Continuous feeding machine in glass bottle production process

Abstract

The invention discloses a continuous feeding machine in the glass bottle production process, and relates to the technical field of glass bottle raw material melting, the continuous feeding machine comprises a rectangular frame, a storage hopper and an arc-shaped box, the arc-shaped box is fixedly arranged at the bottom of the storage hopper, and a main body structure of the continuous feeding machine comprises the storage hopper and the arc-shaped box; the bottom of the arc-shaped box is fixedly provided with a bottom arc plate through a vertical arc plate, the top of the bottom arc plate is provided with a continuous feeding assembly, the continuous feeding assembly continuously feeds glass raw materials in the storage hopper into a feeding port of smelting equipment, and the side face of the arc-shaped box is provided with an in-place stirring assembly; the in-place stirring assembly destroys a material pile in time when the continuous feeding assembly forms the material pile at a feeding port, so that the problem of raw material accumulation caused by too high feeding speed, non-uniform distribution or insufficient smelting conditions can be effectively prevented, the phenomena of raw material surface crusting, lower-layer raw material melting blocking and the like are avoided, and the production efficiency is improved. Adverse consequences such as local furnace temperature fluctuation, energy consumption increase and feed port blockage can be prevented, and continuous and stable production is guaranteed.

Description

Technical Field

[0001] The present invention relates to the technical field of glass bottle raw material melting, and particularly to a continuous feeder in the production process of glass bottles. Background Art

[0002] In the production process of glass bottles, glass raw materials such as quartz sand, soda ash, and limestone must be melted at high temperature to form a homogeneous glass liquid to meet the requirements of subsequent forming processes for fluidity and purity. Releasing granular raw materials into the melting equipment can make them quickly contact with high-temperature flames or heating surfaces, improve the heat conduction efficiency, and promote the raw material melting speed and chemical reaction efficiency, which is a basic link for high-quality forming of glass bottles.

[0003] In the prior art during glass melting, when the feeder releases raw materials into the melting pool, if the feeding speed is greater than the melting speed of the raw materials, or the feeding positions are concentrated and unevenly distributed, it is easy to form a material pile at the inlet of the melting pool. Especially when the temperature of the melting pool is low, the local melting capacity is insufficient, the fluidity of the glass liquid is poor, or the raw materials are not preheated, the raw materials cannot be melted in time in the high-temperature area, resulting in continuous accumulation. The formation of the material pile will cause a decrease in the heat transfer efficiency, resulting in the formation of a crust on the surface of the raw materials, affecting the melting of the lower-layer raw materials, and may also cause a local furnace temperature drop, fluctuations in the quality of the glass liquid, an increase in energy consumption, and in severe cases, may even block the feeding port, affecting continuous production. Summary of the Invention

[0004] The purpose of the present invention is to solve the problem in the prior art that during glass melting, when the feeder releases raw materials into the melting pool, if the feeding speed is greater than the melting speed of the raw materials, or the feeding positions are concentrated and unevenly distributed, it is easy to form a material pile at the inlet of the melting pool. The formation of the material pile will cause a decrease in the heat transfer efficiency, resulting in the formation of a crust on the surface of the raw materials, affecting the melting of the lower-layer raw materials, and may also cause a local furnace temperature drop, fluctuations in the quality of the glass liquid, an increase in energy consumption, and in severe cases, may even block the feeding port, affecting continuous production. A continuous feeder in the production process of glass bottles is proposed.

[0005] To achieve the above purpose, the present invention adopts the following technical solutions: A continuous feeder in the production process of glass bottles includes a rectangular frame, a storage hopper, and an arc-shaped box. The bottom of the storage hopper is fixedly provided with the arc-shaped box. A blanking groove is opened on the side of the arc-shaped box. The bottom of the arc-shaped box is fixedly provided with a bottom arc plate through a vertical arc plate. A storage gap is provided between the bottom of the arc-shaped box and the top of the bottom arc plate; A continuous feeding assembly is arranged on the top of the bottom arc plate, and the continuous feeding assembly continuously discharges the raw materials on the top of the bottom arc plate from the blanking groove; The side of the stock hopper is symmetrically and fixedly provided with fixing blocks. Below the fixing blocks, the stock hopper is fixedly provided with a vertical plate. A material-in-place agitation assembly is arranged on the side of the vertical plate, and the material-in-place agitation assembly destroys the material pile formed by the material discharged through the blanking chute. The side of the fixing block is rotatably connected with a horizontal rod, and a linkage driving assembly is arranged on the horizontal rod. The linkage driving assembly transmits the power of the continuous material pushing assembly to the material-in-place agitation assembly.

