EP3320165B1 - Closing part - Google Patents

Description

The present invention relates to a closing part for a driving rod fitting of a window, a door or the like.

In order to lock windows, doors or the like, espagnolette fittings are used, on which locking elements are provided, which engage at least in closed, so abutting a frame, wings of the window or the door in an associated closing part. Typically, the espagnolette fitting is disposed on the wing of the window or door, while typically a plurality of closure members are secured in place on the frame of the window or door. In principle, however, a straight reverse arrangement is possible.

By means of an actuating element, for example a handle of the window or the door, a drive rod of the espagnolette along its longitudinal extent (which usually corresponds to the course of the rebate between the wing and the frame) can be moved to thereby connected to the drive rod respective locking elements between different longitudinal positions to move. Such a locking element may for example be formed as a pin and cooperate with a respective associated closing part to secure the wing in response to the longitudinal position of the locking element on the frame. The said different longitudinal positions of the locking element thus differ not only in terms of their position, but also functionally insofar as the locking element in a certain longitudinal position (eg a locking position) the closed wing in cooperation with the closure member locks against opening and in another longitudinal position (eg, a rotary opening position or a Kippöffnungsstellung) releases the closed wing for opening.

Typically, an elongate receptacle formed along a longitudinal axis is provided on the respective closing part, which serves to receive an associated locking element of an espagnolette fitting displaceable in the direction of the longitudinal axis in different longitudinal positions. The elongated receptacle is therefore designed and arranged in particular so that the respective locking element in the receptacle between its various longitudinal positions is displaceable. The said longitudinal axis consequently corresponds essentially to the direction of the displaceability of the respective locking element.

In the elongated receptacle in or out of the elongated receptacle, the locking element transversely to the longitudinal axis, i. in the longitudinal axis of the lateral, in particular substantially straight, vertical direction. Such lateral movement of the locking element takes place when the wing is closed or opened. When the wing is closed and thus aligned along the longitudinal axis locking element, the locking element can then be moved between its longitudinal positions. This displacement can be done for example by actuation of a handle which is connected via a drive rod with the locking element.

While the elongated receptacle basically permits a movement of the locking element along the longitudinal axis between its various longitudinal positions, it depends on the respectively assumed longitudinal position of the locking element, whether it can also be moved to open or close the wing transversely to the longitudinal axis. Because the function of the closing part is precisely in the locking element in certain locking longitudinal positions in the elongated receptacle to prevent the wing of the window or door from being opened. For this purpose, the elongated receptacle is bounded transversely to the longitudinal axis by at least one stop portion, which blocks lateral movement of the locking element out of the elongated receptacle at least when the locking element is in a locking longitudinal position.

The elongated receptacle may, for example, at one end of its longitudinal extent, have a U-shape or similar shape which is bounded on three sides and open towards the fourth, the longitudinal axis passing through the open side and the opposite closed side. A locking element can then at least between a longitudinal position in which it is outside the U-shape and therefore is movable transversely to the longitudinal axis, and another longitudinal position in which it is located within the U-shape and through one of the legs of the U -Form is locked against movement transverse to the longitudinal axis, be slidable through the open side. This blocking leg of the U-shape then forms the aforementioned stop cut.

In principle, however, the elongated receptacle does not need to be limited to other sides except through the abovementioned abutment section. A so-called minimally formed closing part can thus essentially be formed by a single stop section, for example a wall-like projection. The elongated image is then not physically limited over its entire length or on all sides. This shows that the elongated receptacle is defined primarily functionally, namely by forming a region of the closing part, within which a respective locking element of an espagnolette fitting associated with the closing part is displaceable in the direction of the longitudinal axis between different longitudinal positions.

In principle, a closing part can have a plurality of stop sections, by means of which a respective locking element is locked in a plurality of different longitudinal positions against lateral movement out of the elongate receptacle. In addition, at least one passage section may be provided, which releases the locking element in a turn other longitudinal position for a lateral movement out of the elongated receptacle (and by the locking element, in fact, only ever reaches the elongated receptacle). At which point with respect to the longitudinal axis a respective stop section or a respective passage section is provided on the closing part depends in particular on which side of a wing or frame the closing part is to be used and which opening types the window or the door should have.

For example, in a window which is rotatable about a vertical side and tiltable about its lower horizontal side, a locking member on the lower horizontal side must lock the locking member for both locking and tilting the sash, but releasing it for pivotal opening. In contrast, a closing part on the upper horizontal or the band-distant vertical side locking the locking element only for locking in the locked position, but release for rotation opening and tilting. In such a window, the locking element is thus displaceable in particular between a locking position, a rotational opening position and a tilt opening position. The stopper portions of the associated closing part are then arranged straight so that the locking element is locked or released according to the longitudinal position for a lateral movement accordingly.

In known closing parts, a locking element accommodated in the oblong receptacle is either released for movement transversely to the longitudinal axis, depending on its longitudinal position, or can not be moved at all. To extend the functionality of a window, a door or the like, but it can be desirable if the closing member locks the respective locking element in a certain longitudinal position against lateral exiting the elongated receptacle, but still allows at least limited lateral displacement of the locking element. This may be useful, for example, to allow a secured tilted position in which the window or door is only slightly tilted open a small gap, but in which the locking element is still held in the elongated receptacle of the closing part. By such a tilted position can be ventilated, for example, the window or the door is still, for example, secured against a break-in attempt.

