Collision damage prevention structure for copper pipe transfer

Abstract

The utility model relates to the technical field of copper pipe collision prevention, in particular to a copper pipe transfer collision damage prevention structure which comprises a supporting pad platen, a protection top cover movably connected to the outer side surface of the top of the supporting pad platen in a sleeving mode and a copper pipe movably connected to the outer side surface of the top of the supporting pad platen in a sleeving mode. The outer side surface of the copper pipe is movably sleeved with an anti-vibration block, supporting plates are symmetrically and fixedly installed on the top surface of the supporting pad table plate and located on the edges of the two sides, and first butt joint grooves are formed in the surfaces of the two sides of the supporting plates. After the copper pipe is laid in the supporting pad table plate, the side face limiting plates on the surfaces of the two sides of the supporting plate are matched to swing, then the side face limiting plates are connected to the side faces of the copper pipe in a lap joint mode, the two ends of the copper pipe are extruded and positioned, and meanwhile swing closing plates are extruded to the surfaces of the outer sides of the side face limiting plates; and meanwhile, clamping strips on the surfaces of the two sides of the closing plate are clamped to the inner side wall faces of the second butt joint groove and the first butt joint groove.

Description

Technical Field

[0001] The utility model relates to the technical field of copper pipe anti-collision, in particular to an anti-impact damage structure for copper pipe transportation. Background Art

[0002] Copper pipes, also known as red copper pipes, are a type of non-ferrous metal pipes, which are pressed and drawn seamless pipes. Copper pipes have the characteristics of being strong and corrosion-resistant, and thus become the best water supply pipes for modern contractors to install in the water supply pipes, heating pipes, and refrigeration pipes of all residential commercial houses.

[0003] A patent with the publication number CN 206487990 U discloses a copper pipe protection device, whose structure includes a protection layer, a wear-resistant layer, a panel, a sealing layer, a bracket, an installation port, a nut, a bolt, a rotator, a buffer, a tension adjuster, and a support column. The protection layer is connected to the panel, the panel is fixedly connected to the bracket, the bracket is movably connected to the nut, the bolt is fixedly connected to the rotator, the rotator is hinged to the support column, and the tension adjuster is movably connected to the panel. The utility model solves the problem that the existing copper pipe protection device is troublesome to adjust the tightness and cannot be adjusted simply.

[0004] When a large number of existing copper pipes are transported, multiple copper pipes need to be stacked together. Cardboard is wrapped on the surface of the copper pipes or protective supports are provided on the surfaces at both ends of the copper pipes. However, the concentrated copper pipes are relatively heavy as a whole. When they are stacked and squeezed, during the squeezing process of the copper pipes, tensile stress is applied to the outside of the copper pipes and compressive stress is applied to the inside. For large-sized copper pipes, due to their larger cross-sectional dimensions, the distribution range of the tensile stress on the outside and the compressive stress on the inside is wider, which may cause greater deformation of the copper pipes. Summary of the Utility Model

[0005] Therefore, the technical problem to be solved by the utility model is to overcome the problem in the prior art that tensile stress is applied to the outside of the copper pipe and compressive stress is applied to the inside. For large-sized copper pipes, due to their larger cross-sectional dimensions, the distribution range of the tensile stress on the outside and the compressive stress on the inside is wider, which may cause greater deformation of the copper pipe.

[0006] To solve the above technical problems, the utility model provides a copper pipe transfer anti-impact damage structure, which includes a support cushion plate and a protective top cover movably sleeved on the outer surface of the top of the support cushion plate, and a copper pipe movably sleeved on the outer surface of the top of the support cushion plate. An anti-vibration block is movably sleeved on the outer surface of the copper pipe. Support plates are symmetrically and fixedly installed on the top surface of the support cushion plate and at both side edge positions. Docking grooves I are formed on both side surfaces of the support plates. Closing plates are swingably connected to both side surfaces of the support cushion plate. Side limiting plates are symmetrically and swingably connected to both side surfaces of the support plates. Docking grooves II are formed on the outer surface of the side limiting plates. Clamping strips movably sleeved on the inner side walls of the docking grooves I and the docking grooves II are fixedly connected to both side edge positions of the outer surface of the closing plate; Pressing and positioning plates movably lapped on the outer surface of the closing plate are symmetrically arranged on both side surfaces of the protective top cover.

