Glass fiber cable protection pipe receiving and discharging device

Abstract

The utility model discloses a receiving and blanking device for a glass fiber cable protection pipe. A blanking plate is arranged in an up-down inclined manner; the stop piece rotates around the central axis extending in the first direction and is provided with a stop position extending to the position above the discharging plate and a release position hidden to the position below the upper surface of the discharging plate. The bearing groove is provided with a no-load position connected with the inclined lower end of the discharging plate and a bearing position away from the no-load position. The sliding block is arranged below the bearing groove in a left-right sliding mode. The long arm is hinged between the sliding block and the stop piece; a limiting groove is formed in the top surface of the sliding block; limiting protrusions corresponding to the limiting grooves are arranged on the bearing grooves. The glass fiber cable protection pipe feeding device can bear glass fiber cable protection pipes and guide feeding, the glass fiber cable protection pipes which are fed in sequence can be separated from one another, stable and orderly feeding of the glass fiber cable protection pipes is achieved, mutual collision and stacking of the glass fiber cable protection pipes are avoided, and the machining requirement of the glass fiber cable protection pipes is effectively met.

Description

Technical Field

[0001] This utility model relates to the technical field of glass fiber tube processing equipment, and in particular to a glass fiber cable protection tube receiving and feeding device. Background Technology

[0002] Fiberglass cable protection pipes are tubes made primarily of fiberglass, fitted over cables to effectively protect them. In practical applications, several cable pipes need to be joined together to the appropriate length to meet the protection requirements of cables of varying lengths. Based on actual application needs, the fiberglass cable protection pipes are cut to specific lengths using a cutting machine. During the cutting process, the cut fiberglass cable protection pipes roll down the machine sequentially for unloading. However, during unloading, the sequentially rolling fiberglass cable protection pipes collide and squeeze against each other, easily damaging the outer wall of the pipes. Furthermore, the stacked and compressed pipes are difficult to pull out and move, making it difficult to effectively meet the processing requirements of fiberglass cable protection pipes. Utility Model Content

[0003] To address the aforementioned technical problems, the purpose of this utility model is to propose a glass fiber cable protection tube receiving and feeding device that can receive and guide the glass fiber cable protection tubes during feeding, and can isolate the glass fiber cable protection tubes fed sequentially from each other, thereby achieving stable and orderly feeding of the glass fiber cable protection tubes, avoiding collisions and stacking of the glass fiber cable protection tubes, and effectively meeting the processing requirements of glass fiber cable protection tubes.

[0004] The technical solution of this utility model is achieved as follows: a glass fiber cable protection pipe receiving and feeding device, including a feeding plate, a stop, a receiving groove, a support spring, and a linkage component;

[0005] The feeding plate is inclined vertically;

[0006] The stop member is disposed below the feed plate; the stop member rotates about a central axis extending in the first direction and has a stop position extending above the feed plate and a release position hidden below the upper surface of the feed plate.

[0007] The receiving groove is movably disposed at the inclined lower end of the feeding plate, having an unloaded position connected to the inclined lower end of the feeding plate and a load-bearing position away from the unloaded position; the supporting spring has an elastic force that drives the receiving groove to move from the load-bearing position to the unloaded position.

[0008] The linkage component includes a slider, a long arm, and a return spring; the slider is slidably disposed below the receiving groove; the long arm is hinged between the slider and the stop; the return spring has an elastic force that drives the stop to move from the release position to the stop position;

[0009] The top surface of the slider is provided with a limiting groove; the receiving groove is provided with a limiting protrusion corresponding to the limiting groove; in the stop position and the load-bearing position, the limiting protrusion is inserted into the limiting groove vertically; in the stop position and the unloaded position, the limiting protrusion is moved away from the limiting groove vertically.

[0010] Furthermore, the inclined upper and lower ends of the feed plate are both bent downwards to form reverse bending portions.

[0011] Furthermore, the linkage component includes a slide rod; the slide rod extends in the left-right direction; the slider is slidably disposed on the slide rod; a fixing block is provided on the slide rod on the first side of the slider; the return spring is sleeved on the slide rod and connected between the slider and the fixing block.

[0012] Furthermore, a limiting block is provided on the second side of the slider on the slide rod; at the stop position, the slider and the limiting block are engaged in a limiting cooperation.

[0013] Furthermore, in the unloaded position, the receiving groove abuts against the unloading plate.