A door or window sash control device for locking the sash in a closed position, for releasing the sash in an open position and for locking the sash in a parallel advanced position, is off DE 10 2010 061 173 B3 known. This control device has a fixedly arranged on the frame base plate and an angle piece, which acts as a closing part and is mounted via a slide piece perpendicular to a longitudinal axis of the closing part movable on the base plate.

It is an object of the invention to provide a locking member for a driving rod fitting of a window, a door or the like, which is suitable to lock a locking element of the espagnolette in at least one particular longitudinal position of the locking element against lateral leakage out of the elongated receptacle, but at the same time allow a limited lateral displacement of the locking element.

The object is achieved by a closing part with the features of claim 1 and in particular by the fact that the closing part comprises a base part and an adjusting part movably mounted thereon, wherein the elongate receptacle is formed in the adjusting part, wherein the stop section is formed on the adjusting part is and wherein the adjusting member is displaceable relative to the base member transversely to the longitudinal axis between a basic position and an offset position to allow the locking member in a longitudinal position in which it is locked by the stopper portion, limited laterally displacing the adjustment part obliquely to the longitudinal axis is displaceable.

In other words, the closing part is not formed in one piece as usual, but comprises at least one base part and a separate adjusting part thereof. In this case, the base part is designed in particular for fastening the closing part to the window, the door or the like, for which purpose it may, for example, have bores or other openings or receptacles for fastening means. The adjusting part is movably mounted on the base part, which allows the adjusting part to be displaced between a basic position and an offset position. This displacement takes place transversely to the longitudinal axis, ie in the longitudinal direction of the lateral direction. This does not exclude that the displaceability also has other directional proportions. The fact that the adjustment part is laterally displaceable makes it possible to displace a locking element, which is actually located in a longitudinal position blocked by the abutment section, also in the lateral direction. However, displaceability of the locking element is limited. In particular, the locking element can be displaced together with the adjusting part, so that its displaceability on the one side can be limited by the basic position and on the other side by the offset position of the adjusting part.

According to a distinguishing feature according to the invention, the adjustment part is displaceable obliquely to the longitudinal axis. In other words, the (not necessarily straight) course of the displaceability of the adjustment part comprises a directional component in the direction of the longitudinal axis. The adjustment is thus at least not exclusively perpendicular to the longitudinal axis displaceable.

In principle, the closing part can be very similar in terms of its dimensions to conventional, in particular one-part, closing parts and can be used with the same locking elements of respective drive rod fittings. This has the advantage that, for example, to retrofit the function of a secured tilted position conventional closing parts can be easily replaced by closing parts according to the invention. When the adjustment of the closing part in is located in its basic position, the closing part may structurally even be formed substantially identical to a conventional closing part. Due to the two-part design with a displaceable adjusting part, however, the functional difference is achieved that, at least in a certain longitudinal position of the locking element whose mobility is not completely suppressed transverse to the longitudinal axis, but limited is permitted.

Essential for the fact that the displaceability of the adjustment relative to the base also allows a limited lateral mobility of the locking element, in particular, that both the elongated receptacle and the stopper portion are formed in or on the adjustment. As a result, the elongated receptacle and the abutment portion are not fixed in position, but laterally displaceable laterally relative to the longitudinal axis, so that a locking element accommodated in the oblong receptacle can likewise be displaced in the same way.

Due to the displaceability of the adjustment so the basic blocking function of the stopper section is not canceled. Rather, the stopper portion continues to block lateral movement of the locking member out of the elongated receptacle. Advantageously, the locking element can only be displaced laterally together with the elongate receptacle and the abutment section, so that the locking element does not leave the oblong receptacle. In addition, the lateral displacement of the locking element is limited. In addition to this limitation, the wing of the window or the door can not be opened.

An undercut may be formed on the elongate receptacle to prevent a locking element formed as a mushroom-headed pin from leaving the elongated receptacle in the axial direction relative to the peg. Such a design increases burglar resistance, since it is then not possible to release the locking element of the closing part by prying open the wing. There a locking element received in the elongated receptacle does not leave the receptacle upon displacement of the adjustment part, this advantage remains with the closure part according to the invention also in the offset position of the adjustment.

In addition to the function to lock the locking element against lateral exiting the elongated receptacle, the stop portion can also serve as a point of attack for the displacement of the adjustment from the basic position in the offset position. A displacement of the adjustment of the basic position in the offset position can then be effected, for example, by the locking element is urged in the lateral direction against the stopper portion, whereby then the adjustment is offset from its normal position in the direction of the offset position. This can be done for example by pulling on the wing of the window, the door or the like. However, it is also possible, for example, for the espagnolette fitting to include a mechanism that moves the wing of the window or door slightly apart from an associated frame when secured (such as by turning a handle of the window or door to a certain position) Tilt position is set. This can be achieved, for example, by a force-controlled scissors.

The fact that the oblong receptacle is formed in the adjustment part means, in particular, that the space which is provided for receiving the associated locking element in its different longitudinal positions is at least partially in the region of the adjustment part, that is approximately in the same plane, in which also the (Plane trained) adjustment part is arranged. However, this does not rule out in principle that the elongate receptacle is also partially formed in the base part.

According to an advantageous embodiment, a further stop portion is formed on the base part. By such a further stop section is it is possible to lock the locking element in a further longitudinal position against lateral movement out of the elongated receptacle out. In contrast to the said, formed on the adjusting part and therefore displaceable with the adjustment part (mobile) stop portion of the further stopper portion, however, formed on the base part. The further stop portion is therefore fixed (stationary) and is not offset when a displacement of the adjustment also. Such a further stop portion may therefore serve, for example, to secure a locking position of the locking element, in which a wing of the window or door to be locked in the closed state and the locking element should therefore be locked against any displacement transverse to the longitudinal axis in the opening direction.

