Extension line of vibrating equipment and pumping equipment

Abstract

An extension line for a vibrating device and a pumping device is disclosed. One end of the extension line is connected to a power device, and the other end is connected to either the vibrating device or the pumping device. The extension line includes a pipe connector connected to one end of the power device; a flexible hose connected to the other end of the pipe connector; and a quick connector connected to the other end of the flexible hose and the other end of the vibrating device or the pumping device. By rotating the flexible hose of the extension line through the power device, the vibrating device is driven to vibrate or the pumping device is driven to pump water. When the vibrating device or the pumping device is not long enough during assembly at the work site, the other end of the quick connector is used to connect the vibrating device or the pumping device, and the pipe connector is used to connect the power device. This reduces the load that needs to be carried, greatly improves the convenience of use, and reduces the cost of purchasing vibrating devices or pumping devices of different lengths.

Description

[Technical Field]

[0001] The present invention provides an extension line, particularly an extension line for a vibration device and a pumping device. [Previous Technology]

[0002] Please refer to Figure 1 and Figure 2. During the pouring of concrete, construction workers at construction sites use a vibrating device 1 and a power device 10 to rotate a hose 2 to drive the vibrating device 1 to vibrate continuously in the concrete at the construction site. After the concrete at the construction site is vibrated, there may be water accumulation. The construction workers replace the vibrating device 1 with a water pumping device 3 to produce a water pumping action to remove the water accumulation in the concrete at the construction site.

[0003] Referring again to Figures 1 and 2, the vibration device 1 is connected to a pipe connector 11 at one end of the hose 2 and to a vibration device 12 at the other end of the hose 2. Similarly, the water pumping device 3 is connected to a pipe connector 31 at one end of the hose 2 and to a water pumping device 32 at the other end of the hose 2. The power device 10 has a sleeve 100, which is inserted into and fixed to one end of the pipe connector 11 of the vibration device 1 or the pipe connector 31 of the water pumping device 3 by means of a telescopic pull rod 101. The hose 2 consists of a hose layer 21, a reed tube 22, and a reed tube 23. The reed tube 22 has a flat thickness, and gaps 221 are formed between the reed tubes 22. The gaps 221 allow the hose 2 to be wound into a circular shape for use. The reed tubes 22 mainly protect the hose layer 21 from being crushed by heavy objects, thus protecting the strength of the hose 2. Since the vibration device 1 is connected to the power device 10 at an average speed of 3600 revolutions per minute, the reed tube 23, connected to the power device 10, also rotates at 3600 revolutions per minute. The reed tube 23 will also rotate rapidly at 3600 revolutions per minute. When the reed tube 23 rotates rapidly and shakes, it will collide with the inner wall of the reed tube 22 and the hose layer 21. Therefore, lubricating oil is applied to the outer surface of the reed tube 23 to reduce wear. Therefore, when the hose 2 is to be assembled between the pipe joint 11 and the vibration device 12, and between the pipe joint 31 and the pumping device 32, the hose 2 is 6 meters long and weighs 22-25 kilograms. The vibration device 12 includes a cover, a first outer tube, a drive rod, a soft suction body, a bearing, and a second outer tube (not shown). The other end of the drive rod is provided with a conduit assembly to be rotated by a rotating machine, and the conduit assembly drives the drive rod to generate vibration. At the construction site, it not only has to bear the weight of the pipe joint 11, the vibration device 12, the pipe joint 31, the pumping device 32, and the hose 2, but after construction, the length of the hose 2 used to assemble the pipe joint 11, the vibration device 12, the pipe joint 31, and the pumping device 32 is sometimes limited by the construction site and it is necessary to reassemble the hose 2a to a length of 8 meters, 10 meters, or 12 meters.

