Weak current engineering comprehensive wiring auxiliary device

Abstract

The utility model relates to the technical field of line installation auxiliary devices, and discloses a weak current engineering comprehensive wiring auxiliary device comprising a pedestal structure comprising a U-shaped heat conduction pedestal; a first fixed side plate; a second fixed side plate; two fixed bottom plates; a plurality of groups of heat conduction type weak electric wire mounting structures, wherein each group of heat conduction type weak electric wire mounting structures can be mounted on or dismounted from the U-shaped heat conduction base; each group of heat conduction type weak electric wire mounting structures comprises a sliding adjusting part; each sliding adjusting component is provided with a positioning and clamping structure. A weak electric wire restraining and fixing part; each sliding adjusting component is further provided with a locking structure. Each weak electric wire restraining and fixing part is further provided with a heat conduction structure. By dismounting the second fixing side plate, the group number of the heat conduction type weak electric wire mounting structures in the U-shaped heat conduction base can be adjusted according to the number of the weak electric wires, so that the condition that the heat conduction type weak electric wire mounting structures are too many or too few can be avoided.

Description

Technical Field

[0001] This utility model relates to the technical field of line installation auxiliary devices, specifically a comprehensive cabling auxiliary device for low-voltage engineering. Background Technology

[0002] In the field of building electrical technology, it is usually divided into two parts: high-voltage electricity and low-voltage electricity. We call the electrical energy used for building power and lighting high-voltage electricity. High-voltage electricity systems can introduce electrical energy into the building and convert it into mechanical energy, heat energy, and light energy through electrical equipment. On the other hand, electrical energy used for transmitting signals and exchanging information is called low-voltage electricity. Low-voltage electricity systems complete the transmission and exchange of information within the building or between the building and the outside.

[0003] When laying out low-voltage lines, auxiliary devices are needed to install and fix them in order to make the wiring neater and tidier. However, existing wiring auxiliary devices cannot adjust the height and spacing of the lines according to actual needs because of their fixed structure.

[0004] Meanwhile, in the existing wiring auxiliary devices, after fixing the low-voltage lines, the fixed low-voltage lines are prone to overheating. Once the lines overheat and are difficult to dissipate in time, they are prone to catching fire, which can lead to safety accidents.

[0005] Based on this, a comprehensive cabling auxiliary device for low-voltage engineering is proposed. Summary of the Invention

[0006] (a) Technical problems to be solved

[0007] To address the shortcomings of existing technologies, this utility model provides an auxiliary device for integrated cabling in low-voltage engineering, which solves the problem mentioned in the background technology: when laying low-voltage lines, in order to make the line layout cleaner and neater, it is necessary to use an auxiliary device to install and fix the low-voltage lines. However, the existing cabling auxiliary devices cannot adjust the height and spacing of the lines according to actual needs because of their fixed structure.

[0008] Meanwhile, in the existing wiring auxiliary devices, after fixing the low-voltage lines, the fixed low-voltage lines are prone to overheating. Once the lines overheat and are difficult to dissipate in time, they are prone to catching fire, which can lead to safety accidents.

[0009] (II) Technical Solution

[0010] To achieve the above objectives, this utility model provides the following technical solution:

[0011] A low-voltage electrical engineering integrated cabling auxiliary device, comprising:

[0012] The base structure includes:

[0013] U-shaped heat-conducting base, wherein both ends of the U-shaped heat-conducting base are open;

[0014] The first fixed side plate is fixedly installed on one side opening of the U-shaped heat-conducting base;

[0015] The second fixed side plate is detachably installed on the opening of the U-shaped heat-conducting base on the side away from the first fixed side plate;

[0016] Two fixed base plates are respectively fixedly installed at both ends of the bottom of the U-shaped heat-conducting base;

[0017] Several sets of thermally conductive low-voltage wire mounting structures are slidably mounted on a U-shaped thermally conductive base, and each set of thermally conductive low-voltage wire mounting structures can be installed or removed from the U-shaped thermally conductive base.

[0018] Each group of thermally conductive low-voltage cable installation structures includes:

[0019] Each of the sliding adjustment components is slidably mounted on a U-shaped heat-conducting base;

[0020] Each of the aforementioned sliding adjustment components is equipped with a positioning clamping structure;

[0021] The low-voltage wire constraint and fixing components are adjustablely mounted on corresponding sliding adjustment components.

