阅读说明：本技术 天线结构倾斜支架 (Antenna structure tilting bracket ) 是由 尼克拉斯·莱克西里斯 艾里克·彭顿 马库斯·伦德 于 2018-03-13 设计创作，主要内容包括：倾斜支架(1)包括可在完全张开位置(P1)、完全折叠位置(P2)、以及中间位置(P3)之间枢转的第一支架部分(2)和第二支架部分(3)。倾斜支架(1)还包括阻挡机构(7),该阻挡机构(7)允许第一支架部分(2)和第二支架部分(3)始终向完全折叠位置(P2)枢转,并且阻止或允许第一支架部分(2)和第二支架部分(3)朝完全张开位置(P1)枢转。(The tilting bracket (1) comprises a first bracket part (2) and a second bracket part (3) which are pivotable between a fully open position (P1), a fully folded position (P2), and an intermediate position (P3). The tilting bracket (1) further comprises a blocking mechanism (7), which blocking mechanism (7) allows the first bracket part (2) and the second bracket part (3) to pivot all the way to the fully folded position (P2) and prevents or allows the first bracket part (2) and the second bracket part (3) to pivot towards the fully opened position (P1).)

1. An inclined support (1) comprising

A first carrier part (2) and a second carrier part (3),

a pivot arrangement (4) connecting the first and second frame portions (2, 3) such that the first and second frame portions (2, 3) are pivotable between a fully open position (P1), a fully folded position (P2), and an intermediate position (P3),

a gear mechanism (5) comprising a first cog wheel (5a),

the first cogwheel (5a) being connected to the first carrier part (2) and sharing a centre axis (C1) with the pivot means, and

a blocking mechanism (7) pivotable between an engaged position (P4) and an unengaged position (P5),

the blocking means (7) comprising a catch (8), the catch (8) being engaged with the gear mechanism (5) when in the engaged position (P4),

the blocking mechanism (7) allowing the gear mechanism (5) to pivot the first and second stand portions (2, 3) towards the fully folded position (P2) when the blocking mechanism (7) is in the unengaged position (P5) or when the blocking mechanism (7) is in the engaged position (P4),

when the blocking mechanism (7) is in the engaged position (P4), the blocking mechanism (7) prevents the gear mechanism (5) from pivoting the first and second frame parts (2, 3) towards the fully open position (P1), and

when the blocking mechanism (7) is in the unengaged position (P5), the blocking mechanism (7) allows the gear mechanism (5) to pivot the first and second frame portions (2, 3) towards the fully open position (P1).

2. Tilting bracket (1) according to claim 1, wherein the gear mechanism (5) further comprises a second cogwheel (5b), which second cogwheel (5b) is connected to the second bracket part (3),

the tilting bracket (1) further comprises a turning mechanism (6), the turning mechanism (6) comprising a turning rod (6a) connected to the second cog wheel (5b) and sharing a central axis (C2) with the second cog wheel (5b), and

when in the engaged position (P4), the catch (8) engages with the second cog wheel (5 b).

3. Tilting bracket (1) according to claim 1 or 2, in which, when the blocking mechanism (7) is in the engaged position (P4), the catch (8) slides over the tooth tips (9a) of the cogs (9) of the gear mechanism (5) when the first bracket part (2) and the second bracket part (3) are pivoted towards the fully folded position (P2), and the catch (8) interlocks with the side faces (9b) of the cogs (9) of the gear mechanism (5) when the first bracket part (2) and the second bracket part (3) are pivoted towards the fully opened position (P1).

4. Tilting bracket (1) according to any one of the preceding claims, wherein the first bracket part (2) and the second bracket part (3) each comprise a central portion (2 a; 3a) and side portions (2b, 2 c; 3b, 3c) arranged at opposite edges of the central portion (2 a; 3a) and extending substantially perpendicularly to the central portion (2 a; 3a), the first bracket part (2) being folded into the second bracket part (3) when the first bracket part (2) and the second bracket part (3) are pivoted towards the fully folded position (P2).

5. Tilt bracket (1) according to any of the preceding claims, further comprising a locking mechanism (10) for locking the blocking mechanism (7) in the unengaged position (P5).