[0004] However, if construction workers are to use the hose 2 between the pipe joint 11 and the vibration device 12, and between the pipe joint 31 and the pumping device 32, on-site, they must purchase additional hoses 2a of 8, 10, or 12 meters in length. The weight of these 8, 10, or 12-meter hoses 2a is comparable to that of the 6-meter hose 2. Each time construction workers go to the construction site, they have to carry different lengths of hoses 2 and 2a, as well as the pipe joint 11, the vibration device 12, the pipe joint 31, and the pumping device 32. This is cumbersome to carry and bear, and the operation is troublesome and costly. Therefore, improvements are necessary. [Summary of the Invention]

[0005] The main objective of this invention is to solve the problem that when the length of the hose of the existing vibration equipment and pumping equipment is limited by the insufficient length at the work site, it is necessary to reassemble and carry hoses, vibration equipment and pumping equipment of different lengths, which makes carrying and bearing more cumbersome, troublesome to implement and increases costs. The invention provides an extension line for the vibration equipment and pumping equipment, thereby reducing the carrying and bearing load, greatly improving the convenience of use, and reducing the cost of purchasing vibration equipment or pumping equipment of different lengths.

[0006] To achieve the aforementioned objective, the present invention provides an extension line for a vibration device and a pumping device. One end of the extension line is connected to a power device, and the other end is connected to a vibration device or a pumping device. The extension line includes a pipe connector, one end of which is connected to one end of the power device; a flexible hose, one end of which is connected to the other end of the pipe connector; and a quick connector, one end of which is connected to the other end of the flexible hose, and the other end of which is connected to the vibration device or the pumping device. The power device rotates the flexible hose of the extension line to drive the vibration device to vibrate or the pumping device to pump.

[0007] Furthermore, the pipe fitting includes a tube body located at one end of the pipe fitting and having a retaining ring, and a shrink tube connected to the opposite end of the tube body; wherein, one end of the flexible tube is connected to and crimped into the shrink tube of the pipe fitting, the flexible tube includes a flexible tube layer, a reed tube passing through the flexible tube layer and having gaps therebetween, and a reed tube passing through the reed tube, the reed tube including a first connecting portion located at one end of the reed tube, a driving portion connected to the first connecting portion, a second connecting portion located at the other end of the reed tube, and a connecting rod connected to the second connecting portion, wherein one end of the first connecting portion is connected to one end of the reed tube, the driving portion includes a first driving rod and a second driving rod, one end of the first driving rod being connected to the... The other end of the first connecting part is connected, one end of the second drive rod is connected to the other end of the first drive rod, and the other end of the second drive rod is connected to a sleeve body. One end of the second connecting part is connected to one end of the connecting rod, and the other end of the second connecting part is connected to the other end of the reed tube. The quick connector includes a first connecting pipe that connects to the other end of the hose, a second connecting pipe that connects to one end of the first connecting pipe and is opposite to the first connecting pipe, and two bearings located inside the second connecting pipe. One end of the first connecting pipe is pressed and fixed to the other end of the hose. The second connecting pipe extends a sleeve body relative to one end of the first connecting pipe. One end of the sleeve body is provided with a telescopic pull rod that is inserted into and fixed inside one end of the vibrating device and the pumping device.

[0008] Furthermore, the shrink tube, the tube body, the first connector, and the second connector are internally connected, the outer diameter of the shrink tube is smaller than the outer diameter of the tube body, the outer diameter of the tube body is smaller than the outer diameter of the second connector, and the outer diameter of the second connector is smaller than the outer diameter of the tube sleeve.

[0009] Furthermore, the flexible tube layer is hollow, and the reed tube is inserted into the inner wall of the flexible tube layer. The first connecting part of the reed tube has a first hole and a second hole at both ends that are open outward and opposite to each other. The first hole at one end of the first connecting part is connected to one end of the reed tube. One end of the first driving rod is connected to the second hole at the other end of the first connecting part. A protruding ring is provided on the surface of the first driving rod adjacent to one end of the first driving rod. The second connecting part has a first end and a second end that are open outward and opposite to each other at both ends. The first end at one end of the second connecting part is connected to one end of the connecting rod. The second end at the other end of the second connecting part is connected to the other end of the reed tube. The connecting rod is a hexagonal rod.

[0010] Furthermore, one end of the sleeve of the second connector is provided with a screw hole and a hole located below the screw hole, the other end of the first connector is connected to one end of the second connector, and a stop portion is provided between the second connector and the sleeve; wherein, the two bearings are provided between the stop portion of the second connector and the protruding ring at one end of the first drive rod, and the two bearings allow the first drive rod of the drive portion to extend through, so that the second drive rod penetrates into the sleeve of the second connector.