[0022] Each of the sliding adjustment components is also equipped with a locking structure, which is used to lock and fix the low-voltage wire constraint fixing component.

[0023] Each of the aforementioned low-voltage wire constraint fixing components is also provided with a heat-conducting structure.

[0024] Preferably, multiple fastening bolts are screwed onto both sides of the second fixed side plate, and the second fixed side plate is fastened to the U-shaped heat-conducting base by two sets of fastening bolts.

[0025] Preferably, both sides of the two fixed base plates are provided with assembly holes.

[0026] Preferably, the inner sidewalls on both sides of the U-shaped heat-conducting base are provided with inner guide grooves;

[0027] Each of the sliding adjustment components is a heat-conducting slider, and the inner cavity of each heat-conducting slider is hollow, with slide bars on both outer walls. Both slide bars are integrally formed with the heat-conducting slider.

[0028] The two sliders of the heat-conducting slider are slidably installed in the corresponding inner guide grooves;

[0029] Each of the aforementioned weak wire constraint fixing components is installed in the inner cavity of the heat-conducting slider;

[0030] Each set of positioning and clamping structures is installed on the corresponding heat-conducting slider;

[0031] Each locking structure is also installed on the corresponding heat-conducting slider.

[0032] Preferably, a groove is provided on the upper part of one side wall of the U-shaped heat-conducting base, and the groove is open at the end facing the second fixed side plate;

[0033] The outer end of each positioning and clamping structure is slidably installed in the slide groove.

[0034] Preferably, each of the low-voltage wire constraint and fixing components is a heat-conducting wire clamp plate, and each heat-conducting wire clamp plate is inserted and installed in the inner cavity of the corresponding heat-conducting slider;

[0035] Each of the heat-conducting clamp plates has a circular through slot on its upper part, and each of the heat-conducting clamp plates has a plug-in through slot on the upper part of the corresponding circular through slot. The circular through slot and the plug-in through slot are interconnected.

[0036] Each locking structure includes a threaded cylinder, each threaded cylinder is fixedly installed on the upper side wall of the corresponding heat-conducting slider, and the inner cavity of each threaded cylinder is connected to the inner cavity of the corresponding heat-conducting slider.

[0037] Each locking structure also includes a locking bolt, and each locking bolt is threaded into a corresponding threaded cylinder.

[0038] Preferably, each of the positioning and clamping structures includes a positioning threaded rod, each positioning threaded rod is fixedly installed in the middle of the side wall of the corresponding heat-conducting slider, and one outer end of each positioning threaded rod is slidably installed in the slide groove.

[0039] Each of the positioning and clamping structures further includes a clamping nut, and each clamping nut is screwed onto the corresponding positioning threaded rod.

[0040] Preferably, the heat-conducting structure includes two sets of heat dissipation through holes formed on each heat-conducting clamping plate and an arc-shaped heat-conducting inner bottom plate fixedly installed on the bottom of the inner cavity of each circular through slot;

[0041] In this case, each of the heat-conducting clamp plates has multiple sets of heat dissipation through holes, and both sets of heat dissipation through holes are interconnected with the circular through slots.

[0042] Preferably, Ω-shaped clamping plates are fixedly installed on both sides of the insertion slot.

[0043] Preferably, each of the arc-shaped heat-conducting inner bottom plates is coated with a heat-conducting coating on its inner arc surface.

[0044] Beneficial effects:

[0045] This utility model provides an auxiliary device for integrated cabling in low-voltage engineering, which has the following beneficial effects:

[0046] I. In this utility model, by disassembling the second fixed side plate, the number of sets of heat-conducting low-voltage wire installation structures in the U-shaped heat-conducting base can be adjusted according to the number of low-voltage wires, thereby avoiding the situation of too many or too few heat-conducting low-voltage wire installation structures.

[0047] Second, in this utility model, since each set of heat-conducting low-voltage wire installation structures can slide freely on the U-shaped heat-conducting base, the low-voltage wires constrained and fixed on the corresponding heat-conducting low-voltage wire installation structure can have their spacing freely adjusted.

[0048] Third, in this utility model, each set of heat-conducting low-voltage wire installation structure slides freely on the U-shaped heat-conducting base through a sliding adjustment component. Through the positioning and clamping structure installed on each sliding adjustment component, each sliding adjustment component can be positioned and clamped, thereby keeping the adjusted spacing fixed.

