TW202415911A - Heat-dissipating wire duct connector - Google Patents

Abstract

A heat-dissipating wire duct connector includes a main body. the main body includes two side portions and a bottom portion. The two side portions and the bottom portion define a connecting portion and two assembling portions. The connecting portion between the two assembling portion. Two step portions are formed between the connecting portion and the two assembling portions respectively. The two assembling portions are respectively used for two wire ducts to be plugged into each other. The two wire ducts are respectively abutted against the two step portions. The bottom portion is provided with a communicating portion communicated to the outside at the portion of the connecting portion.

Description

Heat dissipation cable duct connector

The invention relates to a heat dissipation type wire trough connector.

In order to effectively protect cables from collision with foreign objects, general industrial cables are placed in cable troughs, which not only achieve waterproof and anti-fouling effects, but also protect them from damage by small animals such as mice or foreign objects. However, since the length of the cable is extremely long, and general cable troughs cannot be manufactured to the length of the cable, the cable troughs must be spliced during installation. However, this method easily causes gaps between the two cable troughs or insufficient structure at the splicing point, which is unsafe after long-term use and has shortcomings that need to be improved.

Therefore, it is necessary to provide a novel and advanced heat dissipation type wire duct connector to solve the above-mentioned problems.

The main purpose of the present invention is to provide a heat dissipation type wire trough connector that can be effectively assembled between two wire troughs. It is not only simple in structure but also stable, so as to effectively protect the cables in the wire trough.

To achieve the above-mentioned purpose, the present invention provides a heat dissipation type wire slot connector, including a body. The body includes two side parts and a bottom, the two side parts and the bottom define a connecting part and two group connecting parts, the connecting part is between the two group connecting parts, and a step part is formed between the connecting part and the two group connecting parts, the two group connecting parts are respectively used for two wire slots to be plugged in, and the two wire slots are respectively against the two step parts, and the bottom is further provided with a connecting part connected to the outside at the connecting part.

The following examples are merely used to illustrate possible implementations of the present invention, but are not intended to limit the scope of protection of the present invention, so it should be noted in advance.

Please refer to Figures 1 to 5, which show a preferred embodiment of the present invention. The heat dissipation type wire trough connector of the present invention includes a body 1.

The body 1 includes two side portions 11 and a bottom portion 12. The two side portions 11 and the bottom portion 12 define a connecting portion 13 and two connecting portions 14. The connecting portion 13 is located between the two connecting portions 14, and a step portion 15 is formed between the connecting portion 13 and the two connecting portions 14. The two connecting portions 14 are respectively connected to two wire grooves 4 and the two wire grooves 4 are respectively against the two step portions 15. Preferably, the bottom portion 12 is further provided with a connecting portion 131 connected to the outside at the position of the connecting portion 13. The connecting portion 131 can be used for drainage and heat dissipation.

Therefore, since the two wire troughs 4 are plugged into the two assembly parts 14 respectively, the main body 1 can effectively connect the two wire troughs 4, and the space surrounded by the two side parts 11 and the bottom 12 can accommodate the cables passing through the two wire troughs 4, and the two wire troughs 4 can be effectively abutted and positioned by the two wire troughs 4 respectively abutting against the two step parts 15 to avoid the two wire troughs 4 from sliding and colliding and being damaged. Therefore, the heat dissipation type wire trough connector of the present invention can be effectively assembled between the two wire troughs 4, and not only is the structure simple and stable, but it can also effectively protect the cables. Preferably, the main body and the second line slot are made of weather-resistant, acid-resistant and alkali-resistant materials. The main body of this embodiment is mainly made of insulating and non-conductive plastic steel. In other embodiments, the main body may be made of metal, alloy material or composite material.

Specifically, each of the assembly parts 14 is provided with a plurality of locking holes 16, and a plurality of locking members 161 are respectively locked in the locking holes 16 and the wire ducts 4 to fix the two wire ducts 4 to the body 1 to prevent any detachment. In this embodiment, the locking holes 16 of each of the assembly parts 14 are respectively provided at the two side parts 11. Since the bottom 12 is usually close to the ground or facing downward, the locking holes 16 are respectively provided at the two side parts 11 for convenient construction.

In this embodiment, the connecting portion 13 protrudes outward relative to the two connecting portions 14 to form the step 15. The two connecting portions 14 are respectively inserted into the two wire grooves 4. Therefore, each wire groove 4 is sleeved on one of the connecting portions 14, so that the appearance of the body and the two wire grooves is kept flat after being connected. Of course, in other embodiments, the connecting portion protrudes inward relative to the two connecting portions to form the step, and each wire groove is inserted into one of the connecting portions.

The two side parts 11 are provided with a cover plate 5 at one end away from the bottom 12, and the cover plate 5 is provided to cover the two wire slots 4 to seal the two wire slots 4 and the upper opening of the main body 1 to achieve a waterproof effect. In this embodiment, the two side parts 11 are provided with a clamping groove 17 at the part of the connecting part 13, and the two clamping grooves 17 are provided for the cover plate 5 to clamp, and the cover plate 5 is clamped on the two wire slots 4 to prevent the cover plate 5 from arbitrarily separating from the two wire slots 4 and the main body 1.

Furthermore, the bottom 12 includes a first grating 132 and a second grating 133 which overlap each other at the connecting portion 13. The first grating 132 is provided with a plurality of first long holes 134, and the second grating 133 is provided with a plurality of second long holes 135. The extension directions of the first long holes 134 and the second long holes 135 are perpendicular to each other. The first long holes 134 and the second long holes 135 are partially overlapped to form the connecting portion 131. The connecting portion 131 has a plurality of holes for drainage and heat dissipation.