[0011] Furthermore, the pull rod includes a lower sleeve, a rod, a spring, an upper cover, and a fixed rotating body. One end of the lower sleeve has an external thread that connects to the threaded hole at one end of the sleeve. The other end of the lower sleeve has a protruding tube. The external thread of the lower sleeve and the interior of the protruding tube have a receiving hole and a through hole above the receiving hole. The rod includes a first rod portion, a second rod portion connected to the upper part of the first rod portion, and a third rod portion connected to the upper part of the second rod portion. The first rod portion passes through the retaining ring of the tube and the hole at one end of the sleeve of the second connecting pipe. The second rod portion… The third rod portion, which has external threads, is inserted into the receiving hole of the lower sleeve to pass through the upper cover. The spring is fitted into the second rod portion located in the receiving hole of the lower sleeve. The spring extends and retracts between the convex tube and the first rod portion. The upper cover has a sleeve hole into which the convex tube of the lower sleeve is inserted, allowing the third rod portion of the rod to pass through the upper cover. The fixed rotating body, which has internal threads, is connected to the external threads of the third rod portion. The rod moves upward and, by means of the spring, forms a restoring rebound force, causing the first rod portion of the rod to be engaged and fixed in the retaining ring of the tube and the hole at one end of the tube sleeve of the second connecting pipe.

[0012] Furthermore, the outer diameter of the first rod is larger than the outer diameter of the second rod, and the outer diameter of the second rod is smaller than the outer diameter of the third rod.

[0013] As disclosed above, the present invention has the following characteristics compared to the prior art:

[0014] The present invention mainly connects the power equipment at one end of the extension line and the vibration equipment or the pumping equipment at the other end. When the vibration equipment and the pumping equipment are not long enough during assembly at the work site, the other end of the extension line is connected to the vibration equipment or the pumping equipment, and the pipe joint is connected to the power equipment. This can reduce the load carried and greatly improve the convenience of use, as well as reduce the cost of purchasing vibration equipment or pumping equipment of different lengths.

Implementation Method

[0016] The technical content, features and effects of the present invention will be clearly presented in the following detailed description of the preferred embodiments with reference to the accompanying drawings.

[0017] Please refer to Figures 3 to 6 and Figures 8 and 10. The present invention is an extension line of a vibration device and a pumping device. One end of the extension line 4 is connected to a power device 5 and the other end is connected to a vibration device 6 or a pumping device 7. The extension line 4 includes a pipe connector 41, one end of which is connected to one end of the power device 5; a hose 42, one end of which is connected to the other end of the pipe connector 41; and a quick connector 43, one end of which is connected to the other end of the hose 42 and the other end of which is connected to the vibration device 6 or the pumping device 7. The power device 5 rotates the hose 42 of the extension line 4 to drive the vibration device 6 to vibrate or the pumping device 7 to pump.

[0018] Refer to Figures 3 to 6 and in conjunction with Figures 7 to 10, the pipe fitting 41 includes a pipe body 411 located at one end of the pipe fitting 41 and having a retaining ring 412, and a shrink tube 413 connected to one end of the pipe body 411, the shrink tube 413 communicating with the interior of the pipe body 411.

[0019] One end of the flexible hose 42 is connected to the constricted tube 413 of the pipe connector 41. The flexible hose 42 includes a flexible hose layer 421, a reed tube 422 passing through the flexible hose layer 421, and a reed tube 423 passing through the reed tube 422. The constricted tube 413 is fitted with the outer surface of the flexible hose 42 and pressurized to fix it, so that the constricted tube 413 of the pipe connector 41 is squeezed and fixed to one end of the flexible hose 42. More specifically, the reed tube 422 has a planar thickness, and gaps 4221 are formed between the reed tubes 422. The gaps 4221 of the reed tubes 422 facilitate the flexible hose 42 to be wound into a circular shape for use. The reed tubes 422 mainly protect the flexible hose layer 421 from being crushed by heavy objects, thus protecting the strength of the flexible hose 42. Since the vibration device 6 is connected to the power device 5 at an average speed of 3600 revolutions per minute, the reed tube 423 connected to the power device 5 also rotates at 3600 revolutions per minute. The reed tube 423 will also rotate rapidly at 3600 revolutions per minute. When the reed tube 423 is rotating rapidly and shaking, it will collide with the inner wall of the reed tube 422 and the hose layer 421. Therefore, lubricating oil is applied to the outer surface of the reed tube 423 to reduce wear.