[0014] Furthermore, the receiving groove is an arc-shaped groove structure, and a blocking edge is formed on the side of the receiving groove that is away from the feeding plate.

[0015] Furthermore, the first direction is the width direction of the feed plate; a plurality of the stop members are arranged at intervals along the width direction of the feed plate; the feed plate is provided with clearance grooves corresponding to the stop members; the stop members are movably inserted into the clearance grooves.

[0016] Due to the application of the above technical solution, this utility model has the following advantages compared with the prior art:

[0017] 1. This utility model utilizes the combined use of a feeding plate and a receiving groove. The fiberglass cable protection tube is received by the feeding plate and rolled into the receiving groove. During the feeding process, when the receiving groove carries a fiberglass cable protection tube, it descends to its load-bearing position, allowing the limiting protrusion and the limiting groove to interlock and restrict the movement of the slider. Furthermore, through the linkage of the long arm, the stop is positioned to prevent subsequent fiberglass cable protection tubes from falling. This combination of methods effectively receives and guides the fiberglass cable protection tube during feeding, while also isolating the fiberglass cable protection tubes fed in successive batches. This ensures stable and orderly feeding of the fiberglass cable protection tubes, preventing damage caused by collisions and stacking, and effectively meeting the processing requirements of fiberglass cable protection tubes.

[0018] 2. In this utility model, by turning and bending the inclined upper and lower ends of the feeding plate to form a reverse bending part, the inclined upper and lower ends of the feeding plate form a smooth structure, which avoids scratching the outer wall of the glass fiber cable protection tube during the feeding process, and facilitates the smooth feeding operation of the glass fiber cable protection tube, making it highly practical. Attached Figure Description

[0019] The technical solution of this utility model will be further described below with reference to the accompanying drawings:

[0020] Figure 1 This is a three-dimensional structural diagram of the overall structure of this utility model;

[0021] Figure 2 for Figure 1 A side view structural diagram;

[0022] Figure 3 This is a three-dimensional structural diagram of the linkage component of this utility model;

[0023] The components are: 1. Feeding plate; 11. Clearance groove; 12. Reverse bending part; 2. Receiving groove; 21. Limiting protrusion; 22. Blocking edge; 23. Rubber plate; 3. Support spring; 4. Stop; 41. Long shaft; 5. Long arm; 6. Slider; 61. Limiting groove; 7. Sliding rod; 71. Fixing block; 72. Limiting block; 8. Return spring; 9. Base. Detailed Implementation

[0024] The preferred embodiments of the present invention will now be described in detail with reference to the accompanying drawings, so that the advantages and features of the present invention can be more easily understood by those skilled in the art, thereby making a clearer and more definite definition of the scope of protection of the present invention.

[0025] like Figure 1-3The image shows a fiberglass cable protection tube receiving and unloading device according to this embodiment. This device is installed at the machine's discharge port to receive and guide the unloading of processed fiberglass cable protection tubes. The device includes a base 9, a unloading plate 1, a stop 4, a receiving groove 2, a support spring 3, and a linkage assembly. The unloading plate 1 is arranged vertically and vertically on the base 9. The unloading plate 1 is formed by sheet metal bending and has an inclined section and horizontal extension sections extending horizontally from both ends of the inclined section. The free ends of these two horizontal extension sections form the inclined upper and lower ends of the unloading plate 1. The two horizontal extension sections are bent downwards to form a reverse bending portion 12. The bending position of the reverse bending portion 12 forms a smooth arc transition surface, ensuring a smooth structure at the inclined upper and lower ends of the unloading plate 1. This prevents scratching the outer wall of the fiberglass cable protection tube during unloading and facilitates smooth unloading of the fiberglass cable protection tube.

[0026] A long shaft 41 extending along a first direction is arranged below the blanking plate 1. The aforementioned stop 4 is a strip-shaped structure, with one end of the stop 4 sleeved on the long shaft 41 to allow it to rotate relative to the long shaft 41 around its central axis, and the other end of the stop 4 forming a free end. In this embodiment, there are three stop 4s, which are arranged at intervals along the length direction of the long shaft 41. The aforementioned first direction is the width direction of the blanking plate 1. A clearance groove 11 is machined on the blanking plate 1 for each stop 4. The clearance groove 11 is a strip-shaped groove extending along the length direction of the blanking plate 1. The aforementioned stop 4 is movably inserted into the clearance groove 11. In a specific configuration, the stop 4 rotates around the central axis of the long shaft 41 to have a stopping position where the free end of the stop 4 extends through the clearance groove 11 to the top of the blanking plate 1, and a release position where it is hidden through the clearance groove 11 below the upper surface of the blanking plate 1. When in the stop position, it can prevent the fiberglass cable protection tube from rolling off the feed plate 1. When in the release position, the fiberglass cable protection tube can fall freely on the feed plate 1.

