Energy-saving powder sticking device for processing sliced squids and use method of energy-saving powder sticking device

Abstract

The invention relates to the technical field of sliced squid cutting, in particular to an energy-saving powder sticking device for sliced squid processing and a using method. The powder discharging device comprises an air supply assembly and a powder discharging assembly. The hopper-shaped plate is driven to move up and down through forward and reverse rotation of the lead screw, in the upward moving process, airflow flowing from bottom to top is generated at the inner end of each powder discharging assembly, and due to the fact that the powder discharging assemblies are communicated with the powder collecting groove, the flowing airflow can guide part of powder at the inner end of the powder collecting groove to enter the powder discharging assemblies; flowing airflow blows powder at the inner end of the powder discharging assembly outwards to the inner end of the opening, so that the blown powder is evenly attached to the surfaces of the cut squid slices, powder spraying and powder supplying work is conducted circularly, it is guaranteed that the sprayed powder can be evenly sprayed to the surfaces of the squid slices in different areas, the powder adhering effect is improved, and the working efficiency is improved. And meanwhile, the amount of extracted and sprayed powder is quantified, the powder spraying utilization rate is increased, and the situation that subsequent packaging work is affected due to excessive powder spraying caused by continuous spraying is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of squid slice cutting, and more specifically, to an energy-saving powder sticking device for squid slice processing and a using method thereof. Background Art

[0002] During the processing of squid slices, in order to facilitate subsequent transportation and packaging, it is necessary to cut them into filaments or slices in advance. When cutting, due to the water content in the squid itself, water stains will be generated at the cut after cutting and separating, which easily causes the slices or filaments to stick to each other, making it difficult to separate them during subsequent bag packaging. Therefore, during the cutting process, the common treatment method is to spray food-grade powder, such as flour, etc., at the cutting position. On the one hand, it can absorb moisture and prevent the slices or filaments from sticking to each other. On the other hand, the slices or filaments wrapped with flour form a protective film on their outer surface, reducing contact with air and extending the shelf life.

[0003] When sticking powder during the slicing or filament-cutting process, the traditional powder sticking method mainly sprays directly, that is, sprinkles powder from above the cutting position. When cutting, most of the squid slices are stacked at the bottom and cannot be adhered to the powder immediately. To ensure the powder sticking effect, continuous spraying is required, resulting in an excessive amount of unadhered powder in the finished product of the slices or filaments after the spraying work, leading to a large waste of powder resources. At the same time, it needs to be filtered in advance before packaging, increasing the workload.

[0004] In order to address the above problems, there is an urgent need for an energy-saving powder sticking device for squid slice processing and a using method thereof. Summary of the Invention

[0005] The purpose of the present invention is to provide an energy-saving powder sticking device for squid slice processing and a using method thereof to solve the problems raised in the above background art.

[0006] To achieve the above purpose, one of the purposes of the present invention is to provide an energy-saving powder sticking device for squid slice processing, including a tank body, an inner barrel arranged at the inner end of the tank body, and a collection barrel arranged at the bottom end of the tank body. An opening for loading squid is provided at the top end of the inner barrel. A servo motor is arranged at the top end of the tank body. A lead screw is coaxially connected to the bottom end of the servo motor. A cutting blade is connected to the bottom end of the lead screw. The cutting blade extends into the inner end of the opening to slice or cut the squid. A powder collecting groove for loading powder is arranged on the inner side of the inner barrel. An inner groove is provided on the side of the top end of the inner barrel. An air supply component is arranged at the inner end of the inner groove. A plurality of powder discharging components are arranged in an array and conductively connected to the bottom end of the air supply component. One side of the powder discharging component is kept in communication with the inner end of the powder collecting groove, and the other side is kept in communication with the inner end of the opening.

[0007] The outer side of the screw rod is threadedly connected to a bucket plate, the top of the bucket plate is provided with an internal thread, the side of the bucket plate is attached to the inner wall of the tank body, and a positioning component is provided between the bottom end of the bucket plate and the top of the air supply component;

[0008] During the forward rotation of the screw rod, the bucket plate is driven to move downward, and the positioning assembly is cooperated with the air supply assembly to extrude the air supply assembly, and air flow is provided to the inside of the powder discharge assembly, so as to drive the sticky powder contained in the powder discharge assembly to spray out toward the inner end of the opening, and evenly adhere to the surface of the squid slices at different positions;

[0009] During the reversal of the screw rod, the bucket plate is driven to move upward, the air supply assembly is reset, and an airflow from top to bottom is generated at the inner end of the inner groove. Through the conduction area between the powder discharge assembly and the powder collecting groove, the adhesion contained in the inner end of the powder collecting groove is guided to the inner ends of each powder discharge assembly.

