A sorter loading chute

Abstract

The utility model discloses a kind of sorting machine loading skid, comprising: rack and be set on the straight sliding way of the rack, the straight sliding way from high to low includes: input section, deceleration section and output section, the head of straight sliding way input section is connected with sorting machine, the bottom wall of straight sliding way deceleration section is made of several damp deceleration cylinders arranged side by side perpendicular to sliding direction;The head of straight sliding way output section is movably set in the tail of the deceleration section of straight sliding way, the output section of the straight sliding way is movably provided with electric cylinder on the rack towards, the push rod of electric cylinder and the back of the output section of straight sliding way middle movably hinged together, the back of the output section tail of straight sliding way is provided with pulley.The loading skid of the utility model is mainly used for sliding goods on sorting machine to telescopic machine, and then by telescopic machine, goods are transferred to wagon.

Description

Technical Field

[0001] This utility model relates to the field of logistics sorting, specifically to a sorting machine loading chute that transfers goods from a sorting machine to a telescopic conveyor for loading onto a vehicle. Background Technology

[0002] Currently, the loading chutes used in the loading process at logistics transshipment centers are completely attached to the telescopic conveyor. Therefore, goods can only be transported from the sorting machine to the telescopic conveyor via the loading chutes, and then the telescopic conveyor extends the goods into the truck for loading. This means that the source of goods relies solely on the upper sorting machine, and some oversized goods that cannot be sorted by the sorting machine have to be handled separately, resulting in low loading efficiency. In addition, because the loading chutes directly connect the upper sorting machine and the lower telescopic conveyor—a so-called rigid connection—it can cause resonance between the sorting machine and the telescopic surface during actual operation, affecting the normal sliding of goods on the loading chutes. Utility Model Content

[0003] The technical problem to be solved by this utility model is to provide a sorting machine loading chute that can free up loading channels.

[0004] To solve the above-mentioned technical problems, the technical solution adopted by this utility model is as follows: a sorting machine loading chute, comprising: a frame and a straight chute arranged on the frame, the straight chute comprising, from high to low: an input section, a deceleration section and an output section, the head of the input section of the straight chute being connected to the sorting machine, the bottom wall of the deceleration section of the straight chute being composed of a plurality of damping deceleration rollers arranged in parallel perpendicular to the sliding direction; the head of the output section of the straight chute being movably disposed at the tail of the deceleration section of the straight chute, an electric cylinder being movably disposed on the frame facing the output section of the straight chute, the push rod of the electric cylinder being movably hinged to the middle of the back of the output section of the straight chute, and a pulley being disposed on the back of the tail of the output section of the straight chute.

[0005] As a preferred embodiment, in the sorting machine loading chute, the input section, deceleration section, and output section of the straight-line chute are each composed of a relatively independent input chute, deceleration chute, and output chute.

[0006] As a preferred embodiment, in the sorting machine loading chute, the input chute and the deceleration chute are respectively provided with brushes at the connection points of the side baffles.

[0007] As a preferred embodiment, in the sorting machine loading chute, the two side baffles of the deceleration chute extend between the two side baffles of the output chute.

[0008] As a preferred embodiment, in the sorting machine loading chute, the tail ends of the input chute and the deceleration chute are movably mounted on the frame, and the heads of the input chute and the deceleration chute are respectively mounted on the frame via adjustable brackets.

[0009] As a preferred embodiment, in the sorting machine loading chute, the adjustable support structure includes: a pair of supports mounted on the frame and corresponding pillars mounted in the supports. Each pillar has at least one positioning locking hole at its lower part. Each support has a vertically arranged adjustment elongated hole corresponding to the positioning locking hole on the pillar. A screw passes through the adjustment elongated hole on the support and locks into the corresponding positioning locking hole on the pillar. The input chute and deceleration chute are equipped with connecting lugs that cooperate with the pillars. Each connecting lug has a fulcrum hole and an arc-shaped adjustment groove centered on the fulcrum hole. The upper part of each pillar has a fulcrum shaft corresponding to the fulcrum hole and a positioning pin corresponding to the arc-shaped adjustment groove. The fulcrum shaft passes through the fulcrum hole on the corresponding connecting lug, and the positioning pin is located in the arc-shaped adjustment groove on the corresponding connecting lug.

[0010] As a preferred embodiment, in the sorting machine loading chute, the specific structure of the support includes: a support plate and a support body disposed on the support plate. The support body includes: two side plates and a mounting plate connecting the two side plates. The adjustment elongated hole is formed on the mounting plate.

[0011] As a preferred embodiment, in the sorting machine loading chute, the support column is square, and correspondingly, the two side plates are parallel to each other. The mounting plate is perpendicularly connected to the side plates, so that the support column, the mounting plate, and the two side plates are close together.

