Hanging bracket rooting piece and adjustable electromechanical pipeline hanging bracket

Abstract

The utility model discloses a hanging bracket rooting piece and an adjustable electromechanical pipeline hanging bracket. The hanging bracket rooting piece comprises a hanging rack rail, at least one tooth-shaped sliding block and at least two anchor bolts, wherein the tooth-shaped sliding block is movably arranged on the hanging rack rail in the length direction of the hanging rack rail, and the anchor bolts penetrate through the hanging rack rail. Structural safety of the floor slab is not affected, the floor slab does not need to be drilled again to adjust the installation position of the hanging bracket rooting piece, and the hanging bracket has the advantage of being reliable in connection.

Description

Technical Field

[0001] This utility model relates to the field of electromechanical pipeline installation, and in particular to a hanger anchoring component and an adjustable electromechanical pipeline hanger. Background Technology

[0002] Mechanical anchor bolts and supports are typically used to secure hangers for electromechanical pipelines such as air ducts, water pipes, and cable trays under the floor slab. Once installed, if the position of the hangers needs to be adjusted, new holes must be drilled and anchored to the floor slab again. The disadvantages of this method are twofold: firstly, re-drilling near the original holes in the floor slab creates multiple holes, causing structural loosening of the concrete in these areas. This results in insufficient compressive force on the anchor bolts, affecting the stability of the hangers and compromising the structural safety of the floor slab. Utility Model Content

[0003] The purpose of this utility model is to provide a hanger anchoring component and an adjustable electromechanical pipeline hanger to solve the problem that traditional supports need to be re-drilled and adjusted for installation on the floor slab, as well as the problem that the connection of the supports on the floor slab is unreliable due to the need to re-drill holes to adjust their installation position, and the problem that structural loosening in the area adjacent to multiple drilled holes affects the structural safety of the floor slab.

[0004] To solve the above-mentioned technical problems, the technical solution provided by this utility model is: a hanger anchoring component, including a suspension toothed rail, at least one toothed slider disposed thereon along the length direction of the suspension toothed rail, and at least two anchor bolts passing through the suspension toothed rail.

[0005] Furthermore, the hanger anchoring component provided by this utility model includes a suspension toothed rail comprising a suspension cavity composed of a base plate, two side plates, and two panels. Each panel has a toothed groove on its upper surface, and a central slot is formed between the two panels. The toothed slider includes a toothed hanger and a vertically connected vertical rod. The lower surface of the toothed hanger has teeth that match the toothed groove. The cross-sectional dimension of the vertical rod is smaller than the width of the central slot. The toothed slider is movable within the suspension cavity of the suspension toothed rail through the central slot. When the toothed slider is lifted upwards, its teeth separate from the toothed groove of the suspension toothed rail, allowing the toothed slider to be in an adjustable position relative to the suspension toothed rail. When the toothed slider falls, its teeth engage with the toothed groove of the suspension toothed rail, allowing the toothed slider to be in a fixed position relative to the suspension toothed rail.

[0006] Furthermore, in the hanging bracket anchoring component provided by this utility model, the toothed hanging component is planar.

[0007] Furthermore, in the hanging bracket anchoring component provided by this utility model, the toothed hanger is U-shaped, and the teeth are disposed on the two vertical plates of the U-shaped toothed hanger.

[0008] Furthermore, in the hanging anchor component provided by this utility model, the side plate and the front panel are of equal length, the bottom plate is longer than the side plate, the two ends of the bottom plate extend symmetrically from the areas of the side plate as avoidance areas, and at least two anchor bolts are distributed in the avoidance areas at both ends of the bottom plate.

[0009] To solve the above-mentioned technical problems, another technical solution provided by this utility model is: an adjustable electromechanical pipeline hanger, including at least two supports, wherein the supports are the hanger anchoring components mentioned above, a hanging rod is vertically connected to the toothed slider of each hanger anchoring component, and a support component is horizontally connected to the lower end of the two hanging rods that are distributed in a straight line between two adjacent hanger anchoring components.