[0049] Fourth, in this utility model, each low-voltage wire is constrained and fixed on a corresponding low-voltage wire constraining and fixing component. At the same time, by adjusting the height of the low-voltage wire constraining and fixing component on the corresponding sliding adjustment component, the height of each low-voltage wire can be adjusted.

[0050] V. In this utility model, after the height of each low-voltage wire constraint fixing component is adjusted, the locking structure can lock and fix each low-voltage wire constraint fixing component onto the corresponding sliding adjustment component.

[0051] VI. In this utility model, after each low-voltage wire is constrained and fixed on the corresponding low-voltage wire constraining and fixing component, the heat-conducting structure installed on the corresponding low-voltage wire constraining and fixing component can conduct heat to the constrained and fixed low-voltage wire, thereby avoiding the phenomenon of wire fire caused by local overheating.

[0052] VII. In this utility model, since one side of the slide groove is open, after the second fixed side plate is disassembled, each set of heat-conducting low-voltage wire installation structure can be disassembled from the opening of the slide groove.

[0053] 8. In this utility model, the low-voltage wire can enter the circular through slot through the plug slot and be constrained and fixed by the circular through slot. After the low-voltage wire is constrained and fixed in the circular through slot, the two sets of heat dissipation holes opened on each heat-conducting clamp plate can dissipate heat, thereby avoiding local heating of the low-voltage wire; at the same time, the arc-shaped heat-conducting inner bottom plate can also contact the surface of the low-voltage wire to conduct heat to the low-voltage wire at the constrained and fixed point.

[0054] 9. In this utility model, each arc-shaped heat-conducting inner bottom plate is coated with a heat-conducting coating on its inner arc surface. Under the action of the heat-conducting coating, the speed of heat conduction can be improved.

[0055] 10. In this utility model, when the locking bolt is tightened inward, the end of the locking bolt can abut against the side wall of the heat-conducting clamp plate and generate clamping force, thereby locking and fixing the heat-conducting clamp plate and the heat-conducting slider.

[0056] Conversely, loosening the locking bolt allows the heat-conducting clamp plate to slide up and down within the inner cavity of the heat-conducting slider, thereby adjusting the working height of the heat-conducting clamp plate.

[0057] XI. In this utility model, when the clamping nut is tightened inward, the inner end face of the clamping nut can contact the side wall of the U-shaped heat-conducting base and generate clamping force, so that the position of each set of heat-conducting low-voltage wire installation structure can be fixed after the spacing is adjusted.

[0058] 12. In this utility model, the low-voltage wire can be snapped into the circular through groove by the two Ω-shaped clamping plates in the insertion slot. Conversely, it can also be taken out outward by utilizing the elasticity of the protrusions of the two Ω-shaped clamping plates. At the same time, after the low-voltage wire is snapped into the circular through groove, the two Ω-shaped clamping plates in the insertion slot can fix the low-voltage wire in the circular through groove. Attached Figure Description

[0059] Figure 1 This is a three-dimensional schematic diagram of the present invention;

[0060] Figure 2 This is a three-dimensional schematic diagram of the heat-conducting low-voltage wire installation structure of this utility model;

[0061] Figure 3 This is an exploded view of the thermally conductive low-voltage wire installation structure of this utility model;

[0062] Figure 4 This is a three-dimensional schematic diagram of the low-voltage wire constraint and fixing component of this utility model;

[0063] Figure 5 for Figure 2 An enlarged 3D schematic diagram of section A in the middle;

[0064] Figure 6This is a three-dimensional schematic diagram of the base structure of this utility model;

[0065] Figure 7 This is an exploded view of the base structure of this utility model.

[0066] In the diagram: 1. U-shaped heat-conducting base; 101. Inner guide groove; 102. Slide groove; 2. First fixed side plate; 3. Second fixed side plate; 4. Fixed base plate; 401. Assembly hole; 5. Fastening bolt; 6. Heat-conducting slider; 601. Slide bar; 602. Threaded cylinder; 7. Heat-conducting clamping plate; 701. Circular through groove; 702. Insertion through groove; 703. Heat dissipation through hole; 8. Positioning threaded rod; 9. Clamping nut; 10. Locking bolt; 11. Ω-shaped clamping plate; 12. Arc-shaped heat-conducting inner base plate. Detailed Implementation

[0067] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0068] Example 1

[0069] like Figure 1-7 As shown, this utility model provides a technical solution:

[0070] A low-voltage electrical engineering integrated cabling auxiliary device, comprising:

[0071] The base structure includes:

[0072] U-shaped heat-conducting base 1, with open ends, wherein the U-shaped heat-conducting base 1 is made of copper;

[0073] The first fixed side plate 2 is fixedly installed on one side opening of the U-shaped heat-conducting base 1;

[0074] The second fixed side plate 3 is detachably installed on the opening of the U-shaped heat-conducting base 1 on the side away from the first fixed side plate 2.