[0020] More specifically, the flexible tube layer 421 is hollow. The reed tube 422 is inserted into the inner wall of the flexible tube layer 421. The reed tube 423 includes a first connecting portion 426 located at one end 4231 of the reed tube 423, a driving portion 427 connected to the first connecting portion 426, a second connecting portion 428 located at the other end 4232 of the reed tube 423, and a connecting rod 429 connected to the second connecting portion 428. The first connecting portion 426 has a first hole 4261 and a second hole 4262 at both ends that are open outward and opposite to each other. The first hole 4261 at one end of the first connecting portion 426 can be connected to one end 4231 of the reed tube 423 by means of fitting. The drive unit 427 includes a first drive rod 4270 and a second drive rod 4271. One end 4272 of the first drive rod 4270 can be connected to the second hole 4262 at the other end of the first connecting part 426 by means of screwing or fitting. A protruding ring 4273 is provided on the surface of the first drive rod 4270 adjacent to one end 4272. One end 4275 of the second drive rod 4271 can be connected to the other end 4274 of the first drive rod 4270 by means of screwing or fitting. The other end 4276 of the second drive rod 4271 can be connected to a sleeve body 4277 by means of screwing or fitting. The second connecting portion 428 has an outwardly opening and opposite first end 4281 and a second end 4282 at both ends. The first end 4281 of the second connecting portion 428 can be connected to one end 4291 of the connecting rod 429 by screwing or fitting. The second end 4282 of the second connecting portion 428 can be connected to the other end 4232 of the reed tube 423 by fitting and pressing. The connecting rod 429 is a hexagonal rod.

[0021] The quick connector 43 includes a first connector 431 connected to the other end of the hose 42, a second connector 432 connected to one end of the first connector 431 and opposite to the first connector 431, and two bearings 433 respectively located inside the second connector 432. The first connector 431 has an inner surface that is pressurized to fit the outer surface of the hose 42, thereby pressing and fixing the first connector 431 to the other end of the hose 42. The other end 4312 of the first connector 431 can be connected to one end 4320 of the second connector 432 by screwing or fitting, and the interiors of the first connector 431 and the second connector 432 are in communication. The second connector 432 extends a sleeve 4321 at one end relative to the first connector 431. One end of the sleeve 4321 has a threaded hole 4322 and a hole 4323 located below the threaded hole 4322, allowing a telescopic pulling rod 8 to be inserted into and fixed within one end of the vibrating device 6, i.e., the pumping device 7. A stop portion 4324 is provided between the second connector 432 and the sleeve 4321. Two bearings 433 are disposed between the stop portion 4324 of the second connector 432 and the protruding ring 4273 at one end 4272 of the first drive rod 4270. The two bearings 433 allow the first drive rod 4270 of the drive unit 427 to pass through, and allow the second drive rod 4271 to pass into the sleeve 4321 of the second connector 432. In one embodiment, the shrink tube 413, the tube body 411, the first connector 431, and the second connector 432 are internally connected. The outer diameter of the shrink tube 413 is smaller than the outer diameter of the tube body 411, the outer diameter of the tube body 411 is smaller than the outer diameter of the second connector 432, and the outer diameter of the second connector 432 is smaller than the outer diameter of the tube sleeve 4321.

[0022] Referring again to Figures 3 to 7 and in conjunction with Figures 8 to 10, one end of the extension line 4 is connected to the power device 5, and the other end is connected to the vibration device 6 or the pumping device 7. The power device 5 has a power unit 50, one end of which is provided with a sleeve 51 and a shaft 52 located inside the sleeve 51 and pivotally connected to the shaft of a motor 53. A screw hole (not shown) is provided on the upper part of the sleeve 51. The shaft 52 can be connected to the other end 4292 of the connecting rod 429, which is a hexagonal rod, by means of a fitting. The vibration device 6 includes a vibration unit 61 with a vibration group (not shown), a pipe connector 611 connecting to the tube sleeve 4321 of the quick connector 43, and a flexible hose 612 connecting the pipe connector 611 and the vibration unit 61 at both ends. A connecting rod 613 inside the pipe connector 611 of the vibration device 6 is assembled with the second drive rod 4271 and the sleeve body 4277 inside the quick connector 43. After the pipe connector 41 of the extension line 4 is connected to the sleeve 51 of the power device 5, each telescopic pulling rod 8 is inserted into and fixed within the retaining ring 412 of the pipe connector 611 and the tube sleeve 411 of the vibration device 6. The components of the pipe connector 611 and the flexible hose 612 of the vibration device 6 are the same as those of the pipe connector 41 and the flexible hose 42 of the extension line 4, and will not be described in detail here.