According to a further development, said (mobile) abutment portion is provided at a first end of the elongated receptacle relative to the longitudinal axis, and the (stationary) further abutment portion is provided at a second end of the elongate receptacle opposite the first end. In this case, the stop sections are advantageously arranged corresponding to the position of different longitudinal positions of the associated locking element. Thus, the locking element may be displaceable approximately along the longitudinal axis between a locking position for locking a wing of the window or the door and a secured tilted position for enabling a secure tilting opening of the wing. The elongate receptacle formed in the closing part then extends along the path defined by this locking position and this tilting position, wherein the (mobile) stopper section is arranged in the region of the secured tilted position at one end of the extension and at the opposite other end of the extension of the ( stationary) further abutment portion is arranged in the region of the locking position of the locking element.

Between the locking position and the secured tilted position, further defined longitudinal positions of the locking element may be provided, for example a rotary opening position in which the locking element must be able to leave the elongated seat laterally to allow pivotal opening of the sash and / or a tilted opening position in which the Locking element (at least when the closing part is located on a side of the wing or the frame spaced from the tilting axis) must also be able to emerge laterally from the elongated receptacle.

Therefore, according to an advantageous development, the elongate receptacle transversely to the longitudinal axis is further limited by at least one passage section which releases the locking element for lateral movement out of the elongated receptacle. The passage section is therefore precisely defined by the fact that no obstacle is formed in the region of the passage section which would block movement of the locking element laterally out of the oblong receptacle (or conversely laterally into the elongate receptacle). The passage section can thus be formed for example by an opening of an otherwise continuous structure. However, the passage section may also simply be a free space, in particular adjacent to an adjacent stop section.

In this case, the passage section is in particular formed between the said (mobile) stop section and the (stationary) further stop section. Such an arrangement is then adapted in a suitable manner in particular to a sequence of longitudinal positions of the associated locking element from a locking position via a rotary opening position and / or a tilting opening position to a secured tilted position. The passage section is preferably formed on the adjustment part, since in the adjustment part and the elongated receptacle is formed. Just as the elongated receptacle may be partially formed in the base part, but can Also, the passage section may be partially formed in the base part. It is essential that in the region of the passage section neither the adjusting part nor the base part block a lateral movement of a respective locking element out of the elongated receptacle.

According to a preferred embodiment, the base part is disposed substantially in a first plane and the adjustment part is arranged substantially in a second plane, wherein the first and the second plane are aligned parallel to said longitudinal axis and to the direction of displaceability of the adjustment part and to each other adjoin, so that a (lower, the wing or frame, on which the closing part is arranged, facing) flat side of the adjustment part of a (upper, of the wing or frame pioneering) flat side of the base part abuts. The levels mentioned are not (infinitely thin) levels in the mathematical sense, but rather flat spatial areas that have a certain thickness. In this case, the base part and the adjusting part are preferably formed substantially flat.

That the base part is arranged substantially in the first plane and the adjustment part is arranged substantially in the second plane, thus means that a planar extension of the base part or the adjusting part extends substantially within the first and the second plane. In this way, however, it is not excluded that certain sections of the base part or of the adjusting part extend out of the respective plane and possibly also into the respective other plane, as long as the (planar) basic structure, in particular a large part, of the respective part within the respective plane is arranged.

In this embodiment, the base part and the adjusting part have respective flat sides, with which they rest against each other. The contact surface of the two flat sides can therefore just an interface between the first and second level correspond. Since the direction of the displaceability of the adjustment is aligned parallel to the planes, the adjustment is not moved out of the second plane at a displacement between its normal position and its offset position, but offset within the second plane. The base part and the adjustment part are therefore not moved perpendicular to the planes toward or away from each other. Rather, advantageously, said flat side of the adjusting part slides on said flat side of the base part, so that this results in a certain guidance of the adjusting part on the base part.

According to a further development of this embodiment, a further stop section (for example the further stop section mentioned) is formed on the base part and extends into the second plane. The base part which is arranged essentially in the first plane thus projects into the second plane with this further stop section. This is advantageous in that the adjusting part is arranged with the elongated receptacle and the (mobile) abutment portion in the second plane and therefore the further abutment portion formed on the base part and thus stationary must also be at least partly also in the second plane, around the oblong one To limit recording transversely to the longitudinal axis. Due to the fact that the (stationary) further stop section extends into the second plane, it can also interact with the adjusting part, for example in order to act as a stop for limiting the displaceability of the adjusting part.

Alternatively or additionally to this development, the base part may have at least one coupling element, which extends for the movable mounting of the adjusting part on the base part in the second plane and / or the adjusting part may have at least one coupling element, which is for movable mounting of the adjusting part on the base part extends to the first level. In order to keep the flat side of the adjusting part against the flat side of the base part, it is therefore possible to provide coupling elements which are attached to the base part and / or the base part Adjustment are formed and extend into the plane of the other part. There they can then interact with the respective other part, thereby movably supporting the adjusting part on the base part, thus preventing on the one hand unintentional release of the adjusting part from the base part and on the other hand enabling displacement of the adjusting part relative to the base part and preferably also the course and to define the length of the displaceability.

According to an advantageous embodiment, the base part has at least one coupling projection, in particular in the form of a pin, and the adjusting part has at least one coupling guide, in particular in the form of an oblong hole. Alternatively, just the other way round, the base part may have at least one coupling guide, in particular in the form of an oblong hole, and the adjusting part may have at least one coupling projection, in particular in the form of a pin. The coupling projection may in particular be the aforementioned coupling element.