[0010] As a further improvement of the present technical solution, the air supply assembly includes an airbag and a plurality of exhaust ports connected to and arranged at the bottom end of the airbag, the airbag is arranged at the inner end position of the inner groove, and the top end of the airbag protrudes outward from the top end of the inner groove, and each exhaust port array is arranged at the bottom end position of the airbag.

[0011] As a further improvement of the present technical solution, the powder discharge assembly includes a plurality of powder spray chamber plates, each of which is respectively conductively connected to the bottom end of the exhaust port at a corresponding position, one side of the powder spray chamber plate is conductively connected to a plurality of nozzles with the inner end of the opening, and an inclined pipe is conductively connected between the other side of the powder spray chamber plate and the inner end of the powder collecting trough.

[0012] As a further improvement of the technical solution, the inclined tube is obliquely connected between the powder spraying cavity plate and the powder collecting groove, and the port height of the inclined tube close to the powder spraying cavity plate is higher than the port height close to the powder collecting groove.

[0013] As a further improvement of the present technical solution, a one-way valve is provided at the inner end of each nozzle, and during the process of the powder spraying chamber plate evacuating air inwardly, the channel between the opening and the powder spraying chamber plate is closed, and during the process of the powder spraying chamber plate evacuating air outwardly, the channel between the opening and the powder spraying chamber plate is opened, and a filter plate for filtering powder is provided near the top of the inner end of the powder spraying chamber plate.

[0014] As a further improvement of the present technical solution, the positioning assembly includes a clamp ring and a top ring. The clamp ring is fixedly connected to the inner side of the bottom end of the bucket plate, and the top ring is located at the top end of the airbag. The bottom end of the clamp ring is opened with an annular sleeve, and the annular sleeve is in a socketed fit with the top end of the top ring.

[0015] As a further improvement of the technical solution, a filter plate for filtering the powder flowing upward is arranged at the inner end of the powder spraying cavity plate near the top.

[0016] As a further improvement of the technical solution, a bottom ring is provided on the side of the bottom end of the hopper-shaped plate. The cross-section of the bottom ring is a wedge-shaped structure, and the cross-sectional dimension of the bottom end of the bottom ring is smaller than that of the top end. The inclined surface of the bottom ring faces the center of the bottom ring. The middle part of the inner barrel is a trapezoidal structure, and a wedge-shaped gap is formed between the side surface of the inner barrel and the inner wall of the tank. A plurality of feed ports communicating with the inner ends of the powder collecting grooves are formed on the side surface of the inner barrel.

[0017] As a further improvement of the technical solution, connecting rods are provided on both sides of the top end of the hopper-shaped plate. A pair of sleeve rings are provided at the top position inside the tank, and the two sleeve rings are respectively in plug-in fit with the connecting rods at the corresponding positions.

[0018] The second object of the present invention is to provide a method for an energy-saving powder sticking device using processed squid slices, including the following method steps:

[0019] S1. Drive the lead screw to rotate through the servo motor, and the lead screw drives the cutting blade to rotate to slice the squid to be processed at the inner end of the opening.

[0020] S2. Drive the lead screw to rotate forward through the servo motor. At this time, the hopper-shaped plate vertically moves down along the inner wall of the tank and gradually approaches the air supply assembly. Apply a thrust to the air supply assembly through the position adjustment assembly to prompt the air supply assembly to supply air flow to the inner ends of each powder discharging assembly. The flowing air flow blows the powder at the inner end of the powder discharging assembly outward to the inner end of the opening, so that the blown powder evenly adheres to the surface of the cut squid slices.

[0021] S3. Drive the lead screw to rotate reversely through the servo motor. The hopper-shaped plate vertically moves up along the inner wall of the tank to reset. The air supply assembly loses the external force and will return to its original state, and draws air upward from the inner end of the powder discharging assembly, prompting an air flow flowing from bottom to top to be generated at the inner ends of each distribution assembly. The flowing air flow will guide part of the powder at the inner end of the powder collecting groove into the powder discharging assembly to complete the powder filling work.