[0007] In an embodiment of the utility model, an arc-shaped pressing block is fixedly connected to the bottom surface of the protective top cover, and the outer surface of the bottom of the arc-shaped pressing block is movably lapped on the outer surface of the copper pipe.

[0008] In an embodiment of the utility model, threaded locks are fixedly connected to both side surfaces of the protective top cover, and the bottom surface of the threaded locks is attached to the outer surface of the top of the support plate.

[0009] In an embodiment of the utility model, heightening strip plates are fixedly connected to the top surface of the support cushion plate and at both side edge positions, and clamping grooves are formed on the top surface of the heightening strip plates.

[0010] In an embodiment of the utility model, semi-circular limiting blocks are fixedly connected to the top surface of the heightening strip plates and at one side edge position of the clamping grooves, and the inner side wall surfaces of the semi-circular limiting blocks are movably sleeved on the outer surface of the copper pipe.

[0011] In an embodiment of the utility model, swing limiting strips are swingably connected to the inner side wall surfaces of the clamping grooves, and both side surfaces of the swing limiting strips are movably attached to the outer surface of the copper pipe.

[0012] In an embodiment of the utility model, semi-circular grooves are formed on both the upper and lower side surfaces of the anti-vibration block, pads are fixedly connected to the inner side wall surfaces of the semi-circular grooves, elastic wires are fixedly connected to the top surfaces of the pads, and fitting arc plates slidably sleeved on the inner side wall surfaces of the semi-circular grooves are fixedly connected to one ends of the elastic wires.

[0013] In an embodiment of the present utility model, anti-slip patterns are provided on the outer surface of the fitting arc plate, limiting sliding grooves are opened at both edge positions of the semi-circular groove, and extrusion limiting blocks that are movably sleeved on the inner side wall surfaces of the limiting sliding grooves are provided on both surfaces of the fitting arc plate.

[0014] The above technical solution of the present utility model has the following advantages compared with the prior art:

[0015] For a copper pipe transfer anti-impact damage structure of the present utility model, after the copper pipes are laid inside the support pad table board, they cooperate with the side limiting plates on both surfaces of the support plate to swing, and then the side limiting plates are lapped on the sides of the copper pipes to perform extrusion positioning on both ends of the copper pipes. At the same time, the swing closing plate is pressed against the outer surface of the side limiting plate, and the clamping strips on both surfaces of the closing plate are clamped into the inner side wall surfaces of the docking groove two and the docking groove one, so as to limit and support the position of the side limiting plate. Then, the protective top cover is sleeved on the top surface of the support plate, and the extrusion positioning plates on both surfaces of the protective top cover are directly buckled on the surface of the closing plate to limit the position of the closing plate. In this way, the outward driving force generated by the copper pipes on the side limiting plate will be transmitted to the surface of the closing plate, and then through the driving force of the closing plate to the outer surface of the extrusion positioning plate. As long as the extrusion positioning plate does not deform or fall off, under the limitation of the extrusion positioning plate, the closing plate and the side limiting plate cannot unfold, so that the copper pipes inside the support plate will not fall off;

[0016] For a copper pipe transfer anti-impact damage structure of the present utility model, the copper pipe is placed on the top surface of the semi-circular limiting block. By using the radian on the surface of the semi-circular limiting block to fit on the surface of the copper pipe, the positioning position of the copper pipe is adjusted through the recessed radian of the semi-circular limiting block, so as to ensure the stability of the cylindrical pipe, and it can absorb the deviation impact caused by the error generated by the inertial impact and shaking to a certain extent, and greatly reduce the possibility of shaking;

[0017] For a copper pipe transfer anti-impact damage structure of the present utility model, when a copper pipe is placed on the top surface of the semi-circular limiting block, the swing limiting strip is erected from the inside of the clamping groove and lapped on the surface of the copper pipe. The positions of multiple copper pipes are limited by the swing limiting strip. When the copper pipes slide due to inertia, the adjacent copper pipes are used to squeeze and limit the position of the swing limiting strip, so that the swing limiting strip will not shake too much. Description of the Drawings

[0018] In order to make the content of the present utility model be more clearly understood, the following further details the present utility model according to the specific embodiments of the present utility model and in conjunction with the attached drawings.