In this case, the coupling projection and the coupling guide are preferably designed so that the coupling projection engages in the coupling guide or otherwise cooperates with the coupling guide, which is suitable for coupling the base part and the adjusting part with each other, in particular insoluble, and / or the displaceability of the adjusting part relative to the base part. This can be realized in a particularly simple manner if the coupling projection is a pin which engages in a coupling guide designed as a slot. By the length and the course of the slot corresponding Versetzbewegungsverläufe the adjustment can be defined. In particular, two or more mutually corresponding pairs of a respective coupling projection and a respective coupling guide are provided on the closing part, so that the stability of the mounting of the adjusting part on the base part is increased.

When the adjustment moves in the displacement from its normal position in the offset position in the direction of the longitudinal axis, thereby also the elongated receptacle is moved relative to a locking element received therein, which remains in its longitudinal position. In this way, for example, an end of the elongated receptacle to be moved to the locking element, so that the locking element is absorbed, so to speak, deeper into the elongated receptacle and is thus particularly well secured in the elongated receptacle. This is particularly advantageous when the stroke between a longitudinal position of the locking element, in which it can leave the elongated receptacle side, (for example, rotary opening position or tilt opening position) and that longitudinal position in which the locking element is locked by said (mobile) stop section , (For example, tilting position) is so small that the locking element is not locked in this longitudinal position over its entire longitudinal extent of said (mobile) stop portion. By displacing the adjusting part also in the direction of the longitudinal axis, however, the stop section can, as it were, continue to slide in front of the locking element, as a result of which the locking element is locked particularly reliably.

In connection with an oblique displaceability of the adjustment part, it is preferred if the direction of displaceability of the adjustment relative to the base part with said longitudinal axis an angle of less than 90 °, especially less than 60 °, preferably between 40 ° and 50 °, especially preferably 45 °. In this case, the adjustment part in particular exclusively under This angle can be offset, ie the displaceability has a straight course. An angle of 45 ° is particularly advantageous if the displacement of the adjusting member relative to the base part is effected as a result of a force exerted by the locking element and acting in the lateral direction. Because at an angle of 45 °, regardless of whether the displacement of the adjustment of the basic position in the offset position or vice versa takes place, each equal to a parallel motion to the said longitudinal axis are derived.

Regardless of the specific course and / or angle of Versetzbarkeit the adjustment, it is preferred if the (mobile) stop portion is provided at a longitudinal axis with respect to the first end of the elongated receptacle and the adjustment in a lateral displacement in the offset position in the direction of a first end opposite the second end of the elongated receptacle is offset. The displacement of the adjustment in this direction thus causes straight, that one of this (mobile) stopper locked locking element that does not change its position when moving the adjustment, further penetrates in the direction of said first end in the elongated recording and so very reliable is secured. In this case, said first end of the elongate receptacle can form a stop for the locking element remaining in its longitudinal position and thus limit the displaceability of the adjustment part.

Furthermore, it is advantageous if locking means are provided between the base part and the adjusting part, in particular mechanical and / or magnetic, in order to secure the adjusting part in the basic position and / or the offset position. By such locking means can be advantageously effected that initially a certain force threshold must be exceeded before the adjustment can be offset from its basic position and / or its offset position out. Alternatively or additionally, the latching means may contribute to the Adjustment of the basic position and / or the offset position achieved particularly reliable by the adjustment engages in the respective position, for example due to attractive or urgent forces. Such locking means help to prevent incorrect operations or an undesirable closing of the wing, for example by wind pressure, and therefore increase the reliability of the operation of the closing part.

Fig. 1

zeigt eine Ausführungsform eines erfindungsgemäßen Schließteils in einer perspektivischen Darstellung.

Fig. 2A bis 2E

zeigen die in Fig. 1 dargestellte Ausführungsform zusammen mit einem zugeordneten Verriegelungselement, wobei das Verstellteil des Schließteils und das Verriegelungselement in verschiedenen Stellungen dargestellt sind.

Fig. 3A bis 3C

zeigen beispielhaft eine vereinfachte weitere Ausführungsform eines Schließteils zusammen mit einem zugeordneten Verriegelungselement, wobei das Verstellteil des Schließteils und das Verriegelungselement in verschiedenen Stellungen dargestellt sind.

The invention will now be described by way of example only with reference to the figures.

Fig. 1

shows an embodiment of a closing member according to the invention in a perspective view.

Fig. 2A to 2E

show the in Fig. 1 illustrated embodiment together with an associated locking element, wherein the adjusting part of the closing part and the locking element are shown in different positions.

Figs. 3A to 3C

show by way of example a simplified further embodiment of a closing part together with an associated locking element, wherein the adjusting part of the closing part and the locking element are shown in different positions.

This in Fig. 1 The closing part 11 shown comprises a substantially flat base part 13 and an adjoining also substantially flat adjustment part 15. The base part 13 and the adjustment part 15 have an elongated structure which extends along a longitudinal axis L, as well as a substantially identical outer contour along a respective circumferential narrow side 17, 17 ', so that the base part 13 and the adjusting part 15 in the in Fig. 1 shown basic position of the adjustment member 15 are aligned congruent to each other. In this case, the base part 13 is substantially in a first (according to the orientation in Fig. 1 lower) level, while the adjusting part 15 is arranged substantially in a plane parallel to the first plane second (upper) level. The two planes adjoin one another in the region of an interface 19 between an (upper) flat side of the base part 13 and a (lower) flat side of the adjusting part 15.