6. Tilting bracket (1) according to claims 4 and 5, wherein said locking mechanism (10) extends perpendicularly to said sides (3b, 3c) of said second bracket part (3) and interconnects said blocking mechanism (7) when said blocking mechanism (7) is in said unengaged position (P5).

7. Tilting bracket (1) according to claim 6, wherein said locking mechanism (10) comprises an asymmetric knob (10a), said asymmetric knob (10a) when turned connecting with said blocking mechanism (7) and moving said blocking mechanism (7) to said unengaged position (P5).

8. Tilting bracket (1) according to one of the preceding claims, wherein the blocking mechanism (7) further comprises a first blocking rod (11a) connected to the catch (8) and extending parallel to the swivelling rod (6a),

by moving the first blocking lever (11a) in a direction toward the gear mechanism (5), the blocking mechanism (7) is moved from the engaged position (P4) to the unengaged position (P5).

9. Tilting bracket (1) according to claim 8, in which the catch (8) extends from one end of the first blocking lever (11a) in the direction towards the gear mechanism (5), and in which the blocking mechanism (7) is pivotally connected to the side (3b, 3c) of the second bracket part (3).

10. Tilting bracket (1) according to claim 8 or 9, wherein said blocking mechanism (7) further comprises a second blocking bar (11b) extending parallel to said first blocking bar (11a), and said locking mechanism (10) comprises hook means (10b), said hook means (10b) extending from said first blocking bar (11a) and interlocking with said second blocking bar (11b) in said unengaged position (P5).

11. Tilt bracket (1) according to any of the claims 1 to 7, wherein the blocking mechanism (7) comprises a spring loaded plate (12),

by moving the spring loaded plate (12) in a direction away from the gear mechanism (5), the blocking mechanism (7) is moved from the engaged position (P4) to the unengaged position (P5).

12. Tilting bracket (1) according to claim 11, in which one edge (12a) of the spring-loaded plate (12) is connected to the middle part (3a) of the second bracket part (3) and the catch (8) is arranged at the opposite edge (12b) of the spring-loaded plate (12).

13. Tilting bracket (1) according to any one of claims 4 to 12, comprising two interconnected gear mechanisms (5), said blocking mechanism (7) comprising two interconnected catches (8), one catch being arranged at each side (3b, 3c) of the second bracket part (3).

14. Tilt bracket (1) according to any of the preceding claims, wherein the first cogwheel (5a) is integrated with the side portion (2b, 2c) of the first bracket part (2).

15. Tilt bracket (1) according to any one of claims 1-13, wherein the first cogwheel (5a) is connected to the side portion (2b, 2c) of the first bracket part (2).

16. Tilt bracket (1) according to any one of claims 2-15, wherein the turning mechanism (6) further comprises a turning nut (6b) arranged outside the side portions (3b, 3c) of the second bracket part (3), and the second cog wheel (5b) is arranged inside the side portions (3b, 3c) of the second bracket part (3).

17. A pivotable antenna structure comprising an antenna (13), a pivoting bracket (14), and a tilting bracket (1) according to any one of claims 1 to 16, the tilting bracket (1) and the pivoting bracket (14) being connected to the antenna (13),

the tilting bracket (1) pivots the antenna (13) about the pivoting bracket (14) when the first and second bracket parts (2, 3) pivot between the fully open position (P1), the fully folded position (P2), and the intermediate position (P3).

18. Pivotable antenna arrangement according to claim 17, wherein the pivoting bracket (14) and the tilting bracket (1) are adapted to be connected to a vertically extending structure (15), the tilting bracket (1) being arranged in a position vertically above the pivoting bracket (14).

19. A pivotable antenna arrangement according to claim 18, wherein the antenna (13) is held at a desired angle relative to the vertically extending structure (15) by means of the tilting bracket (1).

Technical Field

The present disclosure relates to a tilt bracket that includes a first bracket portion, a second bracket portion, and a pivot arrangement connecting the first bracket portion and the second bracket portion such that the first bracket portion and the second bracket portion are pivotable between a fully open position, a fully collapsed position, and an intermediate position.

Background

When mounting a device such as an antenna to a vertically extending structure such as a building or pole, the angle of inclination of the antenna may need to be taken into account. One way to accommodate different tilt angles is to attach one end of the antenna to a vertically extending structure by a pivot joint about which the antenna can rotate, and attach the other end of the antenna to the vertically extending structure by a retractable arm. The angle of tilt of the antenna can be adjusted by manually adjusting (e.g., using a handle) the length of the retractable arm.

