Feeding equipment for tower-shaped / conical products

Abstract

The utility model discloses tower-shaped / cone-shaped product feeding equipment which is used for arranging and conveying tower-shaped / cone-shaped products with the appearance that the section of one end is large and the section of the other end is small. The material arranging module is provided with a first roller rod body and a second roller rod body, the first roller rod body and the second roller rod body are arranged side by side in a spaced mode and form a material hanging gap, and the material pressing piece is located above the material hanging gap; a tower-shaped / conical product is fed into the hanging gap through the discharge port, and one end with a large section is limited in the hanging gap and one end with a small section is suspended downwards to be in a vertical state; the first roller body and the second roller body are arranged in an inclined mode, the ends, corresponding to the discharging port, of the material hanging gaps are higher than the other ends of the material hanging gaps, the first roller body and the second roller body can rotate with the axes of the first roller body and the second roller body as rotating shafts respectively, and tower-shaped / conical products fed into the material hanging gaps slide from one ends to the other ends.

Description

Technical Field

[0001] This application relates to a feeding device for tower-shaped / conical products. Background Technology

[0002] In industrial production, finished products or components need to be arranged during production, handling, and palletizing to ensure their orientation and position are aligned. However, the unique shapes of some products / components make arrangement particularly difficult. For example, rifle bullets are conical in shape, with a small cross-section at the tip and a large cross-section at the tail. Arranging them during production, handling, and palletizing is challenging, time-consuming, and labor-intensive. Furthermore, due to the special nature of bullets, traditional vibratory feeder structures cannot be used for material handling and conveying to prevent potential hazards. Utility Model Content

[0003] The purpose of this application is to provide a feeding device for tower-shaped / conical products, which can automatically sort and convey tower-shaped / conical products.

[0004] To achieve the aforementioned objective, this application provides the following technical solution:

[0005] A feeding device for tower-shaped / conical products, used for sorting and conveying tower-shaped / conical products, the tower-shaped / conical products having an external shape with a large cross-section at one end and a small cross-section at the other end, the feeding device comprising:

[0006] The material receiving module is equipped with a feeding module and has a material outlet;

[0007] The material handling module includes a first roller, a second roller, and a pressing component. The first roller and the second roller are arranged side by side with an interval to form a material hanging gap, and the pressing component is located above the material hanging gap.

[0008] The tower-shaped / conical product is fed into the hanging gap through the discharge port, and the end with the larger cross-section is confined in the hanging gap while the end with the smaller cross-section is suspended vertically downwards.

[0009] The first roller and the second roller are inclined and configured such that one end of the material hanging gap and the outlet is higher than the other end. The first roller and the second roller can rotate about their respective axes, so that the tower-shaped / conical products limited in the material hanging gap tend to float upward, thereby realizing the sliding of the tower-shaped / conical products fed into the material hanging gap from one end to the other end.

[0010] The pressure member is suspended above the tower-shaped / conical product, which is limited to the material hanging gap, to restrict the tower-shaped / conical product from floating upwards.

[0011] Furthermore, the feeding module includes a first conveyor belt module and has a first conveying surface;

[0012] A retaining wall is assembled above the first conveying surface and surrounds the first conveying surface to form a first conveying area. At least the portion of the first conveying area near the end point along the conveying direction is configured to gradually narrow in width along the conveying direction.

[0013] A linear conveying section is formed at the end of the first conveying area along the conveying direction. One side of the linear conveying section is blocked by a retaining wall, and the other side of the linear conveying section is blocked by a stop bar.

[0014] The discharge port is located at the end of the linear conveyor section along the conveying direction.

[0015] Furthermore, the gap width between the retaining wall and the stop bar in the linear conveying section area is no greater than the width of a single tower / cone product.

[0016] Furthermore, the gap width between the retaining wall portion and the stop strip in the linear conveying section area is less than the maximum outer diameter of a single tower / cone product and greater than half of the maximum outer diameter of a single tower / cone product.

[0017] Furthermore, the outer surface of the tower-shaped / conical product conveyed to the linear conveyor section contacts the retaining wall portion; the upper edge of the retaining wall portion does not extend upward beyond the highest point of the corresponding tower-shaped / conical product.