In the adjusting part 15, an elongated receptacle 21 is formed centrally, which is adapted to a locking member 23 associated with the closing part 11 (cf. Fig. 2A to 2E ) in the form of a mushroom spigot, wherein the locking element 23 can assume different defined longitudinal positions within the elongate receptacle 21, which differ with respect to their position along the longitudinal axis L. For this purpose, the elongate receptacle 21 is designed essentially in the manner of a slot in the adjustment part 15.

The elongated receptacle 21 is not circumferentially closed, but open to one side in a central area. In this central region, the elongated receptacle 21 is thus limited by a section through which the locking element 23 can be moved transversely to the longitudinal axis L into the elongated receptacle 21 or out of the elongated receptacle 21, if it is in a corresponding (middle) longitudinal position is located. In this respect, said passage portion forms a passage portion 25. Due to its length and position, the passage portion 25 in the illustrated embodiment, the locking member 23 in two different defined longitudinal positions (namely, a rotational opening position and a Kippöffnungsstellung, see. Fig. 2B or 2C) for a lateral movement out of the elongated receptacle 21 free (as will be explained below). In this respect, the passage section 25 can at least functionally also be regarded as a double passage section 25 or as two directly consecutive passage sections 25.

In the direction of the longitudinal axis L close to both sides of the passage portion 25 stop portions 27, 29 which limit the elongated receptacle 21 to the same side as the passage portion 25, but unlike the passage portion 25, a lateral movement of the locking member 23 from the elongated receptacle 21 out (towards this page). The two stop portions 27, 29 are arranged opposite to the longitudinal axis L opposite ends 31, 33 of the elongated receptacle 21. In this case, the stopper portion 27 is formed on the adjustment member 15 in the region of the first end 31 of the elongated receptacle 21, whereas the further stopper portion 29 is formed on the base member 13 in the region of the second end 33 of the elongated receptacle 21.

While the abutment portion 27 is disposed on the adjustment member 15 substantially within said, the rest of the adjustment 15 largely comprehensive second level, the further abutment portion 29 extends to the base member 13 of the rest of the base 13 largely comprehensive first level in the second plane into it. In this way, the further abutment portion 29 can laterally delimit the elongated receptacle 21 formed essentially in the adjustment part 15 (and thus in the second plane).

As in Fig. 1 can be seen at least for the further stop portion 29, the stop portions 27, 29 for elongated receptacle 21 toward undercuts 35. Corresponding undercuts are also formed on the opposite side of the elongate receptacle and at their boundaries in the longitudinal direction in the region of the two ends 31, 33. Trained as a mushroom pin locking element 23 engages behind due to its mushroom shape in longitudinal positions in which it is in the region of the first end 31 or the second end 33 of the elongated receptacle 21 and is locked by a respective abutment portion 27, 29 against lateral movement, the adjacent Undercuts 35 and is thus particularly reliable secured. In particular, the locking element 23 can then not leave the elongated receptacle 21 in an axial direction with respect to its spigot shape. As a result, the break-up security of the closing part 11 is increased.

At the adjustment part 15 two parallel slots 37 are formed, which have a straight, aligned at an angle of 45 ° to the longitudinal axis L course and extend almost over the entire width (transverse to the longitudinal axis L) of the adjusting part 15. The elongated holes 37 form coupling guides in which engage on the base part 13 formed as a pin 39 coupling projections. The pins 39 extend through the respective slot 37 in the adjustment part 15, so that they protrude (similar to the further stop portion 29 and as far) in the second plane. In this case, the end of a respective pin 39 spaced from the base part 13 has a mushroom-type diameter enlargement 41, by means of which the pin 39 is permanently coupled in the manner of a rivet to the respective slot 37. On the interaction of the pins 39 with the slots 37 and thus the base member 13 and the adjustment member 15 are advantageously non-detachably coupled together.

In this case, the adjustment member 15 is movably mounted relative to the base member 13, namely along a course displaceable, which is defined by the interaction of the pin 39 with the slots 37. According to the orientation of the slots 37, the adjustment member 15 at an angle of 45 ° to the longitudinal axis L between in the Fig. 1 and 2A to 2D shown basic position and the in Fig. 2E displaceable position shown offset. The adjustment member 15 is thus transversely displaceable to the longitudinal axis L, but it is always offset due to the obliquely to the longitudinal axis aligned slots 37 also parallel to the longitudinal axis L. Due to the angle of 45 °, the offset transversely and parallel to the longitudinal axis L is the same size.

In the Fig. 2A to 2E is the in Fig. 1 shown embodiment in several views perpendicular to the areal extent of the base part 13 and the adjusting part 15 shown. In this case, the adjustment part 15 is in the Fig. 2A to 2D in its basic position while in it Fig. 2E is offset relative to the base part 13 in its offset position. The Fig. 2A to 2E also differ from one another by the respective longitudinal position of the locking member 11 associated, received in the elongated receptacle 21 locking element 23, which is designed as in perpendicular to the plane aligned pin, in particular mushroom pin. The locking element 23 is part of an espagnolette, not shown, with which it is drive-coupled, so that it, for example, depending on the rotational position of a handle to be operated, is displaceable between the illustrated defined longitudinal positions.

The closing part 11 can be fastened in particular to a frame of a window or a door, while the espagnolette fitting is fastened to a wing of the window or the door. In principle, however, the arrangement can also be reversed. The closing part 11 is fastened with its base part 13 on the frame (or the wing). For this purpose, the base part 13 perpendicular to its planar extent extending bores 43 for (not shown) fastening means, in particular screws, on. Overall, along the longitudinal extent of the base part 13, three, advantageously evenly spaced, bores 43 are provided (see, in particular Fig. 2E ).