Antennas and similar devices are often large and heavy and are often installed in hard-to-reach areas such as high-rise buildings, making both the installation process and subsequent adjustment of the devices difficult. It is therefore desirable to provide a device that simplifies the installation and adjustment of such equipment.

Disclosure of Invention

It is an object of the present invention to provide an improved tilting bracket. The foregoing and other objects are achieved by the features of the independent claims. Other embodiments are apparent from the dependent claims, the description and the drawings.

According to a first aspect, a tilt bracket is provided. The tilt frame includes a first frame portion, a second frame portion, a pivot arrangement, a gear mechanism, and a blocking mechanism. The pivot arrangement connects the first frame portion and the second frame portion such that the first frame portion and the second frame portion can pivot between a fully open position, a fully collapsed position, and an intermediate position. The gear mechanism comprises a first cogwheel connected to the first carrier part and sharing a central axis with the pivot means. The blocking mechanism is pivotable between an engaged position and an unengaged position. The blocking mechanism includes a catch that engages the gear mechanism when in the engaged position. The blocking mechanism allows the gear mechanism to pivot the first and second rack portions toward the fully folded position when the blocking mechanism is in the unengaged position or when the blocking mechanism is in the engaged position. The blocking mechanism prevents the gear mechanism from pivoting the first and second frame portions toward the fully open position when the blocking mechanism is in the engaged position. The blocking mechanism allows the gear mechanism to pivot the first and second frame portions toward the fully open position when the blocking mechanism is in the unengaged position.

A tilting bracket with a gear mechanism which is always movable in the folding direction and locked or movable in the opposite direction allows to arrange the tilting bracket in a fully folded end position and to maintain this condition during mounting, so that the tilting bracket protrudes as little as possible, thereby taking up little space and reducing the risk of damaging the bracket during mounting. Such a gear mechanism also reduces the risk of the tilt bracket accidentally opening, causing the device to fall and possibly hit the installer. In addition, the gear mechanism helps to bear the weight of the device attached to the tilt bracket, especially since the installer does not need to use one hand to support the antenna at the desired angle while using the other hand to secure the tilt bracket in the correct position, thereby reducing the burden on the installer during installation.

In a possible embodiment of the first aspect, the gear mechanism further comprises a second cogwheel connected to the second carrier part, the tilting carrier further comprising a turning mechanism comprising a turning rod connected to the second cogwheel and sharing a central axis with the second cogwheel, the catch engaging with the second cogwheel when in the engaged position, such that the tilting mechanism only needs a small force applied by the installer.

In another possible embodiment of the first aspect, the blocking mechanism is in the engaged position, the catch slides over the top of the cog of the gear mechanism when the first and second housing portions are pivoted towards the fully folded position, and the catch interlocks with the side of the cog of the gear mechanism when the first and second housing portions are pivoted towards the fully open position, such that the tilt housing can be folded together without the installer applying too much force while the tilt housing can be held securely in the open position.

In another possible embodiment of the first aspect, the first and second frame portions each comprise a middle portion and side portions, the side portions being arranged at opposite edges of the middle portion and extending substantially perpendicular to the middle portion, the first frame portion folding into the second frame portion when the first and second frame portions are pivoted towards the fully folded position such that the tilt frame has as small an outer dimension as possible in the fully folded position.

In another possible embodiment of the first aspect, the tilt bracket further comprises a locking mechanism for locking the blocking mechanism in the unengaged position, such that the tilt bracket can be moved from the folded position to the more angularly expanded position without interference from other components.

In another possible embodiment of the first aspect, the locking mechanism extends perpendicular to the sides of the second housing portion and interconnects with the blocking mechanism when the blocking mechanism is in the unengaged position, providing a locking mechanism that is at least partially protected by the second housing portion but is still easily accessible and operable by an installer.

In another possible embodiment of the first aspect, the locking mechanism comprises an asymmetric knob which, when turned, connects with the blocking mechanism and moves the blocking mechanism to the unengaged position, facilitating a simple and reliable locking mechanism.