[0010] Furthermore, the adjustable electromechanical pipeline hanger provided by this invention has four hangers, with two hangers adjustablely installed on each hanger anchoring member, and the four hangers are arranged in a rectangular distribution; there are two support members, both vertically distributed below the hanger anchoring member, and each support member is horizontally connected to two hangers that are arranged in a straight line between the two hanger anchoring members.

[0011] Furthermore, the adjustable electromechanical pipeline hanger provided by this invention has three anchoring components, three hanging rods arranged in a straight line, and one support component horizontally connected to the three hanging rods. The support component between each pair of adjacent hanging rods forms a support interval.

[0012] Furthermore, the adjustable electromechanical pipeline hanger provided by this invention has three hanger anchoring components and four hanger rods. The middle hanger anchoring component has two hanger rods, while the other hanger anchoring components each have one hanger rod. The two hanger rods on the middle hanger anchoring component are each horizontally connected to a support component by a support component. The two support components are staggered to form two support intervals.

[0013] Compared with the prior art, the beneficial effects of this utility model are as follows:

[0014] The hanger anchoring component and adjustable electromechanical pipeline hanger provided by this utility model are used to suspend and anchor the hanger to the floor slab using anchor bolts. The relative position of the toothed slider on the suspension toothed rail is changed by moving the toothed slider on the suspension toothed rail, thereby changing the installation position of the toothed slider and the connected hanger rod relative to the floor slab. This, in turn, changes the installation position of the support component connected by the hanger rod relative to the floor slab. When the installation position of the adjustable electromechanical pipeline hanger on the floor slab is repositioned and adjusted, there is no need to re-drill holes near the original holes in the floor slab, avoiding loosening of the concrete structure in the floor slab and not affecting the structural safety of the floor slab. This solves the problem of unreliable connection between the traditional electromechanical pipeline hanger and the floor slab when re-drilling holes for installation. It has the advantages of reliable connection, stable structure, convenient construction, and convenient position adjustment.

[0015] The adjustable electromechanical pipeline hanger provided by this utility model, when the adjustable electromechanical pipeline hanger assembled by the hanger anchoring component and its connected hanger rod and support component is anchored on the floor slab, when the electromechanical pipeline on the hanger conflicts with the position of other electromechanical pipelines, the position of the toothed slider relative to the suspension toothed rail is adjusted. The toothed slider, through its connected hanger rod, drives the support component to flexibly adjust its position on the suspension toothed rail, changing the hoisting position of the support component relative to the floor slab, that is, changing the installation position of the adjustable electromechanical pipeline hanger relative to the floor slab, so that the adjustable electromechanical pipeline hanger can be anchored on the floor slab without re-drilling holes.

[0016] The adjustable electromechanical pipeline hanger provided by this utility model does not require changing the position of the support component when the anchor bolt drilling encounters the steel reinforcement in the floor slab. Instead, it avoids the steel reinforcement by changing the position of the anchor bolts distributed on the suspension toothed rail. Thus, the hanger anchoring component is fixed to the floor slab without changing the position of the support component. This achieves the anchoring installation of the adjustable electromechanical pipeline hanger on the floor slab, avoids the problem of having to change the installation position of the support component due to the restriction of the steel reinforcement, and improves the installation accuracy of the adjustable electromechanical pipeline hanger. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the three-dimensional assembly structure of the hanger anchoring components;

[0018] Figure 2 This is a three-dimensional exploded view of the hanger anchoring component;

[0019] Figure 3 This is a three-dimensional structural diagram of the suspended rack and its anchor bolts;

[0020] Figure 4 This is a three-dimensional structural diagram of the toothed slider;

[0021] Figure 5 This is a schematic diagram of the main structure of the hanger anchoring components installed on the floor slab;

[0022] Figure 6 This is a side view of the structure of the hanger anchoring components installed on the floor slab;

[0023] Figure 7 This is a three-dimensional structural schematic diagram of an adjustable electromechanical pipeline hanger according to one embodiment;

[0024] Figure 8 This is a three-dimensional structural schematic diagram of an adjustable electromechanical pipeline hanger according to another embodiment;