The embodiment shown is in particular designed to be arranged on one side of a window or a door, which does not form a tilting axis of the wing of the window or the door, but is in particular just opposite the tilting axis. The locking element 23 is then usually absorbed in the elongated receptacle 21, when the wing and the frame, on which the closing part 11 and said espagnolette fitting are arranged, abut each other, so that the wing is closed.

At the in Fig. 2A shown longitudinal position of the locking member 23 may be, for example, a locking position of the locking member 23, in which the locking member 23 is blocked by the further abutment portion 29 against lateral movement of the elongated receptacle 21 out. Since the further abutment portion 29 is formed on the base part 13 (see. Fig. 1 ), it is stationary, ie stationary with respect to the frame (or the wing). Thus, the locking element 23 is locked against movement in the longitudinal axis L lateral direction. The closed wing can thus not be opened in this longitudinal position of the locking element 23, but is locked by the interaction of the locking element 23 and the (stationary) further stop portion 29. Such a locking position, for example, correspond to a rotational position of a handle of the window or the door (not shown) down.

Fig. 2B differs from Fig. 2A only with regard to the longitudinal position of the locking element 23, which is, for example, a rotary opening position. The distance (stroke) between said locking position ( Fig. 2A ) and this rotary opening position ( Fig. 2B ) may, for example, be caused by a rotation of said handle by 90 ° in a horizontal orientation. In this rotational opening position, the locking element 23 is in a region of the elongated receptacle 21, which is bounded laterally by the passage portion 25. The passage portion 25 releases the lock member 23 in its rotational opening position for lateral movement out of the elongated receptacle 21, so that the wing can be opened (turned).

Also in Fig. 2C that differ from the FIGS. 2A and 2B only differs in that the locking element 23 in a further longitudinal position, namely for example, a Kippöffnungsstellung, the locking member 23 is released for lateral movement out of the elongated receptacle 21 through the passage portion 25, so that the wing (tilt) can be opened. By comparing the Fig. 2A to 2C However, it can be seen that the stroke between the tilted opening position ( Fig. 2C ) and the rotary opening position ( Fig. 2B ) smaller than the stroke between the rotational opening position ( Fig. 2B ) and the locking position ( Fig. 2A ) is, in particular, just half as big. The tilting opening position of the locking element 23 can therefore result, for example, from a rotation of the said handle from the horizontal by 45 ° upwards into an inclined position. This represents a departure from the current rotational position of the handle for tilting the wing, in which the handle is typically oriented vertically upwards.

By providing such an oblique rotational position, the rotational position is vertically upwards for an additional defined longitudinal position of the locking element 23 is available, which is, for example, a secure tilted position, the in FIGS. 2D and 2E is shown. The stroke between the secured tilt position ( FIGS. 2D and 2E ) and the tilt open position ( Fig. 2C ) in turn, in turn half of the stroke between the rotational opening position ( Fig. 2B ) and the locking position ( Fig. 2A ).

Due to the comparatively small stroke, the locking element 23 is in the secured tilted position first ( Fig. 2D ) is not blocked over its entire longitudinal extension of the formed on the adjustment part 15 (mobile) stop portion 27. In other words, the locking element 23 initially protrudes with a portion beyond the abutment portion 27 out into the region of the passage portion 25. Nevertheless, the locking member 23 is prevented by the abutment portion 27 already from leaving the elongated receptacle 21 transversely to the longitudinal axis L.

If the locking element 23 is urged in this position in the direction of the (mobile) abutment portion 27, for example by pulling on the handle of the wing or actuating a wing tilting away from the frame, the locking element 23 exerts a force transversely to the longitudinal axis L. the stopper portion 27. As a result, the adjusting member 15 is offset from its basic position in the direction of the force. Due to the interaction of the pin 39 with the slots 37, the adjustment member 15 is guided on the base member 13 but such that it is not exclusively in the direction of the force, that is offset perpendicular to the longitudinal axis L. But it also moves at the same time parallel to the longitudinal axis L, so that it is displaced as a whole obliquely to the longitudinal axis L, namely at an angle of 45 ° to the longitudinal axis L. The slots 37 are aligned so that the adjustment member 15 in the offset position further in the direction of the remote from the (mobile) stop portion 27, second end 33 of the elongated receptacle 21 is offset than in the basic position.

The extent of the displaceability of the adjustment member 15 is advantageously limited due to the formation of the coupling guides as closed slots 37. In the offset position, the adjustment part 15 is therefore offset, in particular, at most relative to the base part 13.

Since the locking element 23 preferably can not change its longitudinal position unconfined (but only upon actuation of the handle or at least the espagnolette fitting), it remains during the displacement of the adjustment member 15 between the basic position ( Fig. 2D ) and the offset position ( Fig. 2E ) in the secured tilt position. Laterally, the locking element 23 is in the secured tilted position but added together with the adjustment 15, as the comparison of Fig. 2D With Fig. 2E illustrated. The displaceability of the locking element 23 is also limited due to the limited displaceability of the adjusting part 15.

Despite the lateral movement, the locking element 23 remains in the elongated receptacle 21, so that the locking element 23 is still secured therein. However, the locking member 23 moves due to the oblique displacement of the adjusting member 15 relative to the adjustment member 15 in the direction of the longitudinal axis L, namely in the direction of the (mobile) stop portion closer, first end 31 of the elongated receptacle 21. Thus, the locking element 23 penetrates deeper in the first end 31 of the elongated receptacle 21, so that it is then locked over its entire longitudinal extent and thus particularly secure by the (mobile) stop portion 27. At the same time, the first end 31 of the elongate receptacle 21 acts as a stop for the locking element 23, whereby the displaceability of the adjusting part 15 and the locking element 23 can be additionally limited.