[0006] Optionally, the continuous feeding assembly includes a pushing cylinder, a pushing arc plate, and a fixed seat. The fixed seat is rotatably connected to the side of the extension seat. The pushing cylinder is fixedly arranged on the side of the fixed seat. The output end of the pushing cylinder is rotatably connected to the middle position at the top of the pushing arc plate. An extension block is fixedly arranged at the edge position at the top of the pushing arc plate.

[0007] Optionally, the material-in-place agitation assembly includes a displacement plate, a vertical shaft, a disturbing blade, and a material-in-place driving assembly. The material-in-place driving assembly controls the disturbing blade to rotate only when the disturbing blade enters the interior of the material pile. The vertical plate is provided with a vertical T-slot in the vertical direction. A vertical T-block is slidably arranged in the vertical T-slot in the vertical direction. The displacement plate is fixedly arranged on the side of the vertical T-block. The top of the displacement plate is symmetrically and rotatably connected with vertical shafts. The disturbing blades are fixedly arranged at the bottoms of the vertical shafts.

[0008] Optionally, the material-in-place driving assembly includes a common rack, a driven gear, a left guide plate, and a right guide plate. The left guide plate and the right guide plate are fixedly arranged in sequence at the edge position on the side of the vertical plate. The left guide plate is provided with a left vertical surface and a left inclined surface in sequence in the vertical direction. The right guide plate is provided with a right vertical surface and a right inclined surface in sequence in the vertical direction. The driven gear is fixedly arranged at the top of the vertical shaft.

[0009] Optionally, the displacement plate is provided with a horizontal T-slot in the horizontal direction. A horizontal T-block is movably inserted into the side of the horizontal T-slot. The common rack is fixedly arranged at the top of the horizontal T-block. The common rack stably meshes with the two driven gears.

[0010] Optionally, the linkage driving assembly includes a driving gear, a vertical rack, and a transmission rod. One end of the transmission rod is fixedly connected to one end of the horizontal rod. The other end of the transmission rod is fixedly connected to the side of the extension block. The driving gear is fixedly arranged at the middle position of the horizontal rod. The driving gear stably meshes with the vertical rack in the vertical direction. The bottom of the vertical rack is fixedly connected to the top of the displacement plate.

[0011] Optionally, a vertical arc plate is fixedly arranged on the side of the bottom arc plate. A reinforcing rod is fixedly arranged at the top of the vertical arc plate. The reinforcing rod is fixedly arranged on the side of the arc-shaped box.

[0012] Optionally, an adjusting screw is screwed into the side surface of the rectangular frame, the other end of the adjusting screw is rotatably connected to the side wall of the storage hopper, a horizontal column is fixedly arranged on the side of the storage hopper opposite to the adjusting screw, and the other end of the horizontal column is movably inserted into the rectangular frame.

[0013] Optionally, a protection box is fixedly arranged on the top of the displacement plate, a central groove is arranged at the middle position of the top of the protection box, the vertical toothed rod passes through the central groove, and a horizontal groove is formed on the side surface of the protection box.

[0014] Optionally, a vertical box is fixedly arranged on the top of the central groove of the protection box, a vertical groove is arranged along the vertical direction on the side surface of the vertical box, and the horizontal rod extends out from the side surface of the vertical groove.

[0015] Optionally, extension folding rods are symmetrically and fixedly arranged at both ends of the common toothed rod, auxiliary wheels are rotatably connected to the other ends of the extension folding rods, the auxiliary wheels are in contact with the side surfaces of the left guide plate or the right guide plate, and the left inclined surface and the right inclined surface are parallel to each other.