[0027] In this embodiment, the aforementioned receiving groove 2, with its arc-shaped groove structure, is adapted to accommodate the fiberglass cable protection tube. The receiving groove 2 is located at the inclined lower end of the feeding plate 1. A vertically extending guide rod is installed on the base 9, and the receiving groove 2 is slidably mounted on the guide rod via a sleeve, allowing it to slide up and down. The receiving groove 2 slides up and down along the guide rod, having an unloaded position connected to the inclined lower end of the feeding plate 1 and a load-bearing position away from the unloaded position. The aforementioned support spring 3 is sleeved on the guide rod, abutting between the base 9 and the receiving groove 2, providing elastic force to drive the receiving groove 2 from the load-bearing position to the unloaded position. Through this structural design, when in the unloaded position, the receiving groove 2 can receive the fiberglass cable protection tube rolling down from the feeding plate 1. When the receiving groove 2 receives the fiberglass cable protection tube, it moves from the unloaded position to the load-bearing position under the influence of gravity. When in the load-bearing position, the fiberglass cable protection tube is moved out of the receiving groove 2. Under the elastic force of the support spring 3, the receiving groove 2 moves from the load-bearing position to the unloaded position.

[0028] The aforementioned linkage components include a slide rod 7, a slider 6, a long arm 5, and a return spring 8. The slide rod 7 is located below the receiving groove 2, extends in the left-right direction, and is fixed to the base 9. The slider 6 is sleeved on the slide rod 7, allowing it to slide left and right on the slide rod 7. The long arm 5 is hinged between the slider 6 and the stop member 4, enabling linkage between the slider 6 and the stop member 4. The aforementioned return spring 8 has a spring force that drives the stop member 4 from the release position to the stop position. In this embodiment, the return spring 8 can be connected between the stop member 4 and the base 9 to apply a spring force to the stop member 4. Alternatively, the return spring 8 can be connected between the slider 6 and the base 9 to indirectly apply a spring force to the stop member 4. In a specific structural design, a fixing block 71 is installed on the slide rod 7 on the first side of the slider 6. The return spring 8 is sleeved on the slide rod 7 and connected between the slider 6 and the fixing block 71. When the return spring 8 is in its initial state, the slider 6 moves to the designed position so that the stop 4 is in the stop position. A limit block 72 is installed on the second side of the slider 6 on the aforementioned slide rod 7. When the return spring 8 is in its initial state, the slider 6 is engaged with the limit block 72 to keep the stop 4 stably in the stop position. When the stop 4 is subjected to force and moves from the stop position to the release position, the slider 6 is driven to slide away from the limit block 72 to a predetermined position via the linkage of the long arm 5.

[0029] A limiting groove is machined on the top surface of the slider 6. This limiting groove can be a circular hole or a strip groove. In this embodiment, the limiting groove is a strip groove extending in the left-right direction, with its two ends closed. A limiting protrusion 21 is fixed on the receiving groove 2 corresponding to the limiting groove. When the stop 4 is in the aforementioned stop position and the receiving groove 2 is in the aforementioned load-bearing position, the limiting protrusion 21 and the limiting groove 61 are vertically inserted to restrict the slider 6 from sliding, thereby restricting the movement of the stop member through the linkage of the long arm 5. When the stop 4 is in the aforementioned stop position and the receiving groove 2 is in the aforementioned unloaded position, the aforementioned limiting protrusion 21 moves vertically away from the limiting groove 61, so that the slider 6 can slide freely, thereby allowing the stop 4 to move freely. In the specific structural design, when the receiving groove 2 is in the unloaded position, the receiving groove 2 and the feeding plate 1 are vertically abutted to restrict the receiving groove 2 from continuing to move upward. A blocking edge 22 extends upward on the side of the receiving groove 2 away from the feeding plate 1. A rubber plate 23 is installed on the blocking edge 22. When the fiberglass cable protection tube enters the receiving groove 2, it first collides with the rubber plate 23 before entering the groove. The blocking edge 22 prevents the fiberglass cable protection tube from flying out during its descent. The rubber plate 23 acts as a buffer.