In another possible embodiment of the first aspect, the blocking mechanism further comprises a first blocking rod connected to the catch and extending parallel to the turning rod, the blocking mechanism being moved from the engaged position to the disengaged position by moving the first blocking rod in a direction towards the gear mechanism, providing a blocking mechanism which is easy for an installer to install and operate.

In a further possible embodiment of the first aspect, the catch extends from an end of the first blocking rod in a direction towards the gear mechanism, and wherein the blocking mechanism is pivotally connected to a side of the second housing part, facilitating a simple and reliable locking mechanism.

In another possible embodiment of the first aspect, the blocking mechanism further comprises a second blocking bar extending parallel to the first blocking bar, and the locking mechanism comprises hook means extending from the first blocking bar and interlocking with the second blocking bar in the unengaged position, so that the tilting bracket is easy to release from the engaged position and is also easy to hold in the unengaged position.

In another possible embodiment of the first aspect, the blocking mechanism comprises a spring loaded plate, which by moving the plate in a direction away from the gear mechanism, the blocking mechanism is moved from the engaged position to the unengaged position, providing an inexpensive but still reliable blocking mechanism.

In another possible embodiment of the first aspect, one edge of the spring loaded plate is connected to the middle of the second bracket part and the catch is arranged at the opposite edge of the spring loaded plate, providing a blocking mechanism that is protected by the bracket parts but still easy for the installer to reach and operate.

In another possible embodiment of the first aspect, the tilting frame comprises two interconnected gear mechanisms, the blocking mechanism comprises two interconnected catches, one catch being arranged at each side of the second frame part, providing a stable and always symmetrically operating tilting frame.

In another possible embodiment of the first aspect, the first cogwheel is integrated with a side of the first bracket part, providing a strong and durable and cost-effective tilting bracket.

In another possible embodiment of the first aspect, the first cogwheel is attached to a side of the first frame part, and by providing the tilt frame with a gear mechanism, the existing gearless tilt frame can be significantly improved.

In another possible embodiment of the first aspect, the turning mechanism further comprises a turning nut arranged outside the side of the second bracket part, and the second cogwheel is arranged inside the side of the second bracket part, so that the tilting bracket is easy to operate by the installer, even remotely.

According to a second aspect, a pivotable antenna structure is provided. The pivotable antenna structure includes an antenna, a pivot bracket, and a tilt bracket according to the above, the tilt bracket and the pivot bracket connected to the antenna, the tilt bracket pivoting the antenna about the pivot bracket as the first and second bracket portions pivot between the fully open position, the fully collapsed position, and the intermediate position. Such an antenna structure is reliable, safe and easy to operate for the installer, since the tilting bracket has a gear mechanism which is always movable in the folding direction and locked or movable in the opposite direction.

In a possible embodiment of the second aspect, the pivot bracket and the tilt bracket are adapted to be connected to a vertically extending structure, the tilt bracket being arranged at a position vertically above the pivot bracket, the tilt angle of the antenna being able to be increased by the weight of the antenna alone.

In another possible embodiment of the second aspect, the antenna is held at a desired angle relative to the vertically extending structure by means of a tilting bracket, allowing for simple and convenient adjustment of the tilt angle of the antenna.

This and other aspects will be apparent from the embodiments described below.

Drawings

In the following detailed part of the disclosure, aspects, embodiments, and implementations will be described in more detail in connection with exemplary embodiments shown in the accompanying drawings, in which:

fig. 1 shows a perspective view of an antenna structure arranged in an intermediate position according to an embodiment of the invention;

FIG. 2 shows the embodiment of FIG. 1 arranged in a folded position;

FIG. 3a shows a perspective view of a tilt bracket according to an embodiment of the present invention arranged in an intermediate position;

FIG. 3b shows the embodiment of FIG. 3a disposed in a fully open position;

FIG. 3c shows the embodiment of FIGS. 3a and 3b arranged in a fully folded position;

FIG. 4 shows a perspective view of a tilt bracket arranged in an intermediate position according to another embodiment of the present invention;

fig. 5a and 5b show perspective views of a tilting bracket arranged in an intermediate position according to another embodiment of the invention;

FIG. 5c shows the embodiment of FIGS. 5a and 5b arranged in a fully folded position;

FIG. 6a shows a side view of the embodiment of FIGS. 5 a-5 c with the blocking mechanism in an engaged position;

FIG. 6b shows the embodiment of FIG. 6a with the blocking mechanism in an unengaged position;

figure 7a shows a side view of a cogwheel according to an embodiment of the invention, with the blocking mechanism in the engaged position;

FIG. 7b shows the embodiment of FIG. 7a with the blocking mechanism in an unengaged position.