[0016] Compared with the prior art, the present invention has the following advantages: 1. The main structure of the present invention includes a storage hopper and an arc-shaped box. The bottom of the arc-shaped box is fixedly provided with a bottom arc plate through a vertical arc plate, and a continuous feeding component is arranged on the top of the bottom arc plate. The continuous feeding component continuously feeds the glass raw materials inside the storage hopper into the feeding port of the melting equipment. An in-place stirring component is arranged on the side surface of the arc-shaped box. When the continuous feeding component forms a material pile at the feeding port, the in-place stirring component timely destroys the material pile, which can effectively prevent the problem of raw material accumulation caused by too fast feeding speed, uneven distribution or insufficient melting conditions, avoid phenomena such as crust formation on the surface of the raw materials and hindered melting of the lower-layer raw materials, ensure sufficient heat transfer and uniform melting of the raw materials in the melting pool, improve the stability of the glass liquid quality, help prevent adverse consequences such as local furnace temperature fluctuations, increased energy consumption and blockage of the feeding port, and ensure continuous and stable production.

[0017] 2. During the process of stirring the material pile, the in-place stirring component of the present invention may come into contact with the glass raw materials that have not been completely melted or have started to melt, and the surface is easily adhered with the molten solution. If it continues to rotate during the return process, it may cause the molten solution to be thrown out, resulting in splashing of the molten solution and pollution of the surrounding structure of the melting pool, and even posing a safety hazard. The present invention sets an in-place driving component with a pure mechanical structure, so that it only starts to drive after the stirring component enters the interior of the material pile, and automatically stops the rotation of the stirring component during the return process, avoiding the problem of the molten solution being shaken due to inertia or misoperation during the return process, not only improving the cleanliness and safety of the equipment operation, but also prolonging the service life of the stirring component, effectively improving the overall stability and production reliability of the melting system.

[0018] 3. A linkage drive assembly is provided between the continuous feeding assembly and the in-place agitation assembly. The linkage drive assembly is a pure mechanical structure that can transfer the power of the continuous feeding assembly to the in-place agitation assembly. When the pushing arc plate in the continuous feeding assembly starts to return and is about to pick up materials, the linkage drive assembly can control the in-place agitation assembly to start moving downwards and gradually enter the material pile. This can achieve precise timing coordination between the continuous feeding action and the agitation action, avoiding interference or structural conflicts caused by both actions occurring simultaneously. Since the raw materials are no longer pushed during the return of the pushing arc plate and the material pile is in a static state, controlling the in-place agitation assembly to start moving downwards at this time can ensure that it smoothly and unobstructedly enters the interior of the material pile for agitation, which helps to improve the agitation efficiency and pile-breaking effect. At the same time, using a pure mechanical linkage structure eliminates the need for additional sensors or electronic control systems, reducing the structural complexity and failure rate, and enhancing the reliability, synchronization, and maintenance convenience of the overall system. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 FIG. is a schematic diagram of the overall structure of the present invention.

[0020] Figure 2 is Figure 1 a schematic diagram of the structure from another perspective.

[0021] Figure 3 is Figure 1 a schematic diagram of the structure with the pushing arc plate removed.

[0022] Figure 4 is Figure 3 another schematic diagram of the actual structure.

[0023] Figure 5 is a schematic diagram of the structure of the pushing arc plate and its connecting member.

[0024] Figure 6 is a schematic diagram of the structure of the in-place agitation assembly.

[0025] Figure 7 is Figure 6 a schematic diagram of the structure with the protection box removed.

[0026] Figure 8 is a schematic diagram of the structure of the displacement plate and its connecting member.

[0027] Figure 9 is Figure 8 a schematic diagram of the structure with the protection box removed.

[0028] Figure 10 is Figure 9 a schematic diagram of the structure with the common toothed rod removed.

[0029] Figure 11 is a schematic diagram of the structure of the common toothed rod and its connecting member.