[0019] Figure 1is the perspective view of the present utility model;

[0020] Figure 2 is the perspective view of the unfolded support cushion table board in the present utility model;

[0021] Figure 3 is the perspective view of the support cushion table board in the present utility model;

[0022] Figure 4 is the perspective view of the closing plate in the present utility model;

[0023] Figure 5 is the sectional perspective view of the shockproof block in the present utility model;

[0024] Figure 6 is the perspective view of the protective top cover in the present utility model;

[0025] Explanation of reference numerals in the accompanying drawings of the specification: 11, support cushion table board; 111, support plate; 112, heightening strip board; 113, clamping groove; 114, semi-circular limit block; 115, swing limit strip; 116, docking groove one; 117, closing plate; 118, clamping strip; 119, side limit plate; 1110, docking groove two; 12, protective top cover; 121, extrusion positioning plate; 122, arc-shaped pressing block; 123, threaded lock; 13, copper pipe; 14, shockproof block; 141, semi-circular groove; 142, cushion block; 143, elastic wire; 144, fitting arc plate; 145, limit sliding groove; 146, extrusion limit block; 147, anti-slip pattern. Detailed implementation manners

[0026] The present utility model will be further described below in conjunction with the accompanying drawings and specific embodiments, so that those skilled in the art can better understand the present utility model and be able to implement it, but the embodiments cited are not intended to limit the present utility model.

[0027] Refer to Figure 1 - Figure 6As shown in the figure, a copper pipe transfer anti-impact damage structure of the utility model includes a support pad table board 11 and a protective top cover 12 movably sleeved on the outer surface of the top of the support pad table board 11, a copper pipe 13 movably sleeved on the outer surface of the top of the support pad table board 11, a shock-proof block 14 movably sleeved on the outer surface of the copper pipe 13, support plates 111 symmetrically and fixedly installed on the top surface of the support pad table board 11 and at both side edge positions, docking grooves one 116 formed on both side surfaces of the support plates 111, closing plates 117 swingably connected to both side surfaces of the support pad table board 11, side limit plates 119 symmetrically and swingably connected to both side surfaces of the support plates 111, docking grooves two 1110 formed on the outer surface of the side limit plates 119, and clamping strips 118 fixedly connected to the outer surface of the closing plates 117 and movably sleeved on the inner wall surfaces of the docking grooves one 116 and the docking grooves two 1110 at both side edge positions; extrusion positioning plates 121 movably lapped on the outer surface of the closing plates 117 are symmetrically arranged on both side surfaces of the protective top cover 12;

[0028] After the copper pipe 13 is laid inside the support pad table board 11, it cooperates with the side limit plates 119 on both side surfaces of the support plates 111 to swing, and then the side limit plates 119 are lapped on the side of the copper pipe 13 to perform extrusion positioning on both ends of the copper pipe 13. At the same time, when the closing plates 117 are swung and pressed on the outer surface of the side limit plates 119, and the clamping strips 118 on both side surfaces of the closing plates 117 are clamped onto the inner wall surfaces of the docking grooves two 1110 and the docking grooves one 116, the position of the side limit plates 119 is limited and supported. Then, the protective top cover 12 is sleeved on the top surface of the support plates 111, and the extrusion positioning plates 121 on both side surfaces of the protective top cover 12 are directly buckled on the surface of the closing plates 117 to limit the position of the closing plates 117. In this way, the outward pushing force generated by the copper pipe 13 on the side limit plates 119 will be transmitted to the surface of the closing plates 117, and then the pushing force of the closing plates 117 is transmitted to the outer surface of the extrusion positioning plates 121. As long as the extrusion positioning plates 121 do not deform or fall off, the closing plates 117 and the side limit plates 119 cannot expand under the limitation of the extrusion positioning plates 121, so that the copper pipe 13 inside the support plates 111 will not fall off.

