11. This translation takes place along the axis Z of the trihedron. The actuator 9 can more particularly comprise an electrical supply plug 91 as well as a coupling orifice 92 with the lever 11. This coupling orifice 92 makes it possible in particular to rotate the lever 11.

According to a first embodiment, the actuator 9 can be fixed inside the housing 20. This first embodiment is illustrated in FIG. 8 which shows the rear of the housing 20 and more precisely the rear face of its bottom 29 The rear of the housing 20 comprises at least two first orifices 23, arranged on a plane perpendicular to the plane formed by the axes Y and Z of the trihedron. The actuator 9 has at least two second orifices 93 for fasteners (visible in FIG. 7) and intended to come opposite the first orifices 23. The actuator is fixed by insertion from the outside of the housing 20, of a bar 40 comprising at least two rods 41 which pass through the first 23 and second 93 orifices.

The housing 20 may in particular comprise on the external face of its bottom 29 a cavity 24 intended to receive the bar 40 for better integration. This cavity 24 may also comprise on the internal face of the bottom 29 of the housing 20, a recess 26 (visible in negative in FIG. 8) carrying the at least two first orifices 23 and into which the actuator 9 is inserted so that the first 23 and second 93 orifices are opposite one another.

The bar 40 can also be connected to the external wall of the housing 20 and more precisely to the external face of the bottom of the housing 20 by an elastic deformation fixing 44 in order to block the movements in translation of said bar 40.

It is nevertheless quite possible to imagine other means of fixing the actuator 9 in the housing 20. The use of a bar 40 nevertheless allows rapid assembly as well as easy disassembly if necessary.

According to a second embodiment illustrated in FIG. 9, the actuator 9 can be fixed on the internal face of the cover 30. The fixing of the actuator 9 to the cover 30 can be carried out by any type of fixing for example by gluing, interlocking or by means of screws or rivets.

The cover 30 can for its part be fixed to the support frame 5 above the opening of the housing 20 by an elastic interlocking fixing, for example by means of lugs 55 which fit into holes 39 (visible on the Figures 10 and 11) dedicated to the cover 30. Such a "weak" attachment is possible because the opening of the housing 20 and the cover 30 are arranged on the front face of the support frame 5. Thus, when the vehicle is running , the air pressure presses the cover 30 against the support frame 5 which reduces the fixing stresses.

It is nevertheless quite possible to imagine any other means of fixing, for example by means of screws or rivets.

The cover 30 can also cover a row of bearings 51. Therefore, when the flaps 3 are installed and the pivot axes A are inserted in the bearings 51, the cover 30 can hold one end of the flaps 3.

In order to maintain the flaps 3 in the bearings 51 at the level of the lateral uprights 5b of the support frame 5, in particular at the level of the bearings not covered by the cover 30, the shutter device 1 may comprise at least one blocking element 60, as illustrated in FIGS. 2, 10 and 11. This blocking element 60 covers a row of bearings 51 and maintains the pivot axes A of flaps 3 in said bearings 51.

The blocking element 60 can thus be a rigid strip fixed on the support frame 5. For this fixing to the support frame, the blocking element 60 can comprise at least one connecting member 61 projecting from said blocking element 60. This connecting member 61 more particularly comprises a base connecting it to said blocking element 60 and a head of width greater than said base. Preferably, the connecting member 61 has a general T shape.

In a complementary manner, the lateral upright 5b comprises, on its face comprising the at least one row of bearings 51, at least one groove 52 opening onto an external side of said lateral upright 5b. This groove 52 is of complementary shape to the connecting member 61. As illustrated in FIG. 11, the connecting members 61 are inserted in the grooves 52 to maintain the flaps 3.

The locking element 60 is preferably fixed to the support frame 5 comprising the row of bearings 51 so that it does not disengage from the grooves 52. This fixing can be carried out by a fixing with elastic interlocking. This elastic interlocking attachment may in particular comprise an elastic tongue 70, a first end of which has a tip protruding towards the outside of the support frame 5 and a second end of which is connected to said support frame 5. This tip is intended to be inserted in an opening 62 formed in the blocking element 60. This endpiece more particularly comprises a chamfer allowing the assembly by translation of the blocking element 60 on the lateral upright 5b by deforming the elastic tongue 70 until insertion of the end-piece into the opening 62. The end-piece also has a flat surface, opposite the chamfer and which obstructs in translation the disassembly of the blocking element 60 of the lateral upright.

It is also quite possible to imagine a fixing with reverse elastic fitting where the elastic tongue 70 and its end piece are arranged on the locking element 60 and where the end piece is intended to be inserted in an opening formed in the support frame 5.

The positioning of the blocking element 60 is carried out after the installation of the flaps 3 on the support frame 5. This positioning consists first of all in placing the at least one connecting member 61 of the blocking element 60 with the at least one groove 52 of the support frame 5. Next, the blocking element 60 is translated so that the at least one connecting member 61 is inserted into the at least one groove 52 and so that the blocking element 60 covers the row of bearings 51.

Such fixing of the flaps 3 by means of such a blocking element 60 allows a simplified and rapid mounting of the shutter device 1 because it does not require the use of specific tools to ensure the maintenance of the flaps 3 in the bearings 51.

Furthermore, such a fixing remains reversible without damaging the support frame 5, the flaps 3 or the blocking element 60 itself. This is advantageous in the event of repair to be carried out on the closure device 1.