[0022] S4. Repeat the operations of S1-S3 to cycle the powder spraying and powder supply work.

[0023] Compared with the prior art, the beneficial effects of the present invention:

[0024] 1. In the energy-saving powder sticking device for processing squid slices and the use method thereof, the bucket-shaped plate is driven to move up and down by the forward and reverse rotation of the screw rod. During the upward movement, an airflow flowing from bottom to top is generated at the inner end of each powder discharge component. Since the powder discharge component is connected to the powder collecting groove, the flowing airflow will guide part of the powder at the inner end of the powder collecting groove to enter the powder discharge component. During the downward movement, the flowing airflow blows the powder at the inner end of the powder discharge component outward to the inner end of the opening, so that the blown powder is evenly adhered to the surface of the cut squid slice, and the powder spraying and powder supplying work are cyclically performed, which not only ensures that the sprayed powder can be evenly sprayed on the surface of the squid slices in different areas, thereby improving the powder sticking effect, but also quantitatively extracts and sprays the powder, thereby improving the powder spraying utilization rate, and avoiding continuous spraying, which leads to excessive spraying of powder and affects the subsequent packaging work.

[0025] 2. In the energy-saving powder sticking device for processing squid slices and the method of use, the bottom ring is arranged to move up and down synchronously with the bucket plate, and the side away from the inclined surface is in contact with the inner wall of the tank body, so that the powder passing through the inner wall of the tank body is scraped off. The powder dropped after scraping will fall to the inner end of the wedge-shaped gap and fall to the inner end of the powder collecting trough through the feed port, completing the centralized cleaning of the powder, and guiding the scraped powder to the inner end of the powder collecting trough to carry out the subsequent powder spraying work again. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0027] Figure 2 It is a cross-sectional view of the overall structure of the present invention;

[0028] Figure 3 This is a schematic diagram of the overall structure of the present invention;

[0029] Figure 4 For the present invention Figure 3 A local enlarged view of point A;

[0030] Figure 5 The second schematic diagram of the overall structure of the present invention;

[0031] Figure 6 For the present invention Figure 5 A partial enlarged view of point B;

[0032] Figure 7 It is a cross-sectional view of the tank structure of the present invention;

[0033] Figure 8 It is a cross-sectional view of the bucket plate structure of the present invention;

[0034] Figure 9 For the present invention Figure 8 A partial enlarged view of point C;

[0035] Figure 10 Cross-sectional view of the inner barrel structure of the present invention;

[0036] Figure 11 of the present invention Figure 10 Partial enlarged view of the D position.

[0037] The meanings of each label in the figure are as follows:

[0038] 10. Tank body; 110. Servo motor; 111. Lead screw; 112. Cutting disc; 120. Hopper-shaped plate; 121. Internal thread; 122. Bottom ring; 123. Clamping ring; 130. Collar; 131. Connecting rod;

[0039] 20. Inner barrel; 210. Airbag; 211. Exhaust port; 212. Top ring; 220. Powder collection tank; 221. Inclined pipe; 230. Inner groove; 240. Powder spraying cavity plate; 241. Sprayer; 242. Filter plate; 250. Feed port;

[0040] 30. Collection barrel. Specific embodiments

[0041] 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 present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments in the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0042] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "transverse", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", etc. indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, and are 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 of the present invention.

[0043] Please refer to Figure 1As shown in the figure, one of the purposes of the present invention is to provide an energy-saving powder sticking device for squid slice processing, which includes a tank body 10, an inner barrel 20 arranged at the inner end of the tank body 10, and a collection barrel 30 arranged at the bottom end of the tank body 10. An opening for containing squid is provided at the top end of the inner barrel 20. A servo motor 110 is arranged at the top end of the tank body 10. The bottom end of the servo motor 110 is coaxially connected with a lead screw 111. The bottom end of the lead screw 111 is connected with a cutting blade 112. The cutting blade 112 extends into the inner end of the opening to slice or shred the squid. A powder collection groove 220 for powder loading is arranged on the inner side of the inner barrel 20. An inner groove 230 is arranged on the side of the top end of the inner barrel 20. An air supply component is arranged at the inner end of the inner groove 230. A plurality of powder discharging components are arranged in an array and communicated at the bottom end of the inner groove 230. One side of the powder discharging component is kept in communication with the inner end of the powder collection groove 220, and the other side is kept in communication with the inner end of the opening;