[0075] Furthermore, multiple fastening bolts 5 are screwed onto both sides of the second fixed side plate 3, and the second fixed side plate 3 is fastened to the U-shaped heat-conducting base 1 by two sets of fastening bolts 5.

[0076] Two fixed base plates 4 are respectively fixedly installed at both ends of the bottom of the U-shaped heat-conducting base 1;

[0077] Furthermore, mounting holes 401 are provided on both sides of the two fixed base plates 4;

[0078] Two fixed base plates 4 are used to be attached to the wall surface. At the same time, the mounting screws are inserted into the corresponding mounting holes 401 to fix the base structure to the wall surface.

[0079] Several sets of thermally conductive low-voltage wire installation structures, each set of thermally conductive low-voltage wire installation structures is used to constrain and fix the low-voltage wires;

[0080] Several sets of thermally conductive low-voltage cable mounting structures are slidably mounted on the U-shaped thermally conductive base 1, and each set of thermally conductive low-voltage cable mounting structures can be installed or removed from the U-shaped thermally conductive base 1.

[0081] By removing the second fixed side plate 3, the number of sets of heat-conducting low-voltage wire installation structures in the U-shaped heat-conducting base 1 can be adjusted according to the number of low-voltage wires, thereby avoiding the situation of too many or too few heat-conducting low-voltage wire installation structures.

[0082] Meanwhile, since each set of thermally conductive low-voltage wire installation structures can slide freely on the U-shaped thermally conductive base 1, the low-voltage wires constrained and fixed on the corresponding thermally conductive low-voltage wire installation structure can have their spacing freely adjusted.

[0083] Each set of thermally conductive low-voltage cable installation structures includes:

[0084] Each sliding adjustment component is slidably mounted on the U-shaped heat-conducting base 1;

[0085] Each sliding adjustment component is equipped with a positioning clamping structure;

[0086] Specifically, each set of heat-conducting low-voltage wire installation structure slides freely on the U-shaped heat-conducting base 1 via a sliding adjustment component;

[0087] Meanwhile, the positioning and clamping structure installed on each sliding adjustment component can position and clamp each sliding adjustment component, thereby keeping the adjusted spacing fixed.

[0088] Low-voltage wire constraint and fixing components, each of which can be adjusted and mounted on a corresponding sliding adjustment component;

[0089] Each sliding adjustment component is also equipped with a locking structure, which is used to lock and fix the low-voltage wire constraint fixing component.

[0090] Specifically, each low-voltage wire is constrained and fixed on a corresponding low-voltage wire constraining and fixing component. At the same time, the height of each low-voltage wire can be adjusted by adjusting the height of the low-voltage wire constraining and fixing component on the corresponding sliding adjustment component.

[0091] Meanwhile, after the height of each low-voltage wire constraint fixing component is adjusted, the locking structure can lock each low-voltage wire constraint fixing component onto the corresponding sliding adjustment component.

[0092] Each low-voltage wire constraint fixing component is also equipped with a heat-conducting structure.

[0093] Specifically, once each low-voltage wire is constrained and fixed to its corresponding low-voltage wire constraining and fixing component, the heat-conducting structure installed on the corresponding low-voltage wire constraining and fixing component can conduct heat to the constrained and fixed low-voltage wire, thereby preventing the wire from catching fire due to local overheating.

[0094] Example 2

[0095] like Figure 1-7 As shown, improvements are made based on Example 1:

[0096] Furthermore, inner guide grooves 101 are provided on both inner sidewalls of the U-shaped heat-conducting base 1;

[0097] Each sliding adjustment component is a heat-conducting slider 6. The inner cavity of each heat-conducting slider 6 is hollow, and both outer walls on both sides have sliders 601. Both sliders 601 are integrally formed with the heat-conducting slider 6.