Such fixing of the flaps 3 can be carried out both in the context of a shutter device 1, the at least one row of bearings 51 of which is produced on the front face of the support frame 5 as described here, but also for any other type of sealing device 1.

As illustrated in Figures 2, 3, and 10, the flaps 3 may have flanges 35 at their ends. In a complementary manner, the blocking element 60 may when it has semi-spherical cheeks 65 covering the flanges 35 of the flaps 3, more particularly at the ends and of the pivot axes A of the flaps 3 than said blocking element 60 maintenance. Likewise, the cover 30 can also have semi-spherical cheeks 36 covering the flanges 35 of the flaps 3, more particularly at the ends and of the pivot axes A of the flaps 3 that said cover covers. These flanges 35 and these semi-spherical cheeks 65, 36 form a protective barrier which reduces the amount of dust and debris which could arrive at the bearings 51 and inside the housing 20 and which could seize the pivoting of the flaps 3 .

The present invention also relates to a method of manufacturing a shutter device 1 for air inlet of the front face of a motor vehicle as described above.

According to a first embodiment of this manufacturing process, the process comprises in particular:

• a first step, illustrated in FIG. 12, of installing the at least one control member 7 in the housing 20 by its opening on the front face, • a second step, illustrated in FIG. 13, of fixing the actuator 9 provided with the lever 11 in the housing 20, and for setting up the connection between the lever 11 and the control member 7. In this second step, it is important that the actuator 9 and the lever 9 are assembled with each other beforehand to allow easy mounting without difficult handling, • a third step, illustrated in FIG. 14, of installation of the flaps 3 in the bearings 51 and of setting up of the connection between the flaps 3 and the control member 7, at the level of the control arms 39, and • a fourth step, illustrated in FIG. 15, of fixing the flaps 3 by:

° installation and fixing of the cover 30 on the support frame 5 so as to close the housing, and ° installation and fixing of the at least one blocking element 60.

According to a second embodiment of this manufacturing process, the process comprises in particular:

• a first step, illustrated in FIG. 12, of installing the at least one control member 7 in the housing 20 by its opening on the front face, • a second step, illustrated in FIG. 14, of installing the flaps 3 in the bearings 51 and setting up the connection between the flaps 3 and the control member 7, at the level of the control arms 39, and • a third step for fixing the flaps 3 comprising:

• a first sub-step for fixing on the internal face of the cover 30 of the actuator 9 provided with the lever 11 as illustrated in FIG. 9, • a second sub-step for setting up and fixing the cover 30 on the frame support 5 so as to close the housing 20 and so that the connection between the lever 11 and the control member 7 can be achieved, and • a third sub-step of positioning and fixing the at least one element of blocking 60.

Thus, it is clear that due to the slide connection between the control element 7 and the support frame 5, the depth offset during the translation of said control element 7 is absent. It is thus possible to obtain a deeper shutter device 10 and therefore taking up less space within the motor vehicle, in particular on the front face.

Claims (10)

1. Sealing device (1) for air intake on the front face of a motor vehicle, comprising: ° a support frame (5) in which is installed at least one set of flaps (3) pivoting about pivot axes (A) between a closed position and an open position, ° at least one control element (13) disposed in a housing (20) of the support frame (5) and configured to control the positioning of the flaps (3), said control element (13) comprising: at least one control member (7) connected to the flaps (3), characterized in that the at least one control member (7) is mounted within the housing (20) by a first slide link disposed between a side wall ( 22) of said housing (20) and said control member (7). 2. Sealing device (1) according to the preceding claim, wherein the side wall (22) is an internal wall of said housing (20). 3. Sealing device (1) according to one of the preceding claims, in which said first slide connection is configured to limit the vertical and lateral movements of the control member (7). 4. Sealing device (1) according to claim 3 dependent on the 2, characterized in that the first slide connection comprises: ° at least one rail (21) disposed on the internal side wall (22) of the housing (20), and ° at least one lug (71) disposed on the control member (7) and engaging on the rail ( 21) so as to restrict the lateral movements of the control member (7), ° at least one counter-rail (25) parallel to the rail (21) and configured to restrict the vertical movements of the control member (7 ). 5. Sealing device (1) according to the preceding claim, characterized in that the tenon (71) has a hook-shaped section whose end slides in the rail (21). 6. shutter device (1) according to one of claims 4 or 5, characterized in that the housing (20) comprises two rails (21) aligned and separated by a spacing, and that the control member (7 ) has two separate studs (71). 7. obturation device (1) according to one of the preceding claims, characterized in that the control member (7) comprises a first oblong housing (73) whose major axis is oriented perpendicular to the first slide connection and intended to receive a lever (11) connected on the one hand to an actuator (9) and on the other hand to the control member (7) so as to be able to pivot the flaps (3). 8. Sealing device (1) according to one of the preceding claims, characterized in that the control member (7) comprises at least one set of second oblong housings (74) whose major axes are oriented perpendicular to the first slide link and intended to be connected to the flaps (3). 9. Sealing device (1) according to one of the preceding claims, characterized in that the control member (7) comprises a second sliding link with a cover (30) intended to cover the housing (20). 5 10. Sealing device (1) according to the preceding claim, characterized in that the second slide link has a groove (77) parallel to the first slide link arranged on the control member (7) and intended to receive a post disposed on the inner wall of the cover (30). 1/8 z ◄y x