FIG. 8a shows a side view of a locking mechanism according to an embodiment of the invention.

Fig. 8b shows a perspective view of a locking mechanism according to another embodiment of the invention.

Fig. 8c shows a perspective view of a locking mechanism according to another embodiment of the invention.

Fig. 8d shows a perspective view of a locking mechanism according to another embodiment of the invention.

Detailed Description

Fig. 3a to 3c and 5a to 5c show a tilting bracket 1 comprising a first bracket part 2 and a second bracket part 3. The frame part 2 and the frame part 3 can be pivoted relative to each other between a fully open position P1, a fully folded position P2, and one or several intermediate positions P3.

The first and second frame portions 2, 3 are pivotally connected at one end by a pivot means 4, for example a shaft extending between the opposed side portions 2b, 3b and 2c, 3c of the two frames 2, 3 as shown in figures 5a to 5 b. Alternatively, two separate devices (e.g. bolts or screws) may be used to connect only one pair of adjacent sides 2b and 3b or only one pair of adjacent sides 2c and 3c, for example by placing them in holes in sides 2b and 3b as shown in figures 3a to 3b, or in holes in sides 2c and 3 c.

The first frame part 2 comprises a plate-like middle part 2a, which plate-like middle part 2a may be provided with through holes for receiving the fingers of the installer and allowing access to the interior of the tilting frame 1 when the tilting frame is in the fully folded position. The two side portions 2b, 2c are arranged at opposite edges of the central portion 2a and extend in the same direction and substantially perpendicular to the central portion 2a, so that the first bracket part is U-shaped in cross-section.

The second bracket part 3 comprises a plate-like middle part 3a, which plate-like middle part 3a may be provided with through holes for receiving the fingers of the installer and allowing access to the interior of the tilting bracket 1 when the tilting bracket is in the folded position. The two side portions 3b, 3c are arranged at opposite edges of the central portion 3a and extend in the same direction and substantially perpendicularly to the central portion 3a, so that the second bracket part is U-shaped in cross-section.

The outer width of the first frame portion 2 defined by the side portions 2b, 2c is slightly less than the inner width of the second frame portion 3 defined by the side portions 3b, 3c, such that the first frame portion 2 can be at least partially folded into the second frame portion 3 when the first and second frame portions 2, 3 are pivoted towards the fully folded position P2 (as shown in fig. 3c and 5 c).

The tilting frame 1 further comprises a gear mechanism 5, which gear mechanism 5 comprises a first cogwheel 5 a. The first cogwheel 5a is preferably connected to the side portions 2b, 2C of the first frame part 2 and shares a centre axis C1 with the pivot means 4.

The first cogwheel 5a may be integral with the side portions 2b, 2c of the first frame part 2 or the first cogwheel 5a may be a separate part fixedly connected to the side portions 2b, 2c of the first frame part 2. When the first cogwheel 5a is a separate part, the first cogwheel 5a preferably extends parallel to the side portions 2b, 2c and is fixedly connected to the inner sides of the side portions 2b, 2c of the first frame part 2, i.e. to the side of the side portion 2b facing the side portion 2c and to the side of the side portion 2c facing the side portion 2 b.

The gear mechanism 5 may further comprise a second cogged wheel 5b, preferably the second cogged wheel 5b is pivotally connected to the inner side of the side parts 3b, 3c of the second bracket part 3, i.e. to the side of the side part 3b facing the side part 3c and to the side of the side part 3c facing the side part 3 b. The second cogwheel 5b extends parallel to the side portions 3b, 3 c.