[0030] In the figure: 1, storage hopper; 2, rectangular frame; 3, adjusting screw; 4, strengthening rod; 5, storage frame; 6, horizontal column; 7, extension seat; 8, fixed seat; 9, vertical arc plate; 10, bottom arc plate; 11, arc-shaped box; 110, blanking chute; 12, pushing cylinder; 13, extension block; 14, transfer rod; 15, pushing arc plate; 16, fixed block; 17, horizontal rod; 171, driving gear; 18, vertical plate; 181, vertical T-slot; 19, left guide plate; 191, left vertical surface; 192, left inclined surface; 20, right guide plate; 201, right vertical surface; 202, right inclined surface; 21, displacement plate; 210, vertical T-block; 211, horizontal T-slot; 22, driven gear; 23, vertical shaft; 231, disturbing blade; 24, vertical box; 241, vertical groove; 25, protection box; 251, horizontal groove; 252, central groove; 26, vertical toothed rod; 27, extension folding rod; 271, auxiliary wheel; 28, common toothed rod; 281, horizontal T-block. Specific embodiments

[0031] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments.

[0032] In the description of the present invention, it should be understood that the orientation or positional relationship indicated by the terms "upper", "lower", "front", "rear", "left", "right", "top", "bottom", "inner", "outer", etc. is based on the orientation or positional relationship shown in the accompanying drawings, and is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation to the present invention.

[0033] Refer to Figure 1-11 , a continuous feeder in the production process of glass bottles, including a rectangular frame 2, a storage hopper 1 and an arc-shaped box 11. The bottom of the storage hopper 1 is fixedly provided with the arc-shaped box 11. A blanking chute 110 is opened on the side of the arc-shaped box 11. The bottom of the arc-shaped box 11 is fixedly provided with a bottom arc plate 10 through a vertical arc plate 9. The side of the bottom arc plate 10 is fixedly provided with a vertical arc plate 9. The top of the vertical arc plate 9 is fixedly provided with a strengthening rod 4. The strengthening rod 4 is fixedly arranged on the side of the arc-shaped box 11. A storage gap is provided between the bottom of the arc-shaped box 11 and the top of the bottom arc plate 10.

[0034] A continuous feeding assembly is arranged at the top of the bottom arc plate 10. The continuous feeding assembly continuously discharges the raw materials at the top of the bottom arc plate 10 from the blanking chute 110. The continuous feeding assembly includes a pushing cylinder 12, a pushing arc plate 15, and a fixed seat 8. The fixed seat 8 is rotatably connected to the side of the extension seat 7. The pushing cylinder 12 is fixedly arranged on the side of the fixed seat 8. The output end of the pushing cylinder 12 is rotatably connected to the middle position at the top of the pushing arc plate 15. An extension block 13 is fixedly arranged at the edge position at the top of the pushing arc plate 15. The pushing arc plate 15 extends into the storage gap arranged between the bottom of the arc-shaped box 11 and the top of the bottom arc plate 10 and fills the gap. The bottom of the arc-shaped box 11 is arranged as an arc surface, and the top of the pushing arc plate 15 will fit to the bottom of the arc-shaped box 11.

[0035] The pushing arc plate 15 has a certain thickness. When the pushing arc plate 15 leaves the storage gap arranged between the bottom of the arc-shaped box 11 and the top of the bottom arc plate 10, a storage gap arranged between the bottom of the arc-shaped box 11 and the top of the bottom arc plate 10 will be filled with a certain thickness of glass raw materials. In addition, a storage frame 5 is fixedly arranged on the rear side surface of the arc-shaped box 11. When the pushing arc plate 15 transfers along the storage gap, a certain amount of glass raw materials will be driven to leak out. The storage frame 5 is used to receive the leaked raw materials.

[0036] Fixing blocks 16 are symmetrically and fixedly arranged on the side surface of the storage hopper 1. A vertical plate 18 is fixedly arranged below the fixing blocks 16 on the storage hopper 1. An in-place stirring assembly is arranged on the side surface of the vertical plate 18. The in-place stirring assembly includes a displacement plate 21, a vertical shaft 23, a disturbance blade 231, and an in-place driving assembly. The in-place driving assembly controls the disturbance blade 231 to rotate only when the disturbance blade 231 enters the interior of the material pile. A vertical T-slot 181 is opened in the vertical plate 18 along the vertical direction. A vertical T-block 210 is slidably arranged in the vertical T-slot 181 along the vertical direction. The displacement plate 21 is fixedly arranged on the side surface of the vertical T-block 210. At this time, the displacement plate 21 can stably move along the vertical direction of the vertical plate 18.