[0018] Furthermore, the feeding module also includes a second conveyor belt module and forms a second conveying surface;

[0019] The first conveyor belt module and the second conveyor belt module are arranged side by side and adjacent to each other.

[0020] The enclosure is assembled above the second conveying surface and encloses the second conveying surface to form a second conveying area;

[0021] The first conveying surface and the second conveying surface have opposite conveying directions;

[0022] The second transmission area, at least the portion near the end point along the transmission direction, is configured to gradually narrow in width along the transmission direction.

[0023] The end point of the second conveying surface in the second conveying area along its own conveying direction is not lower than the beginning point of the first conveying surface in the first conveying area along its own conveying direction, so that the tower-shaped / conical products conveyed by the second conveying surface can be transferred from the end point of the second conveying surface in the second conveying area along its own conveying direction to the beginning point of the first conveying surface in the first conveying area along its own conveying direction.

[0024] Furthermore, the second transmission surface within the second transmission area extends along a horizontal plane;

[0025] The first transmission surface within the first transmission area extends upward at an angle along its own transmission direction.

[0026] Furthermore, it also includes:

[0027] A transfer track is positioned between the discharge port and the starting end of the hanging gap. The transfer track is used to guide the tower-shaped / conical products conveyed from the discharge port to slide to the starting end of the hanging gap.

[0028] The notch is recessed in the vertical direction at the end of the transfer track of the transfer track component, and the width of the notch is less than the maximum outer diameter of a single tower / cone product.

[0029] Furthermore, it also includes:

[0030] The wheel conveyor has a contoured groove formed around its outer periphery, enabling it to rotate.

[0031] The first blocking plate is disposed on the outer periphery of the wheel conveyor and located on one side of the contoured groove.

[0032] The second baffle plate is disposed on the outer periphery of the wheel conveyor and located on the other side of the contoured groove.

[0033] The cover is disposed between the first and second blocking plates and opposite to the contoured groove.

[0034] The first baffle plate, the second baffle plate, the cover, and the contoured groove of the wheel conveyor together form a conveying channel with a cross-section that matches the tower-shaped / conical product.

[0035] The contoured groove at the beginning of the conveying channel corresponds to the end of the hanging gap, and is configured such that the smaller end of the cross-section of the tower-shaped / conical product conveyed through the hanging gap can be supported in the contoured groove at the beginning of the conveying channel. The rotation of the wheel conveyor assists in driving the tower-shaped / conical product to be conveyed in the conveying channel.

[0036] Furthermore, the starting end of the cover corresponds to and is adjacent to the ending end of the pressing element.

[0037] Furthermore, the transmission channel is arc-shaped;

[0038] The upright section is connected at its upper end to the end of the conveying channel. The upright section is formed by the first stop plate, the second stop plate, the upright cover and the upright tangent section. The upright cover is connected to the end of the cover. The upright tangent section is parallel to and opposite to the upright cover. The upright tangent section is tangent to the wheel conveyor and forms a groove that matches and engages with the contoured groove.

[0039] Furthermore, the pressing component has an input stop inclined portion extending upward at one end near the discharge port, and is configured such that when the tower / cone product is conveyed, the front end of the tower / cone product in the direction of movement will rub against the input stop inclined portion, forcing the tower / cone product to move towards the hanging gap side.

[0040] Compared with the prior art, the beneficial effect of this application is that it can complete the automatic feeding and conveying of tower-shaped / conical products. Attached Figure Description

[0041] Figure 1 This is a three-dimensional schematic diagram of a feeding device for tower-shaped / conical products according to this application.

[0042] Figure 2 yes Figure 1 A three-dimensional schematic diagram of the feeding equipment for the tower / cone products shown in the figure after the feeding hopper has been removed.

[0043] Figure 3 yes Figure 2 Enlarged view of the structure within the dashed box.

[0044] Figure 4 This is a side view of the feeding module of the tower / cone product feeding device of this application, showing the side view after the retaining wall and enclosure are separated, mainly to show the inclination relationship between the first conveying surface and the second conveying surface.