[0030] In practical use, the fiberglass cable protection tube is conveyed off the machine and received by the feeding plate 1. As the fiberglass cable protection tube rolls downwards on the feeding plate 1, it first contacts the stop 4, pushing the stop 4 from the stop position to the release position. When the fiberglass cable protection tube passes the stop 4, under the elastic force of the return spring 8, the stop 4 is pushed back to the stop position via the linkage of the slider 6 and the long arm 5. The fiberglass cable protection tube continues to roll on the feeding plate 1, colliding with the bent edge on the receiving groove 2 before entering the receiving groove 2. The receiving groove 2, after receiving the fiberglass cable protection tube, increases in weight, causing it to descend towards the load-bearing position, so that the limiting protrusion 21 and the limiting groove 61 interlock, restricting the movement of the slider 6. Furthermore, through the linkage of the long arm 5, the stop 4 is limited to the stop position, thus preventing subsequent fiberglass cable protection tubes from falling up and down on the feeding plate 1. After the fiberglass cable protection tube is removed from the receiving groove 2, the receiving groove 2 rises to the unloaded position, causing the limiting protrusion 21 to disengage from the limiting groove 61, thereby allowing the slider 6 to move, and subsequently the stop 4 to move again. This combination of methods effectively receives and guides the fiberglass cable protection tube during feeding, while also isolating the fiberglass cable protection tubes fed in front and behind, ensuring stable and orderly feeding, preventing collisions and stacking, and effectively meeting the processing requirements of fiberglass cable protection tubes.

[0031] The above description is merely an embodiment of this utility model and does not limit the patent scope of this utility model. Any equivalent structural or procedural transformations made based on the content of this utility model specification, or direct or indirect applications in other related technical fields, are similarly included within the patent protection scope of this utility model.

Claims

1. A fiberglass cable protection pipe receiving and unloading device, comprising a unloading plate, a stop, a receiving groove, a support spring, and a linkage assembly; characterized in that: The feeding plate is inclined vertically; The stop member is disposed below the feed plate; the stop member rotates about a central axis extending in the first direction and has a stop position extending above the feed plate and a release position hidden below the upper surface of the feed plate. The receiving groove is movably disposed at the inclined lower end of the feeding plate, having an unloaded position connected to the inclined lower end of the feeding plate and a load-bearing position away from the unloaded position; the supporting spring has an elastic force that drives the receiving groove to move from the load-bearing position to the unloaded position. The linkage component includes a slider, a long arm, and a return spring; the slider is slidably disposed below the receiving groove; the long arm is hinged between the slider and the stop; the return spring has an elastic force that drives the stop to move from the release position to the stop position; The top surface of the slider is provided with a limiting groove; the receiving groove is provided with a limiting protrusion corresponding to the limiting groove; in the stop position and the load-bearing position, the limiting protrusion is inserted into the limiting groove vertically; in the stop position and the unloaded position, the limiting protrusion is moved away from the limiting groove vertically.

2. The fiberglass cable protection pipe receiving and feeding device according to claim 1, characterized in that: The upper and lower inclined ends of the feed plate are both bent downwards to form a reverse bending section.

3. The fiberglass cable protection pipe receiving and feeding device according to claim 1, characterized in that: The linkage component includes a slide rod; the slide rod extends in the left-right direction; the slider is slidably mounted on the slide rod; a fixing block is provided on the slide rod on the first side of the slider; the return spring is sleeved on the slide rod and connected between the slider and the fixing block.

4. The fiberglass cable protection pipe receiving and feeding device according to claim 3, characterized in that: A limiting block is provided on the second side of the slider on the slide rod; at the stop position, the slider and the limiting block are in a limiting engagement.

5. The fiberglass cable protection pipe receiving and feeding device according to claim 1, characterized in that: In the unloaded position, the receiving groove and the unloading plate abut against each other vertically.

6. The fiberglass cable protection pipe receiving and feeding device according to claim 1, characterized in that: The receiving groove is an arc-shaped groove structure, and a blocking edge is formed on the side of the receiving groove that is away from the feeding plate.

7. The fiberglass cable protection pipe receiving and feeding device according to claim 1, characterized in that: The first direction is the width direction of the feed plate; a plurality of the stop members are arranged at intervals along the width direction of the feed plate; the feed plate is provided with clearance grooves corresponding to the stop members; the stop members are movably inserted into the clearance grooves.

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