[0023] Referring again to Figures 3 to 6 and in conjunction with Figure 9, the pull rod 8 includes a lower sleeve 81, a rod 82, a spring 83, an upper cover 84, and a fixed rotating body 85. One end of the lower sleeve 81 is provided with an external threaded portion 811 that is threaded to the threaded hole 4322 at one end of the sleeve 4321, and the other end is provided with a protruding tube 812. The external threaded portion 811 and the protruding tube 812 of the lower sleeve 81 are provided with a receiving hole 813 and a part located in the receiving hole 813. The upper perforation 814 is present. The rod body 82 includes a first rod portion 821, a second rod portion 822 connected above the first rod portion 821, and a third rod portion 823 connected above the second rod portion 822. The first rod portion 821 passes through the retaining ring 412 of the tube body 411 and the hole 4323 at one end of the sleeve body 4321 of the second connecting pipe 432. The second rod portion 822 passes through the receiving hole 813 of the lower sleeve body 81. The third rod portion 823 has external threads to pass through the upper top cover 84. In one embodiment, the outer diameter of the first rod portion 821 is larger than the outer diameter of the second rod portion 822, and the outer diameter of the second rod portion 822 is smaller than the outer diameter of the third rod portion 823. The spring 83 is fitted into the second rod portion 822 located in the receiving hole 813 of the lower sleeve 81. The spring 83 extends and retracts between the convex tube 812 and the first rod portion 821. The upper cover 84 has a set hole 841 for the convex tube 812 of the lower sleeve 81 to be inserted, so that the third rod portion 823 of the rod 82 protrudes from the upper cover 84. The fixing rotating body 85, which is a nut with internal threads, is connected to the external threads of the third rod portion 823. During assembly, the upper cover 84 of the pulling rod 8 is pulled upward first, and the rod 82 is also moved upward at the same time. The spring 83 generates a restoring rebound force. At this time, the tube body 411 of the pipe connector 41 is inserted into the sleeve 51. The other end 4292 of the connecting rod 429 is connected to the shaft 52 inside the sleeve 51. When the top cover 84 of the pulling rod 8 is released, the rod body 82 is subjected to the rebound force of the spring 83, causing the first rod part 821 of the rod body 82 to pass through the hole 4323 of the tube sleeve 4321 and be engaged with the retaining ring 412 fixed to the tube body 411 and the hole at one end of the tube sleeve 4321 of the second connecting pipe 432.

[0024] Referring again to Figures 3 to 6 and in conjunction with Figures 7 to 9, when it is found at the work site that the hose 612 of the vibration device 6 is not long enough during assembly, the extension line 4 is directly installed between the power device 5 and the vibration device 6. Through the extension line 4, the tube body 411 of the pipe connector 41 is inserted into the sleeve 51 of the power device 5, and the first rod portion 821 of the telescopic pull rod 8 is engaged with the retaining ring 412, so that the pipe connector 41 can be fixedly fastened to the sleeve 51 of the power device 5. Meanwhile, the tube body 4321 of the quick connector 43 is used to insert one end of the pipe connector 611, and the telescopic pull rod 8 is fastened, so that the quick connector 43 of the extension line 4 can be fixedly fastened to the pipe connector 611 of the vibration device 6. Therefore, the present invention directly assembles the extension line 4 between the power device 5 and the vibration device 6, which is more in line with the length used in the work site. There is no need to purchase vibration devices 6 of different lengths separately, which can reduce the load carried and greatly improve the convenience of use, as well as reduce the cost of purchasing vibration devices 6 of different lengths.