[0045] Figure 5 This is a top view of the feeding module and feeding bin of the material feeding equipment for the tower / cone product of this application in the working state.

[0046] Figure 6 yes Figure 5 Enlarged view of the structure within the dashed box.

[0047] Figure 7 This is a partial exploded perspective view of the material handling module and the position adjustment module of the tower / cone product of this application.

[0048] Figure 8 yes Figure 7 The enlarged view of the structure within the dashed box shows the specific mating positions of the transfer track component with the first and second rollers.

[0049] Figure 9 yes Figure 7 An enlarged view of the structure within the dashed box, specifically showing the location of the wheel conveyor.

[0050] Figure 10 The main display shows the state of the contoured groove of the wheel conveyor before it is fitted with the tower / cone product.

[0051] Figure 11 This is a cross-sectional view of the material handling module and the position adjustment module of the tower / cone product of this application, with the specific cross-sectional view being the axial position of the pressure component.

[0052] Figure 12 yes Figure 11 Enlarged view of the structure within the dashed box. Detailed Implementation

[0053] The technical solutions in the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. Based on the embodiments in this application, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of this application.

[0054] Please refer to Figures 1 to 12 As shown, this application discloses a feeding device for tower-shaped / conical products, including a feeding module 1, a sorting module 2, and a position adjustment module 4. The feeding module 1 includes a feeding bin 11 and a feeding module 12 that cooperates with the feeding bin 11. The feeding module 12 has a discharge port 120. Specifically, in use, the feeding bin 11 feeds the tower-shaped / conical products 9 within it to the feeding module 12 at a constant speed. After preliminary sorting, the products are discharged through the discharge port 120 to the sorting module 2.

[0055] The tower-shaped / conical product 9 described herein has an external shape with a large cross-section at one end and a small cross-section at the other end. The illustration in this application is of a rifle bullet, but it is not limited to this.

[0056] For details, please refer to the reference. Figures 1 to 6As shown, the feeding module 12 includes a first conveyor belt module 121 and forms a first conveying surface 122. A baffle portion 123 is configured above the first conveying surface 122 (this configuration does not mean the baffle portion 123 is fixed to the first conveying surface 122, but rather that the baffle portion 123 is configured to block the tower-shaped / conical products 9 conveyed via the first conveying surface 122). The baffle portion 123 encloses the first conveying surface 122 to form a first conveying area 124. At least a portion of the first conveying area 124 near the end point along the conveying direction is configured to gradually narrow in width along the conveying direction. A linear conveying section 125 is also formed at the end point of the first conveying area 124 along the conveying direction. One side of the linear conveying section 125 is blocked by the baffle portion 123, and the other side is blocked by a stop bar 126. The discharge port 120 is formed at the end point of the linear conveying section 125 along the conveying direction. This design allows the tower-shaped / conical products 9 transported through the first transport area 124 to be arranged in a single row (of course, the tower-shaped / conical products 9 in this single row still have the problem of the front and rear ends being reversed).

[0057] To ensure that the tower-shaped / conical products 9 conveyed through the first conveying area 124 are arranged in a single row, and to avoid two or more tower-shaped / conical products 9 being stacked vertically or side-by-side (in the lateral direction perpendicular to the conveying direction of the first conveying surface 122), the structure is further optimized as follows: Preferably, the gap width between the baffle portion 123 and the stop strip 126 in the linear conveying section 125 is not greater than the width of a single tower-shaped / conical product 9. More preferably, the gap width between the baffle portion 123 and the stop strip 126 in the linear conveying section 125 is less than the maximum outer diameter of a single tower-shaped / conical product 9 and greater than half of the maximum outer diameter of a single tower-shaped / conical product 9. Further, for better results, in a preferred embodiment, the outer surface of the tower-shaped / conical product 9 conveyed to the linear conveying section 125 contacts the baffle portion 123. The upper edge of the retaining wall portion 123 does not extend upward beyond (or is lower than) the highest point of the corresponding tower-shaped / conical product 9 (referring to the highest point of the end with the larger cross-section of the tower-shaped / conical product 9). Thus, when two or more tower-shaped / conical products 9 are stacked vertically, they will slide off on their own. In this embodiment, the retaining wall portion 123 is a plate-shaped part with its upper edge extending upward beyond (or higher than) the highest point of the corresponding tower-shaped / conical product 9. This design ensures that when two or more tower-shaped / conical products 9 are stacked vertically, they will only slide off towards the stop bar 126. Preferably, the stop bar 126 can be designed as a long, columnar strip extending along the conveying direction of the first conveying surface 122 (illustrated embodiment), with the stop bar 126 spaced apart from the plane of the first conveying surface 122. Alternatively, it can be designed as a long, plate-like strip, structurally protruding upward from the surface of the first conveying surface 122 and extending along the conveying direction of the first conveying surface 122.