[0012] As a preferred embodiment, in the sorting machine loading chute, the upper parts of a pair of pillars are connected by a connecting beam. The connecting beam is provided with a connecting block corresponding to the connecting ear plate. The fulcrum shaft and the positioning pin are provided on the connecting block, so that the pillars are connected to the connecting ear plate through the connecting beam and the connecting block.

[0013] The beneficial effects of this utility model are:

[0014] 1. This utility model modifies the structure of the loading chute, making the output section of the loading chute that overlaps with the telescopic conveyor designed to be liftable. This creates a loading channel between the lifted output section and the telescopic conveyor, allowing a horizontal conveyor line to be added behind the telescopic conveyor. This enables oversized goods that cannot enter the upper sorting system to be directly transported to the telescopic conveyor for loading, greatly improving loading efficiency.

[0015] 2. This utility model designs the loading chute into independent input chute, deceleration chute and output chute. Furthermore, the output chute is simply placed on the telescopic machine and is not rigidly connected to it, so that there is no resonance between the sorting machine and the telescopic machine, and the normal sliding of goods on the loading chute is not affected.

[0016] 3. By installing brushes at the connection points on both sides of the input chute and the deceleration chute, this utility model can effectively prevent small objects from falling out of the gap between the input chute and the deceleration chute, ensuring that goods are not lost during loading.

[0017] 4. This utility model ensures the smooth sliding of goods in the loading chute by extending the baffles on both sides of the deceleration chute between the baffles on both sides of the output chute.

[0018] 5. This utility model movably mounts the tail sections of the input chute and the deceleration chute on the frame, and mounts the heads of the input chute and the deceleration chute on the frame via adjustable brackets. This allows the inclination angle of the input chute and the deceleration chute to be adjusted according to the actual application scenario, effectively ensuring the smooth sliding of goods.

[0019] 6. The adjustable bracket structure adopted in this utility model is simple and reliable, and is very convenient to assemble, which can greatly reduce manufacturing and usage costs. Attached Figure Description

[0020] Figure 1 This is a three-dimensional structural diagram of the loading chute of the sorting machine described in this utility model.

[0021] Figure 2 This is a schematic diagram of the loading chute of the sorting machine described in this utility model.

[0022] Figure 3 yes Figure 1 A magnified structural diagram of part B.

[0023] Figure 4 yes Figure 1 A magnified structural diagram of section C.

[0024] Figure 5 yes Figure 2 A magnified structural diagram of part D in the middle.

[0025] Figures 1 to 5The reference numerals in the attached drawings are as follows: 1, frame; 11, adjustable input section bracket; 110, support; 1100, support plate; 1101, mounting plate; 11011, adjustment elongated hole; 1102, side plate; 111, support column; 1110, positioning locking hole; 1112, positioning pin hole; 12, adjustable deceleration section bracket; 120, support; 1200, support plate; 1201, mounting plate; 12011, adjustment elongated hole; 1202, side plate; 121, support column; 1210, positioning locking hole; 12 3. Connecting beam, 125. Connecting block, 1252. Positioning pin hole, 2. Telescopic conveyor, 30. Guide plate, 31. Input chute, 311. Baffle, 315. Connecting ear plate, 3151. Pivot hole, 3152. Arc-shaped adjustment groove, 32. Deceleration chute, 320. Damping deceleration roller, 321. Baffle, 325. Connecting ear plate, 3251. Pivot hole, 3252. Arc-shaped adjustment groove, 33. Output chute, 331. Baffle, 333. Pulley, 34. Brush, 5. Electric cylinder, 9. Sorting machine. Detailed Implementation

[0026] The following is in conjunction with the appendix Figures 1 to 5 This invention provides a detailed description of the specific implementation scheme of a sorting machine loading chute according to the present invention.