The cogs 9 on the first cogwheel 5a mesh with the cogs 9 on the second cogwheel 5b and, with the rotation of the cogwheels 5a and 5b, the carrier part 2 and the carrier part 3 pivot relative to each other between a fully open position P1, a fully folded position P2, and one or several intermediate positions P3. In the fully open position P1, the first frame part 2 and the second frame part 3 extend from the pivot means and the central axis C1 of the pivot means such that the angle between the frame parts 2, 3 is about 180 °. In the fully folded position P2, the first leg portion 2 and the second leg portion 3 overlap each other and extend substantially parallel to each other such that the angle between the leg portions 2 and 3 is approximately 0 °. The intermediate position P3 refers to any possible position and angle between the fully open position P1 and the fully folded position P2.

The gear mechanism 5 is connected to the rotation mechanism 6 such that the installer can operate the tilting frame 1 by rotating the rotation mechanism 6, i.e. move the first frame part 2 and the second frame part 3 between position P1, position P2, and position P3. As shown in fig. 3a and 5a, the turning mechanism 6 comprises a turning rod 6a, which turning rod 6a is fixedly connected to the second cogwheel 5b and shares a central axis C2 with the second cogwheel 5 b. The central axis C1 and the central axis C2 are parallel to each other and perpendicular to the sides 2b, 2C, 3b, 3C.

The turning mechanism 6 further comprises a turning nut 6b arranged outside the side portions 3b, 3c of the second bracket part 3, such that the second cogwheel 5b is arranged on one side of the side portions 3c, 3b and the turning nut 6b is arranged on the other side of the side portions 3c, 3 b. The turning rod 6a extends from the turning nut 6b through one of the side portions 3b, 3c and to, preferably at least partially through the other of the side portions 3c, 3 b. The turning nut is designed to interlock with a conventional tool such as a wrench.

The tilting bracket 1 further comprises a blocking mechanism 7, which blocking mechanism 7 is pivotable between an engaged position P4 and an unengaged position P5. The blocking mechanism remains in the engaged position P4 as long as no additional force is applied to the blocking mechanism. The blocking mechanism 7 comprises a catch 8, the catch 8 being in engagement with the second cogwheel 5b (as shown in fig. 3a and 5a) or with the first cogwheel 5a (as shown in fig. 4) when the blocking mechanism 7 is in the engaged position P4. Accordingly, as shown in fig. 8a to 8d, the second cogwheel 5b of the first cogwheel 5a is free to rotate when in the unengaged position P5. For simplicity, the blocking mechanism 7 will be described with reference to the embodiments shown in fig. 3a to 3c and 5a to 5 c. However, the following description also applies to the embodiment shown in fig. 4, the blocking mechanism 7 in fig. 4 being in direct engagement with the first cogwheel 5a, but not with the second cogwheel 5 b.

The blocking mechanism 7 is arranged such that when the blocking mechanism 7 is in the unengaged position P5 and the engaged position P4, the gear mechanism 5 is allowed to pivot the first and second frame portions 2, 3 towards the fully folded position P2 or any further folded intermediate position P3. Therefore, the tilting bracket 1 can be folded all the time. However, when the blocking mechanism 7 is in the engaged position P4, the blocking mechanism 7 prevents the gear mechanism 5 from pivoting the first and second frame portions 2, 3 towards the fully open position P1 or any further open intermediate position P3. In order for the gear mechanism 5 to pivot the first and second frame portions 2, 3 towards the fully open position P1, the blocking mechanism 7 must be in the unengaged position P5.

The tilting frame 1 may comprise one gear mechanism 5 arranged on one pair of adjacent sides 2b, 3b or one pair of adjacent sides 2c, 3c, or the tilting frame 1 may comprise two interconnected gear mechanisms 5, one gear mechanism 5 being arranged on each of the adjacent pair of sides 2b, 3b and the adjacent pair of sides 2c, 3 c. As shown in fig. 5b, the blocking mechanism 7 of the latter embodiment is preferably provided with two interconnected catches 8, each catch 8 being arranged to interlock with each second cogwheel 5 b.

The catch 8 is arranged to extend at an angle to the periphery of the second cogwheel 5b such that the catch 8 extends substantially tangentially to the second cogwheel 5b when in the engaged position P4. As shown in fig. 7a, the front edge of the catch 8 engages with the side faces 9b of the cogs 9 on the second cogwheel 5b, preventing the second cogwheel 5b from rotating in a direction towards the catch 8, so that the gear mechanism 5 will not move if the installer tries to rotate the first and second rack portions 2, 3 towards the fully open position P1. However, as shown in fig. 7b, when the second cog wheel 5b is rotated in the opposite direction (i.e. away from the catch 8), e.g. when the installer tries to rotate the first bracket part 2 and the second bracket part 3 towards the fully folded position P2, the catch 8 slides over the tooth tip 9a of the cog 9.