[0058] The discharge port 120 of the feeding bin 11 can directly correspond to the first conveying area 124. The feeding module 12 may also include a second conveyor belt module 131 and form a second conveying surface 132. The discharge port 120 of the feeding bin 11 corresponds to the second conveyor belt module 131. The first conveyor belt module 121 and the second conveyor belt module 131 are arranged side-by-side adjacent to each other. A barrier portion 133 (similar to the retaining wall portion 123 on the first conveying surface 122, the barrier portion 133 and the retaining wall portion 123 can be a single piece, independent components, or two pieces assembled and fixed) is provided above the second conveying surface 132. The barrier portion 133 encloses the second conveying surface 132 to form a second conveying area 134. The conveying directions of the first conveying surface 122 and the second conveying surface 132 are opposite. At least the portion of the second conveying area 134 near the end point along the conveying direction is configured to gradually narrow in width along the conveying direction. The end position of the second conveying surface 132 in the second conveying area 134 along its own conveying direction is not lower than the starting position of the first conveying surface 122 in the first conveying area 124 along its own conveying direction. This design allows the tower-shaped / conical product 9 conveyed via the second conveying surface 132 to be transferred from the end position of the second conveying surface 132 in the second conveying area 134 along its own conveying direction to the starting position of the first conveying surface 122 in the first conveying area 124 along its own conveying direction.

[0059] Further, in a preferred embodiment, the second conveying surface 132 within the second conveying area 134 extends horizontally. The first conveying surface 122 within the first conveying area 124 extends upwardly at an angle along its own conveying direction. At least a portion of the linear conveying section 125 along the conveying direction is adjacent to the second conveying area 134. This design allows two or more tower-shaped / conical products 9 to be stacked vertically, sliding back towards the stop bar 126 and flowing back to the second conveying area 134 for re-circulation feeding.

[0060] Please refer to Figure 1 , Figure 2 , Figures 7 to 12As shown, the material handling module 2 is provided with a first roller 21, a second roller 22, and a pressing component 23. The first roller 21 and the second roller 22 are arranged side by side at intervals to form a hanging gap 20. The pressing component 23 is located above the hanging gap 20. The first roller 21 and the second roller 22 are driven to rotate by a motor. In use, the tower-shaped / conical product 9 is fed into the hanging gap 20 through the discharge port 120. The width of the hanging gap 20 is designed to allow the larger end of the tower-shaped / conical product 9 to be confined within the hanging gap (20), while the smaller end is suspended downwards in an upright state (the upright state referred to here is not the theoretical 90-degree state; in fact, due to the movement of the tower-shaped / conical product 9 within the hanging gap 20 and the tilting state of the first roller 21 and the second roller 22, the tower-shaped / conical product 9 is not theoretically completely upright and may also have a slightly tilted state). This results in the tower-shaped / conical product being hung upright at the 20-point gap between the 9 sections, with the larger end of the cross section hanging there.