[0025] Figure 9 This is a three-dimensional structural schematic diagram of an adjustable electromechanical pipeline hanger according to another embodiment;

[0026] Figure 10 This is a three-dimensional structural diagram of an adjustable electromechanical pipeline hanger according to another embodiment;

[0027] As shown in the figure:

[0028] 100. Adjustable electromechanical pipeline hanger;

[0029] 110. Hanger anchoring component; 111. Suspension gear; 111-1. Base plate; 111-2. Side plate; 111-3. Panel; 111-4. Toothed groove; 111-5. Center groove; 111-6. Cavity; 112. Toothed slider; 112-1. Toothed hanger; 112-2. Vertical rod; 112-3. Tooth; 113. Anchor bolt.

[0030] 120. Hanging rod;

[0031] 130. Supporting components;

[0032] 200. Floor slab;

[0033] 300. Electromechanical pipelines. Detailed Implementation

[0034] The present invention will now be described in detail with reference to the accompanying drawings. The advantages and features of the present invention will become clearer from the following description. It should be noted that the drawings are all in a very simplified form and use non-precise proportions, and are only used to facilitate and clarify the illustration of the embodiments of the present invention.

[0035] Example 1

[0036] Please refer to Figures 1 to 4 This utility model provides a hanger anchoring component 110, including a suspension toothed rail 111, at least one toothed slider 112 that is movably disposed on the suspension toothed rail 111 along its length direction, and at least two anchor bolts 113 that pass through the suspension toothed rail 111.

[0037] Please refer to Figures 5 to 6The hanger anchoring component 110 provided in this embodiment of the present invention is used to suspend and anchor the hanger to the floor slab 200 by means of anchor bolts 113. Specifically, the suspension toothed rail 111 is anchored to the floor slab 200 by means of anchor bolts 113. Then, the installation position of the toothed slider 112 relative to the floor slab 200 is changed by moving the toothed slider 112 on the suspension toothed rail 111. This avoids the need to re-drill holes in the floor slab 200, thus avoiding the use of conventional supports such as corner plates. When the anchor bolt is anchored to the floor slab, if it is necessary to adjust its installation position on the floor slab 200, it is necessary to re-drill holes near the support and re-anchor the support to change the installation position of the support on the floor slab 200. This avoids structural damage to the floor slab 200, prevents the concrete structure of the floor slab 200 from becoming loose or scattered in multiple drilling areas, thus affecting the structural safety and service life of the floor slab 200, and also solves the problem of unreliable connection caused by the anchoring installation of the hanger anchoring component 110 on the floor slab 200 in the drilling areas.

[0038] Please refer to Figures 1 to 6In order to achieve adjustable installation of the toothed slider 112 relative to the suspension toothed rail 111, the present invention provides a hanger anchoring member 110, wherein the suspension toothed rail 111 includes a suspension cavity 111-6 composed of a base plate 111-1, two side plates 111-2 and two panels 111-3, each of the panels 111-3 having a toothed groove 111-4 on its upper surface, and a central slot 111-5 formed between the two panels 111-3. The toothed slider 112 includes a toothed hanger 112-1 and a vertically connected vertical rod 112-2, i.e., the toothed slider 112 has a T-shaped structure. The lower surface of the toothed hanger 112-1 has teeth 112-3 that match the toothed groove 111-4. The cross-sectional dimension of the vertical rod 112-2 is smaller than the width of the central slot 111-5. The toothed slider 112 is movably disposed within the suspension cavity 111-6 of the suspension toothed rail 111 through the central slot 111-5. When the toothed slider 112 is lifted upward, its teeth 112-3... -3 separates from the toothed groove 111-4 of the suspension toothed rail 111, so that the toothed slider 112 is in an adjustable position relative to the suspension toothed rail 111. At this time, the position of the toothed slider 112 on the suspension toothed rail 111 can be changed by moving the toothed slider 112. When the toothed slider 112 falls, its teeth 112-3 engage with the toothed groove 111-4 of the suspension toothed rail 111, so that the toothed slider 112 is in a fixed position relative to the suspension toothed rail 111, thereby maintaining the reliable suspension connection between the toothed slider 112 and the suspension toothed rail 111 and avoiding positional movement. The mating structure of the toothed groove 111-4 and the teeth 112-3 has the advantages of convenient adjustment, stability after adjustment, and reliability. To prevent displacement of the toothed slider 112 after engagement of the teeth 112-3 with the toothed groove 111-4 of the suspension rack 111, the teeth 112-3 and the toothed groove 111-4 are matched isosceles triangular teeth. Triangular teeth with one side longer than the other are prohibited, as this can cause displacement in one direction, leading to unreliable suspension connections. When the suspension rack 111 is installed on the floor slab 200, its base plate is attached to the floor slab 200, while the panel 111-3 is away from the floor slab 200.