[0029] Refer to Figure 1 - Figure 4 and Figure 6As shown, in one embodiment of the utility model, an arc-shaped pressing block 122 is fixedly connected to the bottom surface of the protective top cover 12, and the bottom outer surface of the arc-shaped pressing block 122 is movably overlapped on the outer surface of the copper tube 13. Threaded lock buckles 123 are fixedly connected to the two side surfaces of the protective top cover 12, and the bottom surface of the threaded lock buckle 123 is attached to the top outer surface of the support plate 111. The top surface of the support pad 11 and the edge positions on both sides are fixedly connected with a padding strip 112, and a clamping groove 113 is provided on the top surface of the padding strip 112.

[0030] Place the copper tube 13 on the top surface of the semicircular limit block 114, use the curvature on the surface of the semicircular limit block 114 to fit it on the surface of the copper tube 13, and adjust the positioning position of the copper tube 13 through the inward curvature of the semicircular limit block 114, so as to ensure the stability of the cylindrical tube. It can absorb the deviation impact caused by inertial impact and shaking errors to a certain extent, and greatly reduce the possibility of shaking.

[0031] Reference Figure 1 - Figure 4 As shown, in one embodiment of the present utility model, a semicircular stopper 114 is fixedly connected to the top surface of the padding plate 112 and located at one side edge of the clamping groove 113, the inner wall surface of the semicircular stopper 114 is movably sleeved on the outer surface of the copper tube 13, and a swing stopper strip 115 is swingably connected to the inner wall surface of the clamping groove 113, and the two side surfaces of the swing stopper strip 115 are movably fitted on the outer surface of the copper tube 13;

[0032] When a copper tube 13 is placed on the top surface of the semicircular limit block 114, the swing limit bar 115 is erected from the inside of the clamping groove 113, and the swing limit bar 115 is overlapped on the surface of the copper tube 13. The positions of multiple copper tubes 13 are limited by the swing limit bar 115. When the copper tube 13 slides due to inertia, the copper tube 13 at the side is used to squeeze the swing limit bar 115 to limit the position, so that the swing limit bar 115 will not shake too much.

[0033] Reference Figure 1 - Figure 2 and Figure 5As shown, in an embodiment of the present utility model, semi-circular grooves 141 are provided on the upper and lower surfaces of the shock-absorbing block 14. A cushion block 142 is fixedly connected to the inner side wall surface of the semi-circular groove 141. An elastic wire 143 is fixedly connected to the top surface of the cushion block 142. One end of the elastic wire 143 is fixedly connected to a fitting arc plate 144 that is slidably sleeved on the inner side wall surface of the semi-circular groove 141. Anti-slip lines 147 are provided on the outer surface of the fitting arc plate 144. Limiting sliding grooves 145 are provided at the two side edge positions of the semi-circular groove 141. Extrusion limiting blocks 146 that are movably sleeved on the inner side wall surface of the limiting sliding groove 145 are provided on the two side surfaces of the fitting arc plate 144;

[0034] After laying a layer of copper tubes 13 on the top surface of the protective top cover 12, the shock-absorbing block 14 is lapped on the surface of the bottommost copper tube 13, and then a new copper tube 13 is lapped on the top surface of the shock-absorbing block 14. At the same time, the fitting arc plate 144 on the inner side wall surface of the shock-absorbing block 14 is lapped on the surface of the copper tube 13. At the same time, the anti-slip lines 147 on the inner side wall surface of the fitting arc plate 144 are used to increase the anti-slip property between the fitting arc plate 144 and the copper tube 13. At the same time, the thickness of the shock-absorbing block 14 can make there be a certain thickness of gap between the upper and lower layers of copper tubes 13, avoiding excessive friction between the upper and lower layers of copper tubes 13. When the copper tubes 13 are transported again, the elastic wire 143 on the inner side wall surface of the fitting arc plate 144 is used to elastically buffer the vibration of the copper tubes 13, greatly reducing the effect that the copper tubes 13 are deformed due to vibration caused by upper and lower inertia; it is avoided that when the copper tubes 13 are transported, because the extrusion force received by the outside of the copper tubes 13 is greater than the extrusion force received by the inside, and because the cross-sectional size of the large-size copper tubes is larger, the distribution range of the tensile stress on the outside and the compressive stress on the inside is wider, which may cause greater deformation of the copper tubes 13; when it is necessary to separate from the copper tubes 13 later, only the extrusion positioning plate 121 and the protective top cover 12 need to be detached from the top surface of the support cushion table plate 11, and the surface of the closing plate 117 is gently bent. And without the extrusion force on the surface of the closing plate 117 and under the outward pushing of the side limiting plate 119, the copper tubes 13 inside the support plate 111 slide down. Moreover, under the limitation of the swing limiting strip 115, the copper tubes 13 will only fall off column by column, and will not fall off in a large range after the protection device is opened, so that the copper tubes 13 are not deformed due to impact when sliding.