[0098] The two sliders 601 of the heat-conducting slider 6 are slidably installed in the corresponding inner guide grooves 101;

[0099] Each low-voltage wire constraint fixing component is installed in the inner cavity of the heat-conducting slider 6;

[0100] Each set of positioning and clamping structures is installed on the corresponding heat-conducting slider 6;

[0101] Each locking structure is also installed on the corresponding heat-conducting slider 6.

[0102] In this embodiment, each thermally conductive slider 6 is made of copper.

[0103] Furthermore, a groove 102 is provided on the upper part of one side wall of the U-shaped heat-conducting base 1, and the groove 102 is open at the end facing the second fixed side plate 3;

[0104] One end of each positioning and clamping structure is slidably installed in the slide groove 102.

[0105] In this embodiment, since one side of the slide 102 is open, each set of thermally conductive low-voltage wire mounting structures can be disassembled from the opening of the slide 102 after the second fixed side plate 3 is disassembled.

[0106] Furthermore, each low-voltage wire constraint fixing component is a heat-conducting wire clamp plate 7, and each heat-conducting wire clamp plate 7 is inserted and installed in the inner cavity of the corresponding heat-conducting slider 6;

[0107] Each of the heat-conducting wire clamps 7 is made of copper;

[0108] Each heat-conducting wire clamp 7 has a circular through groove 701 on its upper part, and each heat-conducting wire clamp 7 has an insertion through groove 702 on its upper part corresponding to the circular through groove 701. The circular through groove 701 and the insertion through groove 702 are interconnected.

[0109] Specifically, the low-voltage wire can enter the circular through slot 701 through the plug slot 702 and be constrained and fixed by the circular through slot 701;

[0110] Each locking structure includes a threaded cylinder 602, each threaded cylinder 602 is fixedly installed on the upper side wall of the corresponding heat-conducting slider 6, and the inner cavity of each threaded cylinder 602 is connected to the inner cavity of the corresponding heat-conducting slider 6.

[0111] Each locking structure also includes a locking bolt 10. Each locking bolt 10 is threaded into the corresponding threaded cylinder 602. When the locking bolt 10 is screwed inward, the end of the screw of the locking bolt 10 can abut against the side wall of the heat-conducting clamp plate 7 and generate clamping force, thereby locking and fixing the heat-conducting clamp plate 7 and the heat-conducting slider 6.

[0112] Conversely, after loosening the locking bolt 10, the heat-conducting clamp plate 7 can slide up and down in the inner cavity of the heat-conducting slider 6, thereby adjusting the working height of the heat-conducting clamp plate 7.

[0113] Furthermore, each set of positioning and clamping structures includes a positioning threaded rod 8, each positioning threaded rod 8 is fixedly installed in the middle of the side wall of the corresponding heat-conducting slider 6, and one outer end of each positioning threaded rod 8 is slidably installed in the slide groove 102.

[0114] Each set of positioning and clamping structures also includes a clamping nut 9. Each clamping nut 9 is screwed onto the corresponding positioning threaded rod 8. When the clamping nut 9 is screwed inward, the inner end face of the clamping nut 9 can contact the side wall of the U-shaped heat-conducting base 1 and generate clamping force, so that the position of each set of heat-conducting low-voltage wire installation structure can be fixed after the spacing is adjusted.

[0115] Furthermore, the heat-conducting structure includes two sets of heat dissipation through holes 703 opened on each heat-conducting clamp plate 7 and an arc-shaped heat-conducting inner bottom plate 12 fixedly installed on the bottom of the inner cavity of each circular through slot 701;

[0116] The curvature of each arc-shaped heat-conducting inner bottom plate 12 is the same as the curvature of the corresponding circular through groove 701;

[0117] In this case, each heat-conducting clamp plate 7 has multiple sets of heat dissipation through holes 703, and both sets of heat dissipation through holes 703 are interconnected with the circular through groove 701.

[0118] Specifically, when the low-voltage wire is constrained and fixed in the circular through groove 701, the two sets of heat dissipation through holes 703 opened on each heat-conducting clamp plate 7 can dissipate heat, thereby avoiding local heating of the low-voltage wire.

[0119] At the same time, the arc-shaped heat-conducting inner bottom plate 12 can also contact the surface of the low-voltage wire to conduct heat to the low-voltage wire at the constraint and fixing point.

[0120] Furthermore, each arc-shaped heat-conducting inner base plate 12 is coated with a heat-conducting coating on its inner arc surface.