As shown in fig. 3a to 3c, the blocking mechanism 7 may include a first blocking lever 11a, and the first blocking lever 11a is parallel to the rotating lever 6a and connected to the catch 8. The first blocking rod 11a extends between the side parts 3b, 3c of the second housing part 3, and a catch 8 extends from one or both ends of the first blocking rod 11a in parallel with the side parts 3b, 3c in a plane perpendicular to the centre axis of the first blocking rod 11a, i.e. the catch 8 extends in a general direction towards the second cogwheel 5 b.

The central part of the catch 8 is pivotally connected to the side parts 3b, 3c such that the blocking mechanism 7 can pivot about said connecting part, the catch 8 moving in a direction away from the second cogwheel 5b when the first blocking lever 11a is pushed in a direction towards the second cogwheel 5b, and conversely the catch 8 moving in a direction towards the second cogwheel 5b when the first blocking lever 11a is released or the first blocking lever 11a is actively pulled in a direction away from the second cogwheel 5 b. In other words, by moving (i.e., pushing) the first blocking lever 11a in the direction toward the second cog wheel 5b, the blocking mechanism 7 is moved from the engaged position P4 to the unengaged position P5.

The blocking mechanism 7 may further comprise a second blocking rod 11b, which second blocking rod 11b is parallel to the swivelling rod 6a and extends between the side portions 3b, 3c of the second bracket part 3. The second blocking lever 11b is located between the first blocking lever 11a and the second cogwheel 5b such that the first blocking lever 11a is pushed towards the second blocking lever 11b when the blocking mechanism 7 is moved from the engaged position P4 to the unengaged position P5.

As shown in fig. 5a to 5c, the blocking mechanism 7 may alternatively comprise a spring loaded plate 12. One edge 12a of the spring loaded plate 12 is connected to the middle portion 3a of the second bracket part 3 such that the main plane of the spring loaded plate 12 extends at an angle from the middle portion 3a towards the periphery of the second cogwheel 5 b. The catch 8 is arranged at the opposite edge 12b of the spring-loaded plate 12, i.e. the edge closest to the second cogwheel 5 b. The catch 8 protrudes as an extension of the spring-loaded plate so that the spring-loaded plate 12 may have an H-shape, wherein the upper end of the H-shaped leg comprises the catch 8 and the lower end of the H-shaped leg is fixedly connected with the middle portion 3a of the second bracket part 3. The lower end of the leg of the H-shape may be bent relative to the rest of the spring-loaded plate 12 such that the lower end of the leg of the H-shape is parallel to the middle portion 3a of the second bracket part 3.

The blocking mechanism 7 shown in fig. 5a to 5c pivots about the fixed connection when moving between the engaged position P4 and the unengaged position P5. When the edge 12b of the spring loaded plate 12 is pulled in a direction away from the second cogwheel 5b, the catch 8 moves in a direction away from the second cogwheel 5b, and when the edge 12b of the spring loaded plate 12 is released or pushed towards the second cogwheel 5b, the catch 8 moves in a direction towards the second cogwheel 5 b. In other words, by moving (i.e. pulling) the edge 12b of the spring loaded plate 12 in a direction away from the second cog wheel 5b, the blocking mechanism 7 is moved from the engaged position P4 to the unengaged position P5.

The installer may manually move the blocking mechanism 7 to the unengaged position P5. As described above, this operation can be achieved by pushing a part of the blocking mechanism in a direction towards the second cogwheel 5b for the embodiment shown in fig. 3a to 3c, or by pulling the blocking mechanism 7 in a direction away from the second cogwheel 5b for the embodiment shown in fig. 5a to 5 c.

However, the tilt bracket 1 preferably further comprises a locking mechanism 10, which locking mechanism 10 can be used to lock the blocking mechanism 7 in the unengaged position P5, so that the installer does not have to manually move or hold the blocking mechanism.