[0027] like Figure 1 and Figure 2 As shown, the sorting machine loading chute of this utility model includes: a frame 1 and a straight chute disposed on the frame 1. The straight chute includes, from high to low, an input section, a deceleration section, and an output section. The input section, deceleration section, and output section of the straight chute are independent of each other. The input section is composed of an input chute 31, the deceleration section is composed of a deceleration chute 32, and the output section is composed of an output chute 33. The head of the input chute 31 is connected to the sorting machine 9 through a guide plate 30 (this is conventional technology in the art and will not be described in detail here). The head of the input chute 31 is movably disposed on the frame 1 through an adjustable support 11 for the input section. Figure 3 and Figure 5As shown, the specific structure of the adjustable input section bracket 11 includes: a pair of supports 110 mounted on the frame 1, and corresponding support columns 111 mounted in the supports 110. The support columns 111 are square, and two positioning locking holes 1110 are laterally opened at the lower part of the support column 111. The specific structure of the support 110 includes: a support plate 1100 and a support body mounted on the support plate 1100. The support body includes: a mounting plate 1101, and a pair of vertically arranged supports on both sides of the mounting plate 1101. Side plates 1102 are provided to allow the support column 111 to abut against the mounting plate 1101 and the two side plates 1102 (this is a common technique in the art and will not be described in detail here); the mounting plate 1101 has vertically arranged adjustment elongated holes 11011 that correspond one-to-one with the positioning and locking holes 1110 on the support column 111. The bottom of the support column 111 is inserted into the support body, and screws are selected to pass through the adjustment elongated holes 11011 on the mounting plate 1101 and lock into the corresponding positioning and locking holes 1110 on the support column 111. (The positioning locking hole 1110 can be directly set as a threaded hole, or it can be tightened with a nut, which is a common technique in this field and will not be described in detail here.) The head of the input slide 31 is provided with a connecting ear plate 315 that cooperates with the support column 111. The connecting ear plate 315 is provided with a fulcrum hole 3151 and an arc-shaped adjustment groove 3152 centered on the fulcrum hole 3151. The upper part of the support column 111 is provided with a fulcrum shaft hole corresponding to the fulcrum hole 3151 and an arc-shaped adjustment groove 3152. The corresponding positioning pin hole 1112, the support shaft hole of the support column 111 is provided with a support shaft, the support shaft passes through the support hole 3151 on the corresponding connecting ear plate 315 (this is conventional technology in the art, and will not be described in detail here), the positioning pin hole 1112 is provided with a positioning pin, the positioning pin is provided in the arc-shaped adjustment groove 3152 on the corresponding connecting ear plate 315 (this is conventional technology in the art, and will not be described in detail here); the tail of the input slide 31 is movably mounted on the frame 1 through the connecting ear plate (see Figure 3 The mounting structure of the connecting ear plate 315); the bottom wall of the deceleration slide 32 is composed of several damping deceleration rollers 320 arranged side by side perpendicular to the sliding direction, and the head of the deceleration slide 32 is movably mounted on the frame 1 through the adjustable deceleration section bracket 12, such as Figure 4As shown, the specific structure of the adjustable support 12 for the deceleration section includes: a pair of supports 120 mounted on the frame 1, and corresponding support columns 121 mounted in the supports 120. The support columns 121 are square, and two positioning locking holes 1210 are laterally opened at the lower part of the support column 121. The specific structure of the support 120 includes: a support plate 1200 and a support body mounted on the support plate 1200. The support body includes: a mounting plate 1201 and a pair of side plates 1202 vertically mounted on both sides of the mounting plate 1201, so that the support column 121 is in close contact with the mounting plate 1201 and the two side plates 1202 (this is a conventional technique in the art and will not be repeated here). (Detailed description); The mounting plate 1201 has vertically arranged adjustment elongated holes 12011 that correspond one-to-one with the positioning and locking holes 1210 on the support column 121. The bottom of the support column 121 is inserted into the support body. A screw is selected, passes through the adjustment elongated holes 12011 on the mounting plate 1201, and is locked in the corresponding positioning and locking holes 1210 on the support column 121 (the positioning and locking holes 1210 can be directly set as threaded holes, or nuts can be used for tightening, which is a common technique in the art and will not be described in detail here). The upper parts of the pair of support columns 121 are connected by a connecting beam 123. Connecting blocks 125 are respectively provided on both sides of the connecting beam 123. The deceleration slide 32 The head is provided with a connecting ear plate 325 that mates with the connecting block 125. The connecting ear plate 325 has a fulcrum hole 3251 and an arc-shaped adjustment groove 3252 centered on the fulcrum hole 3251. The upper part of the connecting block 125 has a fulcrum shaft hole corresponding to the fulcrum hole 3251 and a positioning pin hole 1252 corresponding to the arc-shaped adjustment groove 3252. A fulcrum shaft is provided in the fulcrum shaft hole on the connecting block 125, and the fulcrum shaft passes through the fulcrum hole 3251 on the corresponding connecting ear plate 325 (this is conventional technology in the art and will not be described in detail here). A positioning pin is provided in the positioning pin hole 1252, and the positioning pin is located on the corresponding connecting ear plate 325. In the arc-shaped adjustment groove 3252 on 5 (which is a conventional technique in the art and will not be described in detail here); the head of the output slide 33 is movably mounted at the tail of the deceleration slide 32 via a rotary bearing; brushes 34 are respectively provided at the connection between the two side baffles 311 of the input slide 31 and the corresponding side baffles 321 of the deceleration slide 32; the tails of the two side baffles 321 of the deceleration slide 32 protrude forward and extend into the space between the two side baffles 331 of the output slide 33; an electric cylinder 5 is movably mounted on the frame 1 facing the output slide 33; the push rod of the electric cylinder 5 is movably hinged to the middle of the back of the output slide 33; a pulley 333 is provided on the back of the tail of the output slide 33.