[0044] A hopper-shaped plate 120 is threadedly connected to the outside of the lead screw 111. An internal thread 121 is provided at the top end of the hopper-shaped plate 120. The side of the hopper-shaped plate 120 is attached to the inner wall of the tank body 10. An adjusting component is arranged between the bottom end of the hopper-shaped plate 120 and the top end of the air supply component;

[0045] During the forward rotation of the lead screw 111, the hopper-shaped plate 120 is driven to move downward, and the air supply component is extruded in cooperation with the adjusting component, and air flow is provided to the inside of the powder discharging component, driving the sticky powder contained therein to be ejected toward the inner end of the opening and evenly adhering to the surfaces of squid slices at different positions;

[0046] During the reverse rotation of the lead screw 111, the hopper-shaped plate 120 is driven to move upward, and the air supply component is reset, generating an air flow from top to bottom at the inner end of the inner groove 230. Through the conduction area between the powder discharging component and the powder collection groove 220, the adhesion contained at the inner end of the powder collection groove 220 is guided to the inner ends of each powder discharging component.

[0047] During specific use, during the processing of squid, as Figure 1 shown, first open the door plate on the side of the tank body 10, place the squid to be processed at the inner end of the opening provided at the top end of the inner barrel 20, and load the powder into the inner end of the powder collection groove 220;

[0048] In the initial state, the servo motor 110 drives the lead screw 111 to rotate, and the lead screw 111 drives the cutting blade 112 to rotate to slice the squid to be processed located at the inner end of the opening. During this process, first, the servo motor 110 drives the lead screw 111 to rotate forward. At this time, the hopper-shaped plate 120 vertically moves downward along the inner wall of the tank body 10 and gradually approaches the air supply component. The air supply component is pushed by the adjusting component, prompting the air supply component to supply air flow to the inner ends of each powder discharging component. This air flow will flow from the inner end of the powder discharging component to the inner end of the opening, dredging the channel between the powder discharging component and the opening;

[0049] Subsequently, the servo motor 110 drives the lead screw 111 to rotate reversely, the hopper-shaped plate 120 moves vertically upward along the inner wall of the tank body 10 to reset. The air supply assembly loses the external force and will return to its original state, and draws air upward from the inner end of the powder discharging assembly, prompting an airflow flowing from bottom to top to be generated at the inner end of each powder discharging assembly. Since the powder discharging assembly is communicated with the powder collecting tank 220, the flowing airflow will guide some of the powder at the inner end of the powder collecting tank 220 into the powder discharging assembly, completing the powder filling work.

[0050] Subsequently, the servo motor 110 drives the lead screw 111 to rotate forward again, and the hopper-shaped plate 120 moves downward to cooperate with the position adjusting assembly to press the air supply assembly, prompting an airflow flowing from top to bottom to be generated at the inner end of each powder discharging assembly. At this time, powder accumulates at the inner end of the powder discharging assembly, and the flowing airflow blows the powder at the inner end of the powder discharging assembly outward to the inner end of the opening, so that the blown powder evenly adheres to the surface of the cut squid slices. Subsequently, the servo motor 110 drives the lead screw 111 to rotate reversely again, sucking the powder at the inner end of the powder collecting tank 220 back into the inner end of each powder discharging assembly. Finally, the processed slices and shredded pieces are centrally collected and processed by the collecting bucket 30 at the bottom;

[0051] Repeat the operations of S1 - S3, and cycle the powder spraying and powder supply work, which not only ensures that the sprayed powder can be evenly sprayed on the surfaces of squid slices in different areas, improving the powder sticking effect, but also quantitatively extracts and sprays the powder amount, improving the utilization rate of powder spraying, and avoiding continuous spraying, resulting in excessive sprayed powder and affecting the subsequent packaging work.