As the FIGS. 2D and 2E illustrate, allows the two-part design of the closing member 11 with a base member 13 and a movably mounted adjustment member 15 to provide a longitudinal position of the locking member 23 in the elongated receptacle 21 in which the locking member 23 is secured, but limited laterally displaceable, so that, for example a closed wing of a window or door can be tilted a little bit. The size of the gap is defined by the extent of the displaceability of the adjustment member 15 relative to the base member 13 and compared to a typical Kippöffnungsstellung very small. In this way, for example, a ventilation position of the wing can be realized, which is particularly well secured against break-open attempts.

In connection with a break-in security, it is also important that the displaceability of the adjustment part 15 and thus also of the locking element 23 is reliably limited, so that about said gap can not be increased by force. Therefore, in addition to the described, the displaceability limiting interaction of the pins 39 with the slots 37 and the locking member 23 may be provided with the first end 31 of the elongated receptacle 21 further elements which cooperate as stops and prevent the adjustment member 15 is offset beyond the offset position.

For example, as with the in Fig. 1 and 2 In the embodiment shown, a counterstop section 45 may be provided on the side of the elongate receptacle 21 opposite the passage section 25 and the abutment sections 27, which meets the (stationary) further abutment section 29 upon reaching the offset position of the adjusting element 15, thus further displacing the adjusting element 15 additionally blocked. In addition, the first end 31 of the elongate receptacle 21 may include a bottom portion 47 extending from the second level into the first level into a countersink portion 49 formed as a shallow depression in said flat side of the base portion 13 and a stop edge 51 against a counter-abutment edge 53 of the sink portion 49 abuts when the offset position is reached.

Similarly, 15 further stops may be formed between the base member 13 and the adjusting member, which also help to prevent a displacement in the opposite direction beyond the normal position addition. For example, for this purpose, in turn, said bottom portion 47 cooperate with said lower portion 49 via a further stop edge and a further counter-stop edge (not shown) and / or the (stationary) further stop portion 29 cooperate with another counter-stop section 45 'of the adjustment member 15 in its basic position (see. Fig. 2A ).

Thus, the adjustment member 15 can be pushed back from the offset position by means of the locking element 23 back into the normal position, is at the stop portion 27 just opposite side of the elongated Receiving 21 a Rückanschlagabschnitt 55 formed on the adjustment member 15 against which the locking member 23 presses when it is urged in this direction, such as when closing the wing of the window or the door. Such a force is derived by the oblique leadership of the pin 39 in the slots 37 to a corresponding oblique displacement of the adjusting member 15 back to its normal position until again in Fig. 2D shown state is reached. From there, the locking element 23 can then be moved back to one of its other longitudinal positions to set a different opening or closing state of the window or the door.

At the in Fig. 1 and 2 embodiment shown in the base part 13 and the adjustment member 15 respective holes 57, 59 (see. Fig. 2E ), which are aligned with each other in the basic position of the adjustment member 15. Therefore, these holes 57, 59 can be used to fix by inserting a pin or a bolt (not shown), the adjustment member 15 in its normal position, so that the closing member 11 as a conventional closing part without the function, a limited lateral displacement of the secured locking element 23 can be used.

However, the bores 57, 59 can also be provided to receive each other attracting magnetic elements as locking means which hold the adjustment member 15 in its normal position, at least as long as no force overcoming the magnetic force is exerted in the lateral direction on the adjustment member 15. In this way, it can be prevented that the adjusting part 15 is inadvertently displaced from the basic position, that is to say without, for example, the locking element 23 being in the secured tilted position (FIG. FIGS. 2D and 2E ) and presses against the adjustment part 15. In addition, it can be ensured by such magnetic elements, that the basic position is reliably completely achieved, since the adjusting part 15 engages in the basic position due to the mutual magnetic attraction of the magnetic elements. Alternatively or additionally, magnetic elements be provided, which are arranged so that they secure the offset position of the adjustment member 15 latching.

In the Figs. 3A to 3C illustrated embodiment is an example of a particularly compact closing part 11, which despite its small dimensions, the said function of limited lateral displacement of a secured in the elongated receptacle 21 of the closing member 11 locking member 23 has. Here are in Figs. 3A to 3C Elements that are elements of Fig. 1 and 2 correspond, indicated by the same reference numerals.

The closing part 11 according to the in Fig. 3 embodiment shown largely corresponds to one in the Fig. 1 and 2 right part of the embodiment shown there. The elongate receptacle 21 is further defined by the area that the locking element 23 can assume in its various longitudinal positions along the longitudinal axis L, and therefore may extend outside of the closing part 11. This in Figs. 3A to 3C In particular, the closing part 11 shown has no (stationary) further stop section 29. To still lock the locking element 23 in a locking position against lateral displacement from the elongated receptacle 21, a separate further closing part 61 (in Fig. 3A shown with broken lines) with a (stationary) further abutment portion 29 may be provided, which may be formed in a conventional manner.