[0025] Referring again to Figures 3 to 7 and in conjunction with Figure 10, the extension line 4 is also applied to the pumping device 7. The pumping device 7 includes a pumping device 71 with a pumping assembly (not shown), a pipe joint 711 that connects to the pipe sleeve 4321 of the quick connector 43, and a hose 712 that connects the pipe joint 711 and the pumping device 71 at both ends. The extension line 4 is arranged between the pumping device 7 and the power device 5. A connecting rod 713 in the pipe joint 711 of the pumping device 7 is assembled with the second drive rod 4271 and the sleeve 4277 in the quick connector 43. After the pipe joint 41 of the extension line 4 is connected to the sleeve 51 of the power device 5, the telescopic pull rods 8 are inserted into and fixed in the retaining ring 412 of the pipe joint 711 and the pipe sleeve 411 of the pumping device 7. The components of the pipe joint 711 and the hose 712 of the pumping device 7 are the same as those of the pipe joint 41 and the hose 42 of the extension line 4, and will not be described in detail here.

[0026] Referring again to Figures 3 to 7 and in conjunction with Figure 10, when it is found at the work site that the hose 712 of the pumping equipment 7 is not long enough during assembly, the extension line 4 is directly installed between the power equipment 5 and the pumping equipment 7. Through the extension line 4, the pipe body 411 of the pipe connector 41 is inserted into the sleeve 51 of the power equipment 5, and the first rod portion 821 of the telescopic pull rod 8 is engaged with the retaining ring 412 of the pipe body 411, so that the pipe body 411 of the pipe connector 41 can be fixedly engaged with the sleeve 51 of the power equipment 5. Meanwhile, the sleeve body 4321 of the quick connector 43 is used to insert one end of the pipe connector 711, and the telescopic pull rod 8 is engaged, so that the quick connector 43 of the extension line 4 can be fixedly engaged with the pipe connector 711 of the pumping equipment 7. Therefore, the present invention directly assembles the extension line 4 between the power equipment 5 and the pumping equipment 7, which is more in line with the length used on the work site. There is no need to purchase pumping equipment 7 of different lengths separately, which can reduce the load carried and greatly improve the convenience of use, as well as reduce the cost of purchasing pumping equipment 7 of different lengths.

[0027] However, the foregoing is merely a preferred embodiment of the present invention, intended to enable those skilled in the art to understand the content of the present invention and implement it accordingly, and is not intended to limit the scope of the present invention. Therefore, all equivalent variations or modifications to the shape, structure, and features described in the claims of the present invention should be included within the scope of the patent application of the present invention. [Simplified Explanation of the Diagram]

[0015] Figure 1: An exploded perspective view of the existing power equipment, vibration equipment, and pumping equipment configuration. Figure 2: A partial sectional view of the hose configured in the existing vibration equipment and pumping equipment. Figure 3: A perspective view of the extension line of the vibration equipment and pumping equipment of the present invention. Figure 4: An exploded perspective view of the extension line of the vibration equipment and pumping equipment of the present invention. Figure 5: A sectional schematic diagram of the quick connector and hose assembly in Figure 4. Figure 6: A sectional schematic diagram of the pipe joint and hose assembly in Figure 4. Figure 7: An exploded perspective view of the extension line of the present invention configured with the vibration equipment and pumping equipment. Figure 8: A perspective view of the extension line of the present invention combined with the vibration equipment and power equipment. Figure 9: A sectional view of the quick connector of the present invention combined with the pipe joint and pull rod of the vibration equipment or pumping equipment. Figure 10: A perspective view of the extension line of the present invention combined with the pumping equipment and power equipment.