[0037] The vertical shafts 23 are symmetrically and rotatably connected to the top of the displacement plate 21. The disturbance blades 231 are fixedly arranged at the bottom of the vertical shafts 23. The in-place driving assembly includes a common rack 28, a driven gear 22, a left guide plate 19, and a right guide plate 20. The left guide plate 19 and the right guide plate 20 are sequentially and fixedly arranged at the edge position of the side surface of the vertical plate 18. A left vertical surface 191 and a left inclined surface 192 are sequentially opened on the side surface of the left guide plate 19 along the vertical direction. A right vertical surface 201 and a right inclined surface 202 are sequentially arranged on the side surface of the right guide plate 20 along the vertical direction. The driven gear 22 is fixedly arranged at the top of the vertical shaft 23. The in-place stirring assembly destroys the material pile formed by the materials discharged through the blanking chute 110. The displacement plate 21 is provided with a horizontal T-slot 211 in the horizontal direction. A horizontal T-block 281 is movably inserted into the side of the horizontal T-slot 211. A common rack 28 is fixedly arranged at the top of the horizontal T-block 281. Therefore, when the displacement plate 21 displaces in the vertical direction, due to the arrangement of the horizontal T-block 281, the common rack 28 will move horizontally together with the displacement plate 21. The common rack 28 stably meshes with the two driven gears 22. Symmetrically fixed at both ends of the common rack 28 are extension folding rods 27. The other end of the extension folding rod 27 is rotatably connected with an auxiliary wheel 271. The auxiliary wheel 271 contacts the side of the left guide plate 19 or the right guide plate 20. The left inclined surface 192 and the right inclined surface 202 are parallel to each other.

[0038] A horizontal rod 17 is rotatably connected to the side of the fixed block 16. A linkage drive assembly is arranged on the horizontal rod 17. The linkage drive assembly transmits the power of the continuous feeding assembly to the in-place stirring assembly. The linkage drive assembly includes a driving gear 171, a vertical rack 26, and a transmission rod 14. One end of the transmission rod 14 is fixedly connected to one end of the horizontal rod 17. The other end of the transmission rod 14 is fixedly connected to the side of the extension block 13. A driving gear 171 is fixedly arranged at the middle position of the horizontal rod 17. The driving gear 171 stably meshes with the vertical rack 26 in the vertical direction. The bottom of the vertical rack 26 is fixedly connected to the top of the displacement plate 21. Therefore, when the driving gear 171 rotates, it will drive the displacement plate 21 to displace in the vertical direction through the vertical rack 26.

[0039] An adjusting screw 3 is screwed into the side of the rectangular frame 2. The other end of the adjusting screw 3 is rotatably connected to the side wall of the storage hopper 1. A horizontal column 6 is fixedly arranged on the storage hopper 1 opposite to the adjusting screw 3. The other end of the horizontal column 6 is movably inserted into the rectangular frame 2. The rectangular frame 2 serves as the base for installing the entire feeder on the frame. A handwheel is further arranged at the end of the adjusting screw 3. The user can drive the storage hopper 1 to displace a certain distance in the horizontal direction by rotating the adjusting screw 3, so as to drive the entire device away from the feeding port of the smelting equipment, facilitating the maintenance of the feeding port of the smelting equipment.