[0035] Working principle: the copper tube 13 is placed on the top surface of the semicircular limit block 114, and the curvature on the surface of the semicircular limit block 114 is used to fit on the surface of the copper tube 13, and the positioning position of the copper tube 13 is adjusted by the inward curvature of the semicircular limit block 114, so as to ensure the stability of the cylindrical tube, and to absorb the deviation impact caused by the error caused by inertial impact and shaking to a certain extent, and greatly reduce the possibility of shaking; when a copper tube 13 is padded on the top surface of the semicircular limit block 114, the swing limit bar 115 is erected from the inside of the clamping groove 113, and the swing limit bar 115 is overlapped on the surface of the copper tube 13, and the swing limit bar 115 is used to limit the position of multiple copper tubes 13. When the copper tube 13 slides due to inertia, the copper tube 13 in the adjacent position is used to squeeze the swing limit bar 115 to limit the position, so that the swing limit bar 115 will not cause excessive shaking; after a layer of copper tube 13 is laid on the top surface of the protective top cover 12, the shockproof block 14 is overlapped on the surface of the bottom copper tube 13, and then the new copper tube 13 is overlapped on the top surface of the shockproof block 14, and at the same time, the fitting arc plate 144 on the inner wall of the shockproof block 14 is overlapped on the surface of the copper tube 13, and the anti-slip pattern 147 on the inner wall of the fitting arc plate 144 is used to increase the anti-slip property between the copper tube 13, and at the same time, the thickness of the shockproof block 14 can make a certain thickness of gap between the upper and lower layers of copper tube 13, so as to avoid excessive friction between the upper and lower layers of copper tube 13. When the copper tube 13 is being transported, the elastic wire 143 on the inner wall of the fitting arc plate 144 is used to elastically buffer the vibration of the copper tube 13, which greatly reduces the vibration between the copper tubes 13 due to the up and down inertia, resulting in the deformation of the copper tube 13;After the copper pipe 13 is laid inside the supporting pad plate 11, it swings in cooperation with the side limiting plates 119 on both side surfaces of the supporting plate 111, and then the side limiting plates 119 are lapped on the side of the copper pipe 13 to squeeze and position both ends of the copper pipe 13. At the same time, the closing plate 117 is swung and squeezed on the outer surface of the side limiting plate 119. At the same time, the clamping strips 118 on both side surfaces of the closing plate 117 are clamped to the inner wall surfaces of the second docking groove 1110 and the first docking groove 116, so as to limit and support the position of the side limiting plate 119. Then, the protective top cover 12 is sleeved on the top surface of the supporting plate 111, and the extrusion positioning plates 121 on both side surfaces of the protective top cover 12 are directly buckled on the surface of the closing plate 117 to limit the position of the closing plate 117. In this way, the outward driving force generated by the copper pipe 13 on the side limiting plate 119 will be transmitted to the surface of the closing plate 117, and then through the driving force of the closing plate 117 to the outer surface of the extrusion positioning plate 121. As long as the extrusion positioning plate 121 does not deform or fall off, under the limitation of the extrusion positioning plate 121, the closing plate 117 and the side limiting plate 119 cannot expand, so that the copper pipe 13 inside the supporting plate 111 falls off. When the copper pipe 13 needs to be detached later, only the extrusion positioning plate 121 and the protective top cover 12 need to be detached from the top surface of the supporting pad plate 11, and the surface of the closing plate 117 is slightly bent. Without the extrusion force on the surface of the closing plate 117 and under the outward push of the side limiting plate 119, the copper pipe 13 inside the supporting plate 111 slides down. Moreover, under the limitation of the swing limiting strip 115, the copper pipe 13 will only fall off column by column, and will not fall off in a large area after the protective device is opened, so that the copper pipe 13 will not be deformed due to impact when sliding.