[0061] In a preferred embodiment, the first roller body 21 and the second roller body 22 are inclined and configured such that one end of the material hanging gap 20 corresponding to the discharge port 120 is higher than the other end. The first roller body 21 and the second roller body 22 can rotate about their respective axes, causing the tower-shaped / conical product 9 confined within the material hanging gap 20 to tend to float upwards, thereby allowing the tower-shaped / conical product 9 fed into the material hanging gap 20 to slide from one end to the other. The pressing member 23 is fixedly suspended above the corresponding tower-shaped / conical product 9 (specifically, above the tower-shaped / conical product 9 confined within the material hanging gap 20) to prevent the tower-shaped / conical product 9 from floating upwards and jumping out of the material hanging gap 20.

[0062] In a preferred embodiment, the inclination angle of the first roller body 21 and the second roller body 22 is preferably within the range of not less than 30 degrees and not more than 70 degrees. Outside this inclination angle range, there is a possibility of material jamming or excessive inclination causing the tower-shaped / conical product 9 to accidentally fall off and cause danger.

[0063] Please refer to the reference. Figure 7 and Figure 8As shown, in a preferred embodiment of this application, a transfer track 3 is further provided, which is positioned between the discharge port 120 and the starting end of the hanging gap 20. The transfer track 3 is used to guide the tower-shaped / conical product 9 conveyed from the discharge port 120 to slide to the starting end of the hanging gap 20. At the end of the transfer track of the transfer track 3, a notch 31 is formed by a vertical indentation. The width of the notch 31 is smaller than the maximum outer diameter of a single tower-shaped / conical product 9. The notch 31 is used to provide a transition for the tower-shaped / conical product 9 guided by the transfer track 3 from an inclined state to an upright state.

[0064] Please refer to the reference. Figure 1 , Figure 7 and Figure 11 As shown, the pressing component 23 in this application has an input stop inclined portion 231 extending upward at one end near the discharge port 120. The portion of the pressing component 23 other than the input stop inclined portion 231 is straight. The end edge of the input stop inclined portion 231 is at least partially located above the end of the transfer track component 3, or in other words, the input stop inclined portion 231 and the projection of the transfer track component 3 in the vertical direction at least partially overlap. This design is intended to assist the tower-shaped / conical product 9 guided and conveyed by the transfer track component 3 in changing from an inclined state to an upright state. That is, the front end of the tower-shaped / conical product 9 guided and conveyed by the transfer track component 3 will hit the input stop inclined portion 231 in the direction of movement, thus slowing down and allowing it to fall smoothly into the hanging gap 20. Furthermore, when the larger end of the tower / conical product 9 is located at the front end in the direction of movement, even if it hits the input stop tilting part 231, only the end edge of the tower / conical product 9 will graze the input stop tilting part 231, thus avoiding a head-on collision and potential danger.

[0065] Please refer to the reference. Figure 7 , Figures 9 to 12As shown, the position adjustment module 4 includes a wheel conveyor 41, a first blocking plate 42, a second blocking plate 43, and a cover 44. The wheel conveyor 41 has a contoured groove 411 formed around its outer periphery, allowing it to rotate. The shape of the contoured groove 411 matches the smaller end of the cross-section of the tower / cone product 9. The first blocking plate 42 is disposed on the outer periphery of the wheel conveyor 41 and located on one side of the contoured groove 411. The second blocking plate 43 is disposed on the outer periphery of the wheel conveyor 41 and located on the other side of the contoured groove 411. The cover 44 is disposed between the first blocking plate 42 and the second blocking plate 43 and opposite to the contoured groove 411. The first blocking plate 42, the second blocking plate 43, the cover 44, and the contoured groove 411 of the wheel conveyor 41 together form a conveying channel 40 with a cross-section matching the tower / cone product 9. The contoured groove 411 at the beginning of the conveying channel 40 corresponds to the end of the hanging gap 20, and is configured such that the smaller end of the tower-shaped / conical product 9 conveyed through the hanging gap 20 can be supported in the contoured groove 411 at the beginning of the conveying channel 40. The rotation of the wheel conveyor 41 assists in driving the tower-shaped / conical product 9 to be conveyed in the conveying channel 40, thereby adjusting a row of upright tower-shaped / conical products 9 to be placed horizontally.