[0040] A protection box 25 is fixedly arranged at the top of the displacement plate 21. A central groove 252 is arranged at the middle position of the top of the protection box 25. The vertical rack 26 passes through the central groove 252. A horizontal groove 251 is opened on the side of the protection box 25. A vertical box 24 is fixedly arranged at the top of the protection box 25 with respect to the central groove 252. A vertical groove 241 is opened in the vertical direction on the side of the vertical box 24. The horizontal rod 17 extends from the side of the vertical groove 241. Both the protection box 25 and the vertical box 24 are for protecting the driving gear 171, the vertical rack 26, the driven gears 22, and the common rack 28. The horizontal groove 251 provides clearance for the horizontal movement of the extension folding rod 27, and the vertical groove 241 provides clearance for the vertical movement of the horizontal rod 17.

[0041] It should be added that since the positions of the entire feeding device and the feeding port of the melting device are fixed, and the fluidity of the glass raw materials is relatively stable, the height of the material pile formed at the feeding port of the melting device is relatively stable. Therefore, the vertical heights of the left vertical surface 191 and the right vertical surface 201 can be determined according to the actual height of the material pile.

[0042] The specific implementation steps and principles of the present invention are as follows: Starting from when the pushing cylinder 12 is about to retract, at this time, the pushing arc plate 15 gradually moves outside the gap between the bottom arc plate 10 and the arc-shaped box 11. The gap between the bottom arc plate 10 and the arc-shaped box 11 is restored to store a certain amount of glass raw material particles again. During this process, the pushing arc plate 15 will drive the horizontal rod 17 to rotate through the transmission rod 14, and drive the displacement plate 21 to move downward in the vertical direction through the horizontal rod 17, the driving gear 171, and the vertical rack 26. At this time, the auxiliary wheel 271 moves from the left vertical surface 191 of the left guide plate 19 to the left inclined surface 192. When the auxiliary wheel 271 moves along the left vertical surface 191, the disturbing blades 231 of the two vertical shafts 23 will not rotate. When the disturbing blades 231 start to contact the material pile, the auxiliary wheel 271 starts to move from the left vertical surface 191 to the left inclined surface 192. At this time, the common rack 28 will be forced to move horizontally, and the common rack 28 drives the two driven gears 22 to rotate, thereby driving the disturbing blades 231 at the bottom of the two vertical shafts 23 to rotate and destroy the material pile.

[0043] When the pushing cylinder 12 extends again, it will drive the pushing arc plate 15 to discharge a certain amount of glass raw material particles stored in the gap between the bottom arc plate 10 and the arc-shaped box 11 from the blanking chute 110. During this period, the pushing arc plate 15 will drive the horizontal rod 17 to rotate through the transmission rod 14, and drive the displacement plate 21 to move upward in the vertical direction through the horizontal rod 17, the driving gear 171, and the vertical rack 26. All the components on the displacement plate 21 are reset. The auxiliary wheel 271 moves from the left inclined surface 192 to the left vertical surface 191. At this time, the common rack 28 will not drive the two driven gears 22 to rotate, and the two disturbing blades 231 remain stationary.

[0044] The above is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, makes equivalent substitutions or changes, and should be covered by the protection scope of the present invention.

Claims

1. A continuous feeder in the production process of a glass bottle, comprising a rectangular frame, a storage hopper, and an arc-shaped box, characterized in that, An arc-shaped box is fixedly arranged at the bottom of the material storage hopper. A material dropping groove is formed in the side surface of the arc-shaped box. A bottom arc plate is fixedly arranged at the bottom of the arc-shaped box through a vertical arc plate. A material storage gap is arranged between the bottom of the arc-shaped box and the top of the bottom arc plate. A continuous feeding component is arranged at the top of the bottom arc plate. The continuous feeding component continuously discharges the raw materials at the top of the bottom arc plate from the material dropping groove. Fixing blocks are symmetrically and fixedly arranged on the side surface of the material storage hopper. A vertical plate is fixedly arranged below the fixing blocks on the material storage hopper. An in-place stirring component is arranged on the side surface of the vertical plate. The in-place stirring component destroys the material pile formed by the materials discharged through the material dropping groove. A horizontal rod is rotatably connected to the side surface of the fixing block. A linkage driving component is arranged on the horizontal rod. The linkage driving component transmits the power of the continuous pushing component to the in-place stirring component.