[0052] In addition, the air supply assembly includes an airbag 210 and a plurality of exhaust ports 211 connected in communication at the bottom end of the airbag 210. The airbag 210 is arranged at the inner end position of the inner groove 230, and the top end of the airbag 210 protrudes outside the top end of the inner groove 230. Each exhaust port 211 is arranged in an array at the bottom end position of the airbag 210;

[0053] The powder discharging assembly includes a plurality of powder spraying cavity plates 240. Each powder spraying cavity plate 240 is respectively connected in communication at the bottom end of the corresponding exhaust port 211. One side of the powder spraying cavity plate 240 is connected in communication with a plurality of nozzles 241 at the inner end of the opening. A diagonal tube 221 is connected in communication between the other side of the powder spraying cavity plate 240 and the inner end of the powder collecting tank 220;

[0054] The diagonal tube 221 is obliquely connected between the powder spraying cavity plate 240 and the powder collecting tank 220, and the port of the diagonal tube 221 close to the powder spraying cavity plate 240 is higher than the port close to the powder collecting tank 220;

[0055] A one-way valve is provided at the inner end of each nozzle 241. During the process of the powder spraying chamber plate 240 sucking air inward, the channel between the closed opening and the powder spraying chamber plate 240 is closed. During the process of the powder spraying chamber plate 240 exhausting air outward, the channel between the open opening and the powder spraying chamber plate 240 is opened. A filter plate 242 for filtering the powder is provided at a position near the top of the inner end of the powder spraying chamber plate 240;

[0056] The position adjusting assembly includes a clamping ring 123 and a top ring 212. The clamping ring 123 is fixedly connected to the inner side of the bottom end of the funnel-shaped plate 120. The top ring 212 is located at the top end of the airbag 210. There is an annular socket at the bottom opening of the clamping ring 123, and the annular socket at the bottom of the clamping ring 123 is kept in socket fit with the top end of the top ring 212;

[0057] A filter plate 242 for filtering the upward flowing powder is provided at a position near the top of the inner end of the powder spraying chamber plate 240.

[0058] During the specific implementation process, as Figure 3 shown, when the lead screw 111 rotates forward, it will drive the funnel-shaped plate 120 and the clamping ring 123 to move downward synchronously. During this process, the annular socket at the bottom of the clamping ring 123 gradually contacts the top end of the top ring 212 until the two are socketed. At this time, when the clamping ring 123 continues to move, it will apply pressure to the airbag 210 through the top ring 212. As Figure 4 shown, it will be forced to compress downward along the inner end of the inner groove 230, and the gas accumulated at its inner end will be discharged into the inner ends of each exhaust port 211. Since the exhaust port 211 is in communication with the inner end of the powder spraying chamber plate 240, the discharged gas will rush into the inner end of the powder spraying chamber plate 240, and the gas and the powder stored at the inner end of the powder spraying chamber plate 240 will be blown into the inner end of the opening through a plurality of nozzles 241 provided on its side. Since each nozzle 241 is arrayed and conducted at the side position of the bottom end of the inner barrel 20, the blown powder will be evenly blown to the positions of the slices or shredded filaments in different regions and adhered to their surface positions;

[0059] It should be noted that since the inclined tube 221 is of an inclined structure and the port height at one end of the powder spraying chamber plate 240 is higher than the port height at one end of the powder collecting groove 220, during the process of exhausting air into the inner end of the powder spraying chamber plate 240 through the exhaust port 211, due to the height difference, most of the air flow will rush into the inner ends of each nozzle 241, and only a small part of the air flow will re-enter the inner end of the powder collecting groove 220 through the inclined tube 221, thereby reducing the powder reflux amount. The blown air flow will drive the powder stored at the inner end of the powder spraying chamber plate 240 into the inner ends of each nozzle 241, and be blown to each bottom region of the opening through the nozzles 241 to complete the powder sticking work with the slices or shredded filaments.

[0060] After completing one powder sticking work, as Figure 5As shown, the lead screw 111 rotates in the reverse direction under the action of the servo motor 110, driving the bucket-shaped plate 120 and the clamping ring 123 to gradually move away from the upper position of the airbag 210 until the clamping ring 123 disengages from the top of the top ring 212. At this time, the entire airbag 210 loses the external force and will reset upward. During this process, Figure 6 As shown, the contracted airbag 210 will extract the gas at the inner end of the powder spraying cavity plate 240 through each exhaust port 211, forming an upward flowing air current, and guiding the powder contained in the inner end of the powder collecting groove 220 into the inner end of the powder spraying cavity plate 240 through the inclined pipe 221 for secondary powder spraying work. At the same time, the powder follows the air current through the bottom end of the filter plate 242, and the filter plate 242 filters the powder carried in the air current, causing it to accumulate at the bottom end position of the filter plate 242, preventing the powder from flowing into the inner end of the airbag 210 along with the air current, resulting in the inability to completely discharge the accumulated powder during the subsequent exhaust process, which easily causes blockage of the port of the airbag 210;