It should be particularly noted that the bottom 12 of the main body 1 of the present invention, corresponding to the position of the connecting portion 13, protrudes outward by a thickness that is equal to the thickness of the wire trough, so that the thickness of the bottom 12 at the connecting portion 13 is greatly increased (in this embodiment, the thickness is doubled) compared with the thickness of the assembly portion at both ends, and the second grating 133 is arranged there. By increasing the thickness of the bottom 12 at the connecting portion 13 and vertically arranging the second grating 133 relative to the first grating 132, the structural strength of the location due to the opening of the plurality of first and second long holes 134, 135 can be reinforced.

It is worth mentioning that the first grating 132 and the second grating 133 at the connecting portion 13 are spaced apart from each other, and a through hole 136 is further provided between the first grating 132 and the second grating 133. A mesh plate 6, preferably a metal mesh plate, is formed with a plurality of fine meshes on the surface of the mesh plate 6. The mesh plate 6 can be selectively inserted between the first grating 132 and the second grating 133 through the through hole 136, and corresponds to the first long holes 134 and the second long holes 135. Thus, the plurality of fine meshes on the surface of the mesh plate 6 can effectively prevent mosquitoes from crawling into the second line slot 4 and the main body 1 through the first and second long holes, thereby providing the main body of the present invention with multiple functions of heat dissipation, drainage and mosquito prevention.

Furthermore, the mesh plate 6 of the present invention has a longer service life and is preferably made of metal. The mesh plate 6 made of metal is inserted into the through hole 136 and is located between the first and second grid plates, thereby preventing the cables accommodated in the body and the two wire grooves from contacting with them, thereby preventing the surface insulation layer of the cable from contacting with the mesh plate 6 made of metal material, thereby preventing the insulation layer of the cable from being scratched and causing leakage.

1: Main body 11: Side 12: Bottom 13: Connecting part 131: Connecting part 132: First grating 133: Second grating 134: First long hole 135: Second long hole 136: Perforation 14: Assembly part 15: Step 16: Locking hole 161: Locking piece 17: Card slot 4: Wire slot 5: Cover plate 6: Mesh plate

Figure 1 is an assembly stereogram of a preferred embodiment of the present invention. Figure 2 is an assembly exploded view of a preferred embodiment of the present invention. Figure 3 is another assembly stereogram of a preferred embodiment of the present invention. Figures 4 and 5 are body stereograms of a preferred embodiment of the present invention.

1: Body

13: Connection part

4: Wire duct

5: Cover plate

Claims (9)

A heat dissipation type wire slot connector, comprising: A body, comprising two side parts and a bottom, the two side parts and the bottom define a connecting part and two group connecting parts, the connecting part is between the two group connecting parts and a step part is formed between the connecting part and the two group connecting parts, the two group connecting parts are respectively provided for two wire slots to be plugged in and the two wire slots are respectively against the two step parts, and the bottom is provided with a connecting part connected to the outside at the connecting part. As described in claim 1, the heat dissipation type wire trough connector, wherein each of the assembly parts is provided with a plurality of locking holes, and a plurality of locking members are respectively locked to the locking holes and the wire trough. As described in claim 2, the heat dissipation type wire trough connector, wherein the locking holes of each assembly part are respectively arranged on the two side parts. As described in claim 1, the heat dissipation type wire slot connector, wherein the connecting portion protrudes outward relative to the two sets of connecting portions to form the step, and the two sets of connecting portions are respectively inserted into the two wire slots. As described in claim 1, the heat dissipation type wire trough connector, wherein one end of the two side portions away from the bottom is provided with a cover plate, and the cover plate is also provided to cover the two wire troughs. As described in claim 5, the heat dissipation type wire trough connector, wherein the two side portions are respectively provided with a slot at the portion of the connecting portion, and the two slots are used for the cover plate to be clamped. A heat dissipation type wire trough connector as described in claim 1, wherein the bottom portion at the connecting portion protrudes outwardly by a thickness that is uniformly equal to the thickness of the wire trough, so that the bottom thickness at the connecting portion is greater than the thickness of the assembly portion at both ends, and the connecting portion includes a first grating and a second grating that are overlapped on top and bottom, the first grating is provided with a plurality of first long holes, and the second grating is provided with a plurality of second long holes, the first long holes are perpendicular to the extension direction of the second long holes, and the first long holes and the second long holes are partially overlapped to form the connecting portion. A heat dissipation type wire trough connector as described in claim 7, wherein the first grating and the second grating are spaced apart from each other in the upper and lower parts, and a through hole is provided between the first grating and the second grating, and a mesh plate having a plurality of mesh holes on its surface, the mesh plate is inserted between the first grating and the second grating through the through hole, and corresponds to the first long holes and the second long holes. The heat dissipation type wire slot connector as described in claim 3, wherein the connecting portion protrudes outward relative to the two assembly portions to form the step, and the two assembly portions are respectively inserted into the two wire slots; one end of the two side portions away from the bottom is provided with a cover plate, and the cover plate is provided to cover the two wire slots; the two side portions are respectively provided with a clamping groove at the portion of the connecting portion, and the two clamping grooves are provided for the cover plate to clamp; the bottom portion at the connecting portion includes a first grille and a second grille overlapping each other, The first grating is provided with a plurality of first long holes, and the second grating is provided with a plurality of second long holes. The extension directions of the first long holes are perpendicular to those of the second long holes, and the first long holes and the second long holes partially overlap to form the connecting portion; the first grating is spaced from the second grating and the first grating and the second grating are further provided with a through hole, and a mesh plate is inserted between the first grating and the second grating through the through hole and corresponds to the first long holes and the second long holes.

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