[0066] In a preferred embodiment, the starting end of the cover 44 corresponds to and is adjacent to the ending end of the pressing member 23. The conveying channel (40) is arc-shaped. The position adjustment module 4 also includes an upright section 5, the upper end of which is connected to the ending end of the conveying channel 40. The upright section 5 is formed by the first blocking plate 51, the second blocking plate 52, the upright cover 53, and the upright tangent section 54, forming an upright channel 50 with a cross-section matching the tower-shaped / conical product 9. The upright cover 53 is connected to the ending end of the cover 44. The upright tangent section 54 is parallel to and opposite to the upright cover 53. The upright tangent section 54 is tangent to the wheel conveyor 41 and forms a groove (not labeled) that matches and engages with the contoured groove section 411. The vertical channel 50 is connected to the conveying channel 40. In actual production, the tower-shaped / conical product 9 is finally output through the vertical channel 50 of the vertical section 5 and then put into a packaging box, a jig, or enter the next processing station.

[0067] The design scheme in this application enables automated material handling and conveying of tower-shaped / conical products.

[0068] Although embodiments of this application have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of this application, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A feeding device for a tower-shaped / conical product, used for feeding and conveying tower-shaped / conical products (9), wherein the tower-shaped / conical product (9) has an external shape with a large cross-section at one end and a small cross-section at the other end, characterized in that: The feeding equipment includes: The material receiving module (1) is equipped with a feeding module (12) and has a discharge port (120). The material handling module (2) is provided with a first roller body (21), a second roller body (22) and a pressing component (23). The first roller body (21) and the second roller body (22) are arranged side by side at intervals to form a hanging gap (20). The pressing component (23) is located above the hanging gap (20). The tower-shaped / conical product (9) is fed into the hanging gap (20) through the discharge port (120), and can form a large cross-section end that is confined in the hanging gap (20) and the small cross-section end that is suspended downward in an upright state; The first roller body (21) and the second roller body (22) are inclined and configured such that one end of the material hanging gap (20) corresponding to the discharge port (120) is higher than the other end. The first roller body (21) and the second roller body (22) can rotate about their respective axes, so that the tower-shaped / conical product (9) limited in the material hanging gap (20) tends to float upward, thereby realizing the sliding of the tower-shaped / conical product (9) fed into the material hanging gap (20) from one end to the other end; The pressure member (23) is suspended above the tower-shaped / conical product (9) which is limited within the hanging gap (20) to restrict the tower-shaped / conical product (9) from floating upward.

2. The feeding equipment for tower-shaped / conical products according to claim 1, characterized in that, The feeding module (12) includes a first conveyor belt module (121) and has a first conveyor surface (122). A retaining wall (123) is assembled above the first conveying surface (122) and surrounds the first conveying surface (122) to form a first conveying area (124). At least the portion of the first conveying area (124) near the end point along the conveying direction is configured to gradually narrow in width along the conveying direction. A linear conveying segment (125) is formed at the end of the first conveying area (124) along the conveying direction. One side of the linear conveying segment (125) is blocked by a retaining wall (123), and the other side of the linear conveying segment (125) is blocked by a stop bar (126). The discharge port (120) is formed at the end of the linear conveying section (125) along the conveying direction.

3. The feeding equipment for tower-shaped / conical products according to claim 2, characterized in that, The gap width between the retaining wall portion (123) and the stop bar (126) in the linear conveying section (125) area is no greater than the width of a single tower / cone product (9).

4. The feeding equipment for tower-shaped / conical products according to claim 2, characterized in that, The gap width between the retaining wall portion (123) and the stop bar (126) in the linear conveying section (125) area is less than the maximum outer diameter of a single tower / cone product (9) and greater than half of the maximum outer diameter of a single tower / cone product (9).

5. The feeding equipment for tower-shaped / conical products according to claim 2, 3, or 4, characterized in that, The outer surface of the tower-shaped / conical product (9) conveyed to the linear conveyor section (125) contacts the retaining wall portion (123); the upper edge of the retaining wall portion (123) does not extend upward beyond the highest point of the corresponding tower-shaped / conical product (9).