2. The continuous feeder in the production process of a glass bottle according to claim 1, characterized in that The continuous feeding component comprises a pushing cylinder, a pushing arc plate and a fixing seat. The fixing seat is rotatably connected to the side surface of an extension seat. The pushing cylinder is fixedly arranged on the side surface of the fixing seat. The output end of the pushing cylinder is rotatably connected to the middle position of the top of the pushing arc plate. An extension block is fixedly arranged at the edge position of the top of the pushing arc plate.

3. The continuous feeder in the production process of a glass bottle according to claim 1, wherein, The in-place stirring component comprises a displacement plate, a vertical shaft, a disturbing blade and an in-place driving component. The in-place driving component controls the disturbing blade to rotate only when the disturbing blade enters the inside of the material pile. A vertical T groove is formed in the vertical plate in the vertical direction. A vertical T block is slidably arranged in the vertical T groove in the vertical direction. The displacement plate is fixedly arranged on the side surface of the vertical T block. Vertical shafts are symmetrically and rotatably connected to the top of the displacement plate. The disturbing blade is fixedly arranged at the bottom of the vertical shaft.

4. A continuous feeder in the production process of a glass bottle according to claim 3, characterized in that, The in-place driving component comprises a common rack, a driven gear, a left guide plate and a right guide plate. The left guide plate and the right guide plate are sequentially and fixedly arranged at the edge position of the side surface of the vertical plate. A left vertical surface and a left inclined surface are sequentially formed in the side surface of the left guide plate in the vertical direction. A right vertical surface and a right inclined surface are sequentially arranged in the side surface of the right guide plate in the vertical direction. The driven gear is fixedly arranged at the top of the vertical shaft.

5. The continuous feeder in the production process of a glass bottle according to claim 4, characterized in that, A horizontal T groove is formed in the displacement plate in the horizontal direction. A horizontal T block is movably inserted into the side surface of the horizontal T groove. The common rack is fixedly arranged at the top of the horizontal T block. The common rack is stably meshed with the two driven gears.

6. A continuous feeder in the production process of a glass bottle according to claim 1, characterized in that, The linkage driving component comprises a driving gear, a vertical rack and a transmission rod. One end of the transmission rod is fixedly connected to one end of the horizontal rod. The other end of the transmission rod is fixedly connected to the side surface of the extension block. The driving gear is fixedly arranged at the middle position of the horizontal rod. The driving gear is stably meshed with the vertical rack in the vertical direction. The bottom of the vertical rack is fixedly connected to the top of the displacement plate.

7. A continuous feeder in the production process of a glass bottle according to claim 1, characterized in that, A vertical arc plate is fixedly arranged on the side surface of the bottom arc plate. A reinforcing rod is fixedly arranged at the top of the vertical arc plate. The reinforcing rod is fixedly arranged on the side surface of the arc-shaped box.

8. A continuous feeder in the production process of a glass bottle according to claim 1, characterized in that An adjusting screw is screwed into the side surface of the rectangular frame. The other end of the adjusting screw is rotatably connected to the side wall of the material storage hopper. A horizontal column is fixedly arranged on the material storage hopper on the opposite side of the adjusting screw. The other end of the horizontal column is movably inserted into the rectangular frame.

9. A continuous feeder in the production process of a glass bottle according to claim 6, characterized in that, A protective box is fixedly arranged at the top of the displacement plate. A central groove is arranged at the middle position of the top of the protective box. The vertical tooth bar passes through the central groove. A horizontal groove is formed in the side surface of the protective box.

10. A continuous feeder in the production process of glass bottles according to claim 9, characterized in that, A vertical box is fixedly arranged at the top of the central groove of the protective box. A vertical groove is formed in the side surface of the vertical box along the vertical direction. The horizontal rod extends out from the side surface of the vertical groove.

11. A continuous feeder in the production process of a glass bottle according to claim 5, characterized in that, Extension folding rods are symmetrically and fixedly arranged at both ends of the common tooth bar. The other ends of the extension folding rods are rotatably connected with auxiliary wheels. The auxiliary wheels are in contact with the side surfaces of the left guide plate or the right guide plate. The left inclined surface and the right inclined surface are parallel to each other.

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