[0039] Please refer to this carefully. Figure 4 The hanger anchoring component 110 provided in this embodiment of the utility model has a U-shaped toothed hanger 112-1, with teeth 112-3 disposed on two vertical plates of the U-shaped toothed hanger 112-1. With this structure, when the teeth 112-3 wear down, they can be repaired with a file, avoiding direct replacement, thus extending its service life and reducing costs. Of course, to achieve a reliable suspension connection between the toothed slider 112 and the suspension toothed rail 111, the toothed hanger 112-1 can also be planar.

[0040] Please refer to Figure 3 To avoid the anchor bolts 113 penetrating the suspension toothed rail 111 and hindering the movement of the toothed slide rail 112 within the suspension cavity 111-6 of the suspension toothed rail 111, the hanger anchoring member 110 provided in this embodiment has side plates 111-2 and front plates 111-3 of equal length, and a base plate 111-1 of greater length than side plates 111-2. The two ends of the base plate 111-1 symmetrically extend beyond the areas of the side plates 111-2, forming a clearance area. At least two anchor bolts 113 are distributed in the clearance areas at both ends of the base plate 111-1. In this case, the anchor bolts 113 are located outside the suspension cavity 111-6, not affecting the movement of the toothed slide rail 112 within the suspension cavity 111-6 of the suspension toothed rail 111, thus facilitating the adjustment of the position of the toothed slide rail 112 relative to the suspension toothed rail 111.

[0041] Example 2

[0042] Please refer to Figures 7 to 10 and combined Figures 1 to 6 This utility model provides an adjustable electromechanical pipeline hanger 100, including at least two supports, each of which is a hanger anchoring member 110 as described in the above embodiment. A hanger rod 120 is vertically connected to a toothed slider of each hanger anchoring member 110, and a support member 130 is horizontally connected to the lower ends of two hanger rods 120 arranged in a straight line between adjacent hanger anchoring members 110. The hanger rod 120 can be a cylindrical rod with external threads, in which case the vertical member 112-2 is a pipe with internal threads; alternatively, the hanger rod 120 can be a round steel pipe with internal threads, in which case the vertical member 112-2 is a rod with external threads. The support member 130 can be a straight component such as angle steel, angle iron, steel plate, square steel pipe, or round steel pipe.

[0043] Figure 7 The example illustrates an implementation scheme for an adjustable electromechanical pipeline hanger 100 consisting of two supports, namely two hanger anchors 110, two hanger rods 120, and one support 130. Electromechanical pipelines are supported by a single support 130. During installation, the adjustable electromechanical pipeline hanger 100 is merely a node. In actual use, several adjustable electromechanical pipeline hangers 100 are installed on the floor slab 200 at predetermined intervals, allowing a single electromechanical pipeline to be supported by several supports 130. Figure 5 The electromechanical pipeline 300 shown is an example before placement; after placement, the electromechanical pipeline 300 rests on the support 130. Figure 7 The adjustable electromechanical pipeline hanger 100 can also be used to support electromechanical equipment, not limited to supporting electromechanical pipelines 300, that is, it can be used independently.