[0121] In this embodiment, the thermally conductive coating can improve the speed of heat conduction.

[0122] Example 3

[0123] like Figure 1-7 As shown, improvements are made based on Example 2:

[0124] Furthermore, Ω-shaped clamping plates 11 are fixedly installed on both sides of the insertion slot 702, and the protrusions of the two Ω-shaped clamping plates 11 are elastic.

[0125] In this embodiment, the low-voltage wire can be snapped into the circular through slot 701 by the two Ω-shaped clamping plates 11 in the insertion slot 702. Conversely, it can also be taken out outward by utilizing the elasticity of the protrusions of the two Ω-shaped clamping plates 11. At the same time, after the low-voltage wire is snapped and fixed into the circular through slot 701, the two Ω-shaped clamping plates 11 in the insertion slot 702 can fix the low-voltage wire in the circular through slot 701.

[0126] In summary, the workflow of this utility model is as follows:

[0127] like Figure 1-7 As shown, two fixed base plates 4 are used to be attached to the wall. At the same time, mounting screws are inserted into the corresponding mounting holes 401 to fix the base structure to the wall. Each set of heat-conducting low-voltage wire installation structure is used to constrain and fix the low-voltage wire.

[0128] Several sets of thermally conductive low-voltage cable mounting structures are slidably mounted on the U-shaped thermally conductive base 1, and each set of thermally conductive low-voltage cable mounting structures can be installed or removed from the U-shaped thermally conductive base 1.

[0129] By removing the second fixed side plate 3, the number of sets of heat-conducting low-voltage wire installation structures in the U-shaped heat-conducting base 1 can be adjusted according to the number of low-voltage wires, thereby avoiding the situation of too many or too few heat-conducting low-voltage wire installation structures.

[0130] Meanwhile, since each set of thermally conductive low-voltage wire installation structures can slide freely on the U-shaped thermally conductive base 1, the low-voltage wires constrained and fixed on the corresponding thermally conductive low-voltage wire installation structure can have their spacing freely adjusted. Each set of thermally conductive low-voltage wire installation structures includes a sliding adjustment component and a low-voltage wire constraint and fixing component. Each set of thermally conductive low-voltage wire installation structures slides freely on the U-shaped thermally conductive base 1 through the sliding adjustment component.

[0131] Meanwhile, the positioning and clamping structure installed on each sliding adjustment component can position and clamp each sliding adjustment component, thereby keeping the adjusted spacing fixed.

[0132] Each low-voltage wire is constrained and fixed to its corresponding low-voltage wire constraining and fixing component. At the same time, the height of each low-voltage wire can be adjusted by adjusting the height of the low-voltage wire constraining and fixing component on its corresponding sliding adjustment component.

[0133] Meanwhile, after the height of each low-voltage wire constraint fixing component is adjusted, the locking structure can lock each low-voltage wire constraint fixing component onto the corresponding sliding adjustment component.

[0134] Each low-voltage wire restraint and fixing component is also equipped with a heat-conducting structure. After each low-voltage wire is restrained and fixed on the corresponding low-voltage wire restraint and fixing component, the heat-conducting structure installed on the corresponding low-voltage wire restraint and fixing component can conduct heat to the restrained low-voltage wire, thereby avoiding the phenomenon of wire fire caused by local overheating.

[0135] The different embodiments described above can be combined, substituted, or used in combination with each other.

[0136] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0137] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A weak current engineering comprehensive wiring auxiliary device, characterized in that, include: The base structure includes: U-shaped heat-conducting base (1), wherein both ends of the U-shaped heat-conducting base (1) are open; The first fixed side plate (2) is fixedly installed on one side opening of the U-shaped heat-conducting base (1); The second fixed side plate (3) is detachably installed on the opening of the U-shaped heat-conducting base (1) away from the first fixed side plate (2); Two fixed base plates (4) are respectively fixedly installed at both ends of the bottom of the U-shaped heat-conducting base (1); Several sets of thermally conductive low-voltage wire installation structures are slidably installed on a U-shaped thermally conductive base (1), and each set of thermally conductive low-voltage wire installation structures can be installed or removed from the U-shaped thermally conductive base (1). Each group of thermally conductive low-voltage cable installation structures includes: Each of the sliding adjustment components is slidably mounted on the U-shaped heat-conducting base (1); Each of the aforementioned sliding adjustment components is equipped with a positioning clamping structure; The low-voltage wire constraint and fixing components are adjustablely mounted on corresponding sliding adjustment components. Each of the sliding adjustment components is also equipped with a locking structure, which is used to lock and fix the low-voltage wire constraint fixing component. Each of the aforementioned low-voltage wire constraint fixing components is also provided with a heat-conducting structure.