Claims

1. An extension line for a vibrating device and a pumping device, wherein one end of the extension line is connected to a power device and the other end is connected to a vibrating device or a pumping device, wherein the extension line comprises: a pipe connector, the pipe connector comprising a pipe body having a retaining ring at one end of the pipe connector, the retaining ring of the pipe body being inserted into and fixed inside one end of the power device by a telescopic pulling rod, the pipe connector having a constricted tube connected to one end of the pipe body; a flexible hose, one end of the flexible hose being connected to and pressed together with the constricted tube of the pipe connector, the flexible hose comprising a flexible hose layer, a reed tube passing through the flexible hose layer and having gaps therebetween, and a reed tube passing through the reed tube, the reed tube comprising a first connecting portion at one end of the reed tube, a driving portion connected to the first connecting portion, a second connecting portion at the other end of the reed tube, and a connecting rod connected to the second connecting portion, wherein one end of the first connecting portion is connected to one end of the reed tube, and the driving portion comprises a first driving... The device comprises a moving rod and a second driving rod, one end of the first driving rod being connected to the other end of the first connecting part, one end of the second driving rod being connected to the other end of the first driving rod, and the other end of the second driving rod being connected to a sleeve body. One end of the second connecting part is connected to one end of the connecting rod, and the other end of the second connecting part is connected to the other end of the reed tube. It also comprises a quick connector, which includes a first connecting tube connecting to the other end of the hose, a second connecting tube connecting to one end of the first connecting tube and opposite to the first connecting tube, and two bearings located inside the second connecting tube. One end of the first connecting tube is pressed and fixed to the other end of the hose. The second connecting tube extends a sleeve body relative to one end of the first connecting tube. One end of the sleeve body is fitted with a telescopic pulling rod that is inserted into and fixed within one end of the vibrating device or the pumping device. The power device rotates the hose of the extension line to drive the vibrating device to vibrate or the pumping device to pump.

2. An extension line of the vibrating equipment and pumping equipment as described in claim 1, wherein, The shrink tube, the tube body, the first connector, and the second connector are internally connected. The outer diameter of the shrink tube is smaller than the outer diameter of the tube body, the outer diameter of the tube body is smaller than the outer diameter of the second connector, and the outer diameter of the second connector is smaller than the outer diameter of the tube sleeve.

3. An extension line of the vibrating equipment and pumping equipment as described in claim 1, wherein, The flexible tube is hollow, and the reed tube is inserted into the inner wall of the flexible tube. The first connecting part of the reed tube has a first hole and a second hole at both ends that are open outward and opposite to each other. The first hole at one end of the first connecting part is connected to one end of the reed tube. One end of the first drive rod is connected to the second hole at the other end of the first connecting part. A protruding ring is provided on the surface of the first drive rod adjacent to one end. The second connecting part has a first end and a second end at both ends that are open outward and opposite to each other. The first end at one end of the second connecting part is connected to one end of the connecting rod. The second end at the other end of the second connecting part is connected to the other end of the reed tube. The connecting rod is a hexagonal rod.

4. An extension line of the vibrating equipment and pumping equipment as described in claim 3, wherein, The second connector has a screw hole and a hole below the screw hole at one end of its sleeve body. The other end of the first connector is connected to one end of the second connector. A stop is provided between the second connector and the sleeve body. The two bearings are located between the stop of the second connector and the protruding ring at one end of the first drive rod. The two bearings allow the first drive rod of the drive part to pass through, so that the second drive rod can penetrate into the sleeve body of the second connector.

5. An extension line of the vibrating equipment and pumping equipment as described in claim 4, wherein, The pull rod includes a lower sleeve, a rod, a spring, an upper cover, and a fixed rotating body. One end of the lower sleeve has an external thread that connects to the threaded hole at one end of the tubular sleeve. The other end of the lower sleeve has a protruding tube. The external thread of the lower sleeve and the interior of the protruding tube have a receiving hole and a through hole above the receiving hole. The rod includes a first rod portion, a second rod portion connected above the first rod portion, and a third rod portion connected above the second rod portion. The first rod portion passes through the retaining ring of the tubular sleeve and the hole at one end of the tubular sleeve of the second connecting pipe. The second rod portion passes through the lower sleeve. The receiving hole has an external thread for the third rod to pass through the upper cover. The spring is fitted into the second rod in the receiving hole of the lower sleeve. The spring extends and retracts between the convex tube and the first rod. The upper cover has a sleeve hole for the convex tube of the lower sleeve to be inserted, so that the third rod of the rod passes through the upper cover. The fixed rotating body with internal thread is connected to the external thread of the third rod. The rod moves upward and forms a restoring rebound force by the spring, so that the first rod of the rod is engaged and fixed in the retaining ring of the tube and the hole at one end of the tube sleeve of the second connecting pipe.

6. An extension line of the vibrating equipment and pumping equipment as described in claim 5, wherein, The outer diameter of the first rod is larger than that of the second rod, and the outer diameter of the second rod is smaller than that of the third rod.

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