[0044] The adjustable electromechanical pipeline hanger 100 provided in this embodiment of the invention, in use, suspends and anchors the hanger anchoring member 110 to the floor slab 200 by anchor bolts 113. The relative position of the toothed slider 112 on the suspension toothed rail 111 is changed by moving the toothed slider 112 on the suspension toothed rail 111, thereby changing the installation position of the toothed slider 112 and its connected hanger rod 120 relative to the floor slab 200, and consequently changing the position of the support member 130 connected to the hanger rod 120 relative to the floor slab 200. When the adjustable electromechanical pipeline hanger 100 is repositioned and adjusted on the floor slab 200, there is no need to re-drill holes near the original holes in the floor slab 200. This avoids the problem of loosening and disintegration of the concrete structure in the floor slab 200, and does not affect the structural safety of the floor slab 200. It solves the problem of unreliable connection between the traditional electromechanical pipeline hanger and the floor slab 200 when re-drilling holes for installation. It has the advantages of reliable connection, stable structure, convenient construction and convenient position adjustment.

[0045] The adjustable electromechanical pipeline hanger 100 provided in this embodiment of the utility model can change the installation position of the hanger 120 connected to the toothed slider 112 relative to the floor slab 200 when it encounters a conflict with the position of other electromechanical pipeline hangers. This is achieved by adjusting the position of the toothed slider 112 relative to the suspension toothed rail 111, thereby changing the installation position of the support member 130 relative to the floor slab 200. This eliminates the need to re-drill holes in the floor slab 200 to install the adjustable electromechanical pipeline hanger 100, and has the advantages of flexible and convenient position adjustment.

[0046] The adjustable electromechanical pipeline hanger 100 provided in this embodiment of the utility model can avoid the reinforcing bars in the floor slab 200 when the anchor bolt 113 encounters them during drilling. This is achieved by changing the position of the anchor bolt 113 on the suspension toothed rail 111, without changing the position of the support member 130. Thus, the hanger anchoring member 110 is anchored to the floor slab 200 without changing the position of the support member 130. This realizes the anchoring installation of the adjustable electromechanical pipeline hanger 100 on the floor slab 200, avoids the problem of having to change the installation position of the support member 130 due to the restriction of the reinforcing bars in the floor slab 200, improves the installation accuracy of the adjustable electromechanical pipeline hanger 100, and reduces the complicated process of re-drilling.

[0047] Example 3

[0048] Please refer to this carefully. Figure 8 and combined Figures 1 to 7 , Figures 9 to 10To improve the load-bearing capacity of each node for electromechanical pipelines, this novel embodiment provides an adjustable electromechanical pipeline hanger 100. Four hanger rods 120 are provided, with two adjustable hanger rods 120 on each hanger anchoring member 110, arranged in a rectangular pattern. Two support members 130 are provided, both vertically distributed below the hanger anchoring members 110. Each support member 130 is horizontally connected to two hanger rods 120 arranged in a straight line between the two hanger anchoring members 110. Thus, the electromechanical pipelines share the load through the two parallel and spaced support members 130, resulting in a high load-bearing capacity.

[0049] Example 4

[0050] Please refer to this carefully. Figure 9 and combined Figures 1 to 8 and Figure 10 To achieve the suspension connection of parallel electromechanical pipelines while reducing costs, the adjustable electromechanical pipeline hanger 100 provided in Embodiment 4 of this invention includes three hanger anchoring components 110, three straight-lined hanger rods 120, and one horizontal support component 130 connected to the three hanger rods 120. Each pair of adjacent hanger rods 120 forms a support interval between the support component 130, i.e., two straight-lined support intervals are formed. Each parallel electromechanical pipeline can be supported within these two support intervals. This avoids the use of two independent adjustable electromechanical pipeline hangers 100, reduces the use of one hanger anchoring component 110 and one hanger rod 120, and lowers costs.