2. The auxiliary device for weak current engineering integrated wiring according to claim 1, characterized in that: Both sides of the second fixed side plate (3) are screwed with multiple fastening bolts (5), and the second fixed side plate (3) is fastened to the U-shaped heat-conducting base (1) by two sets of fastening bolts (5).

3. The auxiliary device for weak current engineering integrated wiring according to claim 1, characterized in that: Assembly holes (401) are provided on both sides of the two fixed base plates (4).

4. The auxiliary device for integrated cabling in low-voltage engineering according to claim 1, characterized in that: The inner sidewalls on both sides of the U-shaped heat-conducting base (1) are provided with inner guide grooves (101). Each of the sliding adjustment components is a heat-conducting slider (6), and the inner cavity of each heat-conducting slider (6) is hollow, and both outer walls on both sides have slide bars (601). Both slide bars (601) are integrally formed with the heat-conducting slider (6). The two slide bars (601) of the heat-conducting slider (6) are slidably installed in the corresponding inner guide grooves (101); Each of the aforementioned weak wire constraint fixing components is installed in the inner cavity of the heat-conducting slider (6); Each of the positioning and clamping structures is mounted on the corresponding heat-conducting slider (6); Each locking structure is also installed on the corresponding heat-conducting slider (6).

5. The weak current engineering comprehensive wiring auxiliary device according to claim 4, characterized in that: A groove (102) is provided on the upper part of one side wall of the U-shaped heat-conducting base (1), and the groove (102) is open at one end facing the second fixed side plate (3); The outer end of each positioning and clamping structure is slidably installed in the slide groove (102).

6. The auxiliary device for weak current engineering integrated wiring according to claim 5, characterized in that: Each of the aforementioned weak wire constraint fixing components is a heat-conducting wire clamp plate (7), and each of the aforementioned heat-conducting wire clamp plates (7) is inserted and installed in the inner cavity of the corresponding heat-conducting slider (6); Each of the heat-conducting clamps (7) has a circular through groove (701) on its upper part, and each of the heat-conducting clamps (7) has a plug-in through groove (702) on its upper part corresponding to the circular through groove (701). The circular through groove (701) and the plug-in through groove (702) are interconnected. Each of the locking structures includes a threaded cylinder (602), each threaded cylinder (602) is fixedly installed on the upper side wall of the corresponding heat-conducting slider (6), and the inner cavity of each threaded cylinder (602) is connected to the inner cavity of the corresponding heat-conducting slider (6). Each locking structure further includes a locking bolt (10), each locking bolt (10) being threaded into a corresponding threaded cylinder (602).

7. The auxiliary device for weak current engineering integrated wiring according to claim 5, characterized in that: Each of the positioning and clamping structures includes a positioning threaded rod (8), each positioning threaded rod (8) is fixedly installed in the middle of the side wall of the corresponding heat-conducting slider (6), and one outer end of each positioning threaded rod (8) is slidably installed in the slide groove (102); Each of the positioning and clamping structures further includes a clamping nut (9), and each clamping nut (9) is screwed onto the corresponding positioning threaded rod (8).

8. The weak current engineering comprehensive wiring auxiliary device according to claim 6, characterized in that: The heat-conducting structure includes two sets of heat dissipation through holes (703) opened on each heat-conducting clamp plate (7) and an arc-shaped heat-conducting inner bottom plate (12) fixedly installed on the bottom of the inner cavity of each circular through slot (701). In this case, each of the heat-conducting clamp plates (7) has multiple sets of heat dissipation through holes (703), and both sets of heat dissipation through holes (703) are interconnected with the circular through groove (701).

9. The weak current engineering comprehensive wiring auxiliary device according to claim 6, characterized in that: Ω-shaped clamping plates (11) are fixedly installed on both sides of the insertion slot (702).

10. The weak current engineering comprehensive wiring auxiliary device according to claim 8, characterized in that: Each of the said arc-shaped thermally conductive inner bottom plates (12) has a thermally conductive coating on its inner arc surface.

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