This in Figs. 3A to 3C shown closing part 11 works otherwise according to the in the Fig. 1 and 2 shown. At the in Fig. 3A shown longitudinal position of the locking element 23 is, for example, a tilt opening position in which the locking element 23 is released through the passage portion 25 for lateral movement out of the elongated receptacle 21 out. In contrast, the show Figs. 3B and 3C a secured tilted position of the locking element 23, wherein the adjustment part 15 in Fig. 3B as well as in FIG. 3A is shown in the basic position, from which it, in particular by the locking element 23, in the in Fig. 3C shown offset position can be urged. In this displacement taking place obliquely to the longitudinal axis L, in turn, the locking element 23 is offset relative to the base part 13 transversely to the longitudinal axis L limited.

Since this embodiment has only a single pin 39 and a single slot 37, the pin 39, which otherwise has a round cross-section, is flattened in the region of the slot 37 towards its two longitudinal sides (see dotted lines in FIG Figs. 3A to 3C ) to prevent the adjustment member 15 can rotate about the pin 39. Since the embodiment shown is purely exemplary, an anti-rotation of the adjustment member 15 relative to the base member 13 but also by other (guide) elements and / or otherwise be effected.

LIST OF REFERENCE NUMBERS

11

closing part

13

base

15

adjusting part

17, 17 '

narrow side

19

interface

21

elongated recording

23

locking element

25

Passage section

27

(mobile) stop section

29

(stationary) further stop section

31

first end

33

second end

35

undercut

37

Long hole

39

spigot

41

Increase in diameter

43

drilling

45, 45 '

Counter-stop section

47

bottom section

49

lower section

51

stop edge

53

Counter stop edge

55

Backstop section

57

drilling

59

drilling

61

another closing part

L

longitudinal axis

Claims (13)

1. A striker plate for a connecting rod fitting of a window, of a door or the like, wherein an elongate receiver (21) is provided at the striker plate (11) along a longitudinal axis (L) to receive a latching element (23) of the connecting rod fitting in different longitudinal positions, said latching element (23) being displaceable in the direction of the longitudinal axis (L);
   wherein the elongate receiver (21) is bounded transversely to the longitudinal axis (L) by an abutment section (27) which blocks a lateral movement of the latching element (23) out of the elongate receiver (21); wherein the striker plate (11) comprises a base part (13) and an adjustment part (15) movably supported thereat;
   wherein the elongate receiver (21) is formed in the adjustment part (15); wherein the abutment section (27) is formed at the adjustment part (15); wherein the adjustment part (15) is displaceable relative to the base part (13) transversely to the longitudinal axis (L) between a base position and a displacement position to be able to laterally displace the latching element (23) to a limited degree in a longitudinal position in which it is blocked by the abutment section (27);
   and wherein the adjustment part (15) is displaceable obliquely to the longitudinal axis (L).
2. A striker plate in accordance with claim 1,
   wherein a further abutment section (29) is formed at the base part (13).
3. A striker plate in accordance with claim 2,
   wherein said abutment section (27) is provided at an end (31) of the elongate receiver (21) which is the first end (31) with respect to the longitudinal axis (L) and the further abutment section (29) is provided at a second end (33) of the elongate receiver (31) disposed opposite the first end (31).
4. A striker plate in accordance with claim 2 or claim 3,
   wherein the elongate receiver (21) is further bounded transversely to the longitudinal axis (L) by a passage section (25) which releases the latching element (23) for a lateral movement out of the elongate receiver (21); and wherein the passage section (25) is formed at the adjustment part (15) between the abutment section (27) and the further abutment section (29).
5. A striker plate in accordance with at least one of the preceding claims,
   wherein the base part (13) is substantially arranged in a first plane and the adjustment part (15) is substantially arranged in a second plane; and wherein the first and second planes are aligned in parallel with said longitudinal axis (L) and with the direction of the displaceability of the adjustment part (15) and adjoin one another such that a flat side of the adjustment part (15) contacts a flat side of the base part (13).
6. A striker plate in accordance with claim 5 and any one of the claims 2 to 4,
   wherein the further abutment section (29) extends into the second plane.
7. A striker plate in accordance with claim 5 or claim 6,
   wherein the base part (13) has at least one coupling element (39) which extends into the second plane to movably support the adjustment part (15) at the base part (13);
   and/or
   wherein the adjustment part (15) has at least one coupling element which extends into the first plane to movably support the adjustment part (15) at the base part (13).
8. A striker plate in accordance with at least one of the preceding claims,
   wherein the base part (13) has at least one coupling projection (39) and the adjustment part (15) has at least one coupling guide (37) or vice versa.
9. A striker plate in accordance with claim 8,
   wherein the base part (13) and the adjustment part (15) are coupled to one another via the cooperation of the at least one coupling projection (39) and the at least one coupling guide (37).
10. A striker plate in accordance with claim 8 or claim 9,
    wherein the displaceability of the adjustment part (15) relative to the base part (13) is defined by the cooperation of the at least one coupling projection (39) and the at least one coupling guide (37).
11. A striker plate in accordance with at least one of the preceding claims,
    wherein the direction of the displaceability of the adjustment part (15) relative to the base part (13) includes an angle of less than 90°, in particular less than 60°, preferably between 40° and 50°, particularly preferably 45°, with said longitudinal axis (L).
12. A striker plate in accordance with at least one of the preceding claims,
    wherein the abutment section (27) is provided at an end (31) of the elongate receiver (21) which is the first end with respect to the longitudinal axis (L); and wherein, on a lateral displacement into the displacement position, the adjustment part (15) is also displaced in the direction of a second end (33) of the elongate receiver (21) disposed opposite the first end (31).
13. A striker plate in accordance with at least one of the preceding claims,
    wherein latching means, in particular mechanical and/or magnetic latching means, are provided between the base part (13) and the adjustment part (15) to secure the adjustment part (15) in the base position and/or in the displacement position.

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