[0028] In practical applications, the frame 1 also includes an adjustable-height column corresponding to the guide plate 30, and the mounting structure of the column and the guide plate 30 is similar. Figure 3The adjustable bracket 11 for the input section shown has the same mounting structure as the input slide 31, and will not be described in detail here.

[0029] The working process of this utility model is as follows: When loading goods using the loading chute, simply retract the push rod of the electric cylinder 5 to lower the tail of the output chute 33, so that the pulley 333 rests on the telescopic conveyor 2. In this way, the goods on the sorting machine 9 can slide down along the guide plate 30, the input chute 31, the deceleration chute 32 and the output chute 33 onto the telescopic conveyor 2. Then, the telescopic conveyor 2 delivers the goods to the truck. When encountering some oversized goods that cannot enter the sorting machine 9, the push rod of the electric cylinder 5 can be extended to lift the tail of the output chute 33 upward, forming a loading channel between the output chute 33 and the telescopic conveyor 2. The oversized goods that cannot enter the sorting machine 9 are loaded onto the truck through the horizontally arranged conveyor line added behind the telescopic conveyor 2.

[0030] In summary, the above description is merely a preferred embodiment of the present utility model and is not intended to limit the scope of the present utility model. All equivalent variations and modifications made to the shape, structure, features and spirit described in the claims of the present utility model should be included within the scope of the claims of the present utility model.

Claims

1. A sorting machine loading chute, comprising: The machine includes a frame and a straight slide rail mounted on the frame. The straight slide rail comprises, from high to low, an input section, a deceleration section, and an output section. The head of the input section of the straight slide rail is connected to the sorting machine. The bottom wall of the deceleration section of the straight slide rail is composed of several damping deceleration rollers arranged side by side perpendicular to the sliding direction. The output section of the straight slide rail has its head movably located at the tail of the deceleration section. An electric cylinder is movably mounted on the frame facing the output section of the straight slide rail. The push rod of the electric cylinder is movably hinged to the middle of the back side of the output section of the straight slide rail. A pulley is provided on the back side of the tail side of the output section of the straight slide rail.

2. The sorting machine loading chute according to claim 1, characterized in that, The input section, deceleration section, and output section of the straight slide are each composed of a relatively independent input slide, deceleration slide, and output slide.

3. The sorting machine loading chute according to claim 2, characterized in that, The input chute and deceleration chute are respectively equipped with brushes at the connection points of the baffles on both sides.

4. The sorting machine loading chute according to claim 2, characterized in that, The two side baffles of the deceleration slide groove extend into the space between the two side baffles of the output slide groove.

5. A sorting machine loading chute according to claim 2, characterized in that, The input chute is connected to the sorting machine via a guide plate.

6. A sorting machine loading chute according to any one of claims 2 to 5, characterized in that, The tail ends of the input slide and the deceleration slide are movably mounted on the frame, and the heads of the input slide and the deceleration slide are respectively mounted on the frame via adjustable brackets.

7. A sorting machine loading chute according to claim 6, characterized in that, The adjustable support structure includes: a pair of supports mounted on the frame and corresponding pillars mounted in the supports. Each pillar has at least one positioning locking hole at its lower part. Each support has a vertically arranged adjustment elongated hole corresponding to the positioning locking hole on the pillar. A screw passes through the adjustment elongated hole on the support and locks into the corresponding positioning locking hole on the pillar. The input slide and deceleration slide are equipped with connecting lugs that mate with the pillars. Each connecting lug has a fulcrum hole and an arc-shaped adjustment groove centered on the fulcrum hole. The upper part of each pillar has a fulcrum shaft corresponding to the fulcrum hole and a positioning pin corresponding to the arc-shaped adjustment groove. The fulcrum shaft passes through the fulcrum hole on the corresponding connecting lug, and the positioning pin is located in the arc-shaped adjustment groove on the corresponding connecting lug.

8. A sorting machine loading chute according to claim 7, characterized in that, The specific structure of the support includes: a support plate and a support body disposed on the support plate. The support body includes: two side plates and a mounting plate connecting the two side plates. The adjustment elongated hole is opened on the mounting plate.

9. A sorting machine loading chute according to claim 8, characterized in that, The support column is square, and correspondingly, the two side plates are parallel to each other. The mounting plate is perpendicularly connected to the side plates, so that the support column, the mounting plate, and the two side plates are close together.

10. A sorting machine loading chute according to claim 7, characterized in that, The upper parts of a pair of pillars are connected by a connecting beam. The connecting beam is provided with a connecting block corresponding to the connecting lug. The fulcrum shaft and the positioning pin are provided on the connecting block, so that the pillar is connected to the connecting lug through the connecting beam and the connecting block.

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