[0051] Example 5

[0052] To achieve the suspension connection of parallel electromechanical pipelines while reducing costs, this invention provides an adjustable electromechanical pipeline hanger 100. The hanger has three anchoring members 110 and four hanging rods 120. Two hanging rods 120 are located on the middle anchoring member 110, while the remaining anchoring members 110 each have one hanging rod 120. The two hanging rods 120 on the middle anchoring member 110 are each horizontally connected to a support member 130 by one of their adjacent anchoring members 120. The two support members 130 are staggered to form two support sections. This adjustable electromechanical pipeline hanger 100 reduces the use of one anchoring member 110, thereby achieving the suspension connection of parallel electromechanical pipelines while reducing costs. It can distribute the weight of parallel electromechanical pipelines on the floor slab 200, avoiding them from being subjected to force in a straight line, thus avoiding the risk of damage to the floor slab 200.

[0053] This utility model is not limited to the specific embodiments described above. Obviously, the embodiments described above are only some, not all, of the embodiments of this utility model. Based on the described embodiments of this utility model, all other embodiments obtained by those skilled in the art are within the scope of protection of this utility model. Those skilled in the art can make other levels of modifications and variations to this utility model. Therefore, if these modifications and variations of this utility model fall within the scope of the claims of this utility model, this utility model also intends to include these modifications and variations.

Claims

1. A hanger anchoring component, characterized in that, It includes a suspension rack, at least one toothed slider that is movable along the length of the suspension rack, and at least two anchor bolts that pass through the suspension rack.

2. The hanger anchoring component according to claim 1, characterized in that, The suspension toothed rail includes a suspension cavity composed of a base plate, two side plates, and two front panels. Each front panel has a toothed groove on its upper surface, and a central slot is formed between the two front panels. The toothed slider includes a toothed hanger and a vertically connected vertical rod. The lower surface of the toothed hanger has teeth that match the toothed groove. The cross-sectional dimension of the vertical rod is smaller than the width of the central slot. The toothed slider is movable within the suspension cavity of the suspension toothed rail through the central slot. When the toothed slider is lifted upwards, its teeth separate from the toothed groove of the suspension toothed rail, allowing the toothed slider to be in an adjustable position relative to the suspension toothed rail. When the toothed slider falls, its teeth engage with the toothed groove of the suspension toothed rail, allowing the toothed slider to be in a fixed position relative to the suspension toothed rail.

3. The hanger anchoring component according to claim 2, characterized in that, The toothed pendant is flat.

4. The hanger anchoring component according to claim 2, characterized in that, The toothed pendant is U-shaped, and the teeth are set on the two vertical plates of the U-shaped toothed pendant.

5. The hanger anchoring component according to claim 2, characterized in that, The side plates and the front panel are of equal length, the bottom plate is longer than the side plates, and the two ends of the bottom plate extend symmetrically from the areas of the side plates as avoidance areas. At least two anchor bolts are distributed in the avoidance areas at both ends of the bottom plate.

6. An adjustable electromechanical pipeline hanger, characterized in that, It includes at least two supports, the supports being hanger anchoring components as described in any one of claims 1-5, a hanger rod vertically connected to the toothed slider of each hanger anchoring component, and a support component horizontally connected to the lower ends of the two hanger rods that are distributed in a straight line between two adjacent hanger anchoring components.

7. The adjustable electromechanical pipeline hanger according to claim 6, characterized in that, There are four hanging rods, and two hanging rods are adjustablely installed on each hanging bracket rooting member. The four hanging rods are arranged in a rectangular pattern. There are two supporting members, both of which are vertically distributed below the hanging bracket rooting members. Each supporting member is horizontally connected to two hanging rods that are arranged in a straight line between the two hanging bracket rooting members.

8. The adjustable electromechanical pipeline hanger according to claim 6, characterized in that, The bracket has three anchoring components, the three hanging rods are arranged in a straight line, and the support component is one that is horizontally connected to the three hanging rods. The support component between each pair of adjacent hanging rods forms a support interval.

9. The adjustable electromechanical pipeline hanger according to claim 6, characterized in that, There are three hanging bracket anchoring components and four hanging rods. The middle hanging bracket anchoring component has two hanging rods, while the other hanging bracket anchoring components each have one hanging rod. The two hanging rods on the middle hanging bracket anchoring component are each horizontally connected to a support component with the hanging rods on their adjacent hanging bracket anchoring components. The two support components are staggered to form two support sections.

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