6. The feeding device for tower-shaped / conical products according to claim 2, 3, or 4, characterized in that: The feeding module (12) also includes a second conveyor belt module (131) and has a second conveyor surface (132). The first conveyor belt module (121) and the second conveyor belt module (131) are arranged side by side and adjacent to each other; The enclosure (133) is assembled above the second conveying surface (132) and encloses the second conveying surface (132) to form a second conveying area (134). The first conveying surface (122) and the second conveying surface (132) have opposite conveying directions; The second transmission area (134) is configured such that at least the portion near the end point along the transmission direction is narrowed in width along the transmission direction. The end point of the second conveying surface (132) in the second conveying area (134) along its own conveying direction is not lower than the starting point of the first conveying surface (122) in the first conveying area (124) along its own conveying direction, so that the tower-shaped / conical product (9) conveyed by the second conveying surface (132) can be transferred from the end point of the second conveying surface (132) in the second conveying area (134) along its own conveying direction to the starting point of the first conveying surface (122) in the first conveying area (124) along its own conveying direction.

7. The feeding equipment for tower-shaped / conical products according to claim 6, characterized in that: The second conveying surface (132) within the second conveying area (134) extends along the horizontal plane; The first transmission surface (122) within the first transmission area (124) extends upward at an angle along its own transmission direction.

8. The feeding device for tower-shaped / conical products according to any one of claims 1 to 4, characterized in that, Also includes: The transfer track (3) is located between the discharge port (120) and the starting end of the hanging gap (20). The transfer track (3) is used to guide the tower-shaped / conical product (9) conveyed from the discharge port (120) to slide to the starting end of the hanging gap (20). A notch (31) is recessed in the vertical direction at the end of the transfer track of the transfer track (3), and the width of the notch (31) is less than the maximum outer diameter of a single tower / cone product (9).

9. The feeding device for tower-shaped / conical products according to any one of claims 1 to 4, characterized in that, Also includes: The wheel conveyor (41) has a contoured groove (411) formed around its outer periphery, and the wheel conveyor (41) is capable of rotation; The first baffle plate (42) is disposed on the outer periphery of the wheel conveyor (41) and located on one side of the contoured groove (411); The second baffle plate (43) is disposed on the outer periphery of the wheel conveyor (41) and located on the other side of the contoured groove (411); The cover (44) is disposed between the first baffle plate (42) and the second baffle plate (43) and opposite to the contoured groove (411); The first baffle plate (42), the second baffle plate (43), the cover (44) and the contoured groove (411) of the wheel conveyor (41) together form a conveying channel (40) with a cross section matching the tower-shaped / conical product (9). The contoured groove (411) at the beginning of the conveying channel (40) corresponds to the end of the hanging gap (20), and is configured such that the smaller end of the tower-shaped / conical product (9) conveyed through the hanging gap (20) can be supported in the contoured groove (411) at the beginning of the conveying channel (40), and the rotation of the wheel conveyor (41) assists in driving the tower-shaped / conical product (9) to be conveyed in the conveying channel (40).

10. The feeding device for tower-shaped / conical products according to claim 9, characterized in that: The starting end of the cover (44) corresponds to and is adjacent to the ending end of the pressing element (23).

11. The feeding device for tower-shaped / conical products according to claim 9, characterized in that: The transmission channel (40) is arc-shaped; The upright section (5) is connected at its upper end to the end of the conveying channel (40). The upright section (5) is formed by the first stop plate (51), the second stop plate (52), the upright cover (53) and the upright tangent section (54). The upright cover (53) is connected to the end of the cover (44). The upright tangent section (54) is parallel to and opposite to the upright cover (53). The upright tangent section (54) is tangent to the wheel conveyor (41) and forms a groove that matches and engages with the contoured groove (411).

12. The feeding device for tower-shaped / conical products according to any one of claims 1 to 4, characterized in that: The pressing component (23) has an input stop inclined portion (231) extending upward at one end near the discharge port (120), and is configured such that when the tower / cone product (9) is conveyed, the front end of the tower / cone product (9) in the direction of movement will rub against the input stop inclined portion (231), forcing the tower / cone product (9) to move towards the hanging gap (20).

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