[0036] Obviously, the above embodiments are only examples for clear illustration and not limitations on the implementation manners. For those of ordinary skill in the art, other different forms of changes or modifications can be made based on the above description. It is not necessary and impossible to list all the implementation manners here. And the obvious changes or modifications derived therefrom are still within the protection scope of the present invention.

Claims

1. A copper tube transport anti-impact damage structure, comprising a support pad plate (11) and a protective top cover (12) movably sleeved on the outer surface of the top of the support pad plate (11), a copper tube (13) movably sleeved on the outer surface of the top of the support pad plate (11), and a shockproof block (14) movably sleeved on the outer surface of the copper tube (13), characterized in that: A support plate (111) is symmetrically fixedly installed on the top surface of the support pad platform (11) and at the edge positions on both sides; a docking groove (116) is provided on the two side surfaces of the support plate (111); a closing plate (117) is swingably connected to the two side surfaces of the support pad platform (11); side limit plates (119) are symmetrically swingably connected to the two side surfaces of the support plate (111); a docking groove (1110) is provided on the outer side surface of the side limit plate (119); a clamping strip (118) movably sleeved on the inner side wall of the docking groove (116) and the docking groove (1110) is fixedly connected to the outer side surface of the closing plate (117) and at the edge positions on both sides; and extrusion positioning plates (121) movably overlapped on the outer side surface of the closing plate (117) are symmetrically provided on the two side surfaces of the protective top cover (12).

2. The copper tube transport anti-impact damage structure according to claim 1, characterized in that: An arc-shaped pressing block (122) is fixedly connected to the bottom surface of the protective top cover (12), and the bottom outer surface of the arc-shaped pressing block (122) is movably overlapped with the outer surface of the copper tube (13).

3. The copper tube transport anti-impact damage structure according to claim 2, characterized in that: Threaded locking buckles (123) are fixedly connected to both side surfaces of the protective top cover (12), and the bottom surface of the threaded locking buckle (123) is attached to the top outer surface of the support plate (111).

4. The copper tube transport anti-impact damage structure according to claim 3, characterized in that: A raising strip (112) is fixedly connected to the top surface of the support pad plate (11) and at the edge positions on both sides, and a clamping groove (113) is provided on the top surface of the raising strip (112).

5. The copper tube transport anti-impact damage structure according to claim 4, characterized in that: A semicircular stopper (114) is fixedly connected to the top surface of the raised strip (112) and located at a side edge of the clamping groove (113); the inner wall of the semicircular stopper (114) is movably sleeved on the outer surface of the copper tube (13).

6. The copper tube transport anti-impact damage structure according to claim 4, characterized in that: A swing limit strip (115) is swingably connected to the inner wall surface of the clamping groove (113), and the two side surfaces of the swing limit strip (115) are movably fitted to the outer surface of the copper tube (13).

7. The copper tube transport anti-impact damage structure according to claim 1, characterized in that: The upper and lower surfaces of the shockproof block (14) are provided with semicircular grooves (141); a cushion block (142) is fixedly connected to the inner wall surface of the semicircular groove (141); an elastic wire (143) is fixedly connected to the top surface of the cushion block (142); and one end of the elastic wire (143) is fixedly connected to a fitting arc plate (144) that is slidably sleeved on the inner wall surface of the semicircular groove (141).

8. The copper tube transport anti-impact damage structure according to claim 7, characterized in that: The outer surface of the fitting arc plate (144) is provided with anti-slip grooves (147), the edge positions of both sides of the semicircular groove (141) are provided with limiting slide grooves (145), and the two side surfaces of the fitting arc plate (144) are provided with extrusion limiting blocks (146) which are movably sleeved on the inner side wall surfaces of the limiting slide grooves (145).

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