As shown in fig. 3c and 8a, the locking mechanism 10 may include a hook means 10b extending from the first stopper bar 11a perpendicularly to the central axis of the first stopper bar 11a, and the hook means 10b is connected to the second stopper bar 11b at the non-engagement position P5 by hooking on the second stopper bar 11 b.

The locking means 10 may further extend from the side portions 3b, 3c of the second frame part 3 perpendicular to the side portions 3b, 3c and adapted to interconnect the blocking means 7 when the blocking means 7 is in the engaged position P4 and to move the blocking means 7 towards the engaged position P5.

As shown in fig. 5a, 6a, and 6b, the locking mechanism 10 may include an asymmetric knob 10a that, when rotated, connects with the blocking mechanism 7 and moves the blocking mechanism 7 to the unengaged position P5. The asymmetric knob 10a extends through the sides 3b, 3c of the second housing part 3 and can be manually pivoted by the installer from the outside of the second housing part 3 when it is connected with the blocking mechanism 7 inside the second housing part 3. Fig. 5a, 6a, and 6b show the asymmetric knob 10a in contact with the spring-loaded plate 12, but the asymmetric knob 10a may also be used with the embodiment as shown in fig. 3 a-3 c, in which case the asymmetric knob 10a is in contact with the end of the catch 8 adjacent the first blocking lever 11 a.

As shown in fig. 8b, the locking mechanism 10 may also include an elongated pin extending through the side portions 3b, 3 c. The pin is movable between: a position projecting towards the outside of the second bracket part 3 and not affecting the position of the blocking mechanism 7, a position projecting towards the outside of the second bracket part 3 and usable for locking the blocking mechanism 7 in the unengaged position P5. When locked in the unengaged position P5, the pin will come into contact with the end of the catch 8 adjacent the first blocking lever 11 a.

As shown in fig. 8c, the locking mechanism 10 may also include triangular buckles that extend through the side portions 3b, 3 c. The triangular clasp is pivotable between: a position projecting towards the outside of the second bracket part 3 and not affecting the position of the blocking mechanism 7, a position projecting towards the outside of the second bracket part 3 and usable for locking the blocking mechanism 7 in the unengaged position P5. When locked in the unengaged position P5, the pin will come into contact with the end of the catch 8 adjacent the first blocking lever 11 a.

As shown in fig. 8d, the locking mechanism 10 may also comprise an elongated pin connected to the side portions 3b, 3c and extending parallel to the side portions 3b, 3 c. The pin is pivotable about one end thereof between: for example, a position parallel to the blocking mechanism 7 without affecting the position of the blocking mechanism 7, a position extending towards the blocking mechanism 7 and operable to lock the blocking mechanism 7 in the unengaged position P5. When locked in the unengaged position P5, the pin will come into contact with the end of the catch 8 adjacent the first blocking lever 11 a.

Fig. 1 and 2 show a pivotable antenna structure comprising an antenna 13 as described above, a pivoting bracket 14, and a tilting bracket 1. The term "antenna" is not intended to be strictly limiting, but includes one or several antennas and any type of device that is difficult to install in an area that is difficult to access, especially at a particular angle. The tilt bracket 1 and the pivot bracket 14 are connected to the antenna 13 such that the tilt bracket 1 pivots the antenna 13 about the pivot bracket 14 as the first and second bracket portions 2, 3 pivot between the fully open position P1, the fully folded position P2, and the intermediate position P3.

The pivoting bracket 14 and the tilting bracket 1 are adapted to be connected to a vertically extending structure 15, such as a building or a pole. By means of the tilting bracket 1, the antenna 13 is moved to and maintained at a desired angle relative to the vertically extending structure 15. The tilting bracket 1 is preferably positioned vertically above the pivoting bracket 14 so that the weight of the antenna 13 helps move the first and second bracket parts 2, 3 towards the fully open position.

Various aspects and embodiments have been described in connection with various embodiments herein. However, other variations to the disclosed embodiments can be understood and effected by those skilled in the art in practicing the claimed subject matter, from a study of the drawings, the disclosure, and the appended claims. In the claims, the word "comprising" does not exclude other elements or steps, and the indefinite article "a" or "an" does not exclude a plurality. The mere fact that certain measures are recited in mutually different dependent claims does not indicate that a combination of these measures cannot be used to advantage.

Reference signs used in the claims shall not be construed as limiting the scope.