[0061] It should be noted that since a one-way valve is provided at the inner end of the nozzle 241, during the air extraction process, the inner ends of each nozzle 241 are in a sealed state, thus preventing the air current at the inner end of the opening from flowing back into the inner end of the powder spraying cavity plate 240, resulting in the re-extraction of the powder that has already been adhered with powder into the inner end of the powder spraying cavity plate 240 and affecting the powder adhesion effect.

[0062] Furthermore, a bottom ring 122 is provided on the side of the bottom end of the bucket-shaped plate 120. The cross-section of the bottom ring 122 is a wedge-shaped structure, and the cross-sectional dimension of the bottom end of the bottom ring 122 is smaller than that of its top end. The inclined surface of the bottom ring 122 faces the center of the bottom ring 122. The middle position of the inner barrel 20 is a trapezoidal structure, and a wedge-shaped gap is formed between the side surface of the inner barrel 20 and the inner wall of the tank body 10. A plurality of feed ports 250 communicating with the inner end of the powder collecting groove 220 are provided on the side surface of the inner barrel 20;

[0063] During specific use, since during the cutting process, after the powder is mixed with the slices or shredded materials, under the agitation of the cutting blade 112, some of the powder will splash upward. Figure 2 As shown, at this time, the bucket-shaped plate 120 covering the top of the opening protects the upper position thereof, reducing the powder splash diffusion range. However, during this process, some of the powder will still splash and adhere to the moving area of the bucket-shaped plate 120 on the inner wall of the tank body 10, which will not only cause powder waste and inability to mix with the slices or shredded materials in time, but also affect the subsequent cleaning work;

[0064] To address the above problems, the provided bottom ring 122 moves up and down synchronously with the bucket-shaped plate 120. Since the bottom ring 122 is a wedge-shaped structure and its inclined surface is aligned with the center position of the bottom ring 122, the side away from the inclined surface is attached to the inner wall of the tank body 10, and during the synchronous downward movement of the bottom ring 122, the powder on the area of the inner wall of the tank body 10 passed through is scraped off.Figure 11 As shown, the scraped-off powder will fall to the inner end of the wedge-shaped gap and then through the feed port 250 into the inner end of the powder collecting tank 220, completing the centralized cleaning of the powder and guiding the scraped-off powder to the inner end of the powder collecting tank 220 for subsequent powder spraying work again.

[0065] Specifically, connecting rods 131 are arranged on both sides of the top end of the hopper-shaped plate 120, and a pair of collar rings 130 are arranged at the inner top position of the tank body 10. The two collar rings 130 are respectively in plug-in fit with the connecting rods 131 at the corresponding positions.

[0066] During specific use, by Figure 3 As shown, when the hopper-shaped plate 120 moves vertically up and down under the action of the lead screw 111, it will drive the connecting rod 131 to move synchronously. During this process, the top end of the connecting rod 131 will slide freely from the bottom end of the corresponding collar ring 130. The position of the hopper-shaped plate 120 is limited by the connecting rod 131 and the collar ring 130, enabling it to move vertically up and down in a stable state.

[0067] The second object of the present invention is to provide a method for an energy-saving powder sticking device using squid slices, including the following method steps:

[0068] S1. Drive the lead screw 111 to rotate through the servo motor 110, and the lead screw 111 drives the cutting blade 112 to rotate to slice the squid to be processed located at the inner end of the opening.

[0069] S2. Drive the lead screw 111 to rotate forward through the servo motor 110. At this time, the hopper-shaped plate 120 moves vertically downward along the inner wall of the tank body 10 and gradually approaches the air supply component. Apply a thrust to the air supply component through the position adjustment component to prompt the air supply component to supply air flow to the inner ends of each powder discharging component. The flowing air flow blows the powder at the inner ends of the powder discharging components outward to the inner end of the opening, so that the blown powder evenly adheres to the surface of the cut squid slices.

[0070] S3. Drive the lead screw 111 to rotate reversely through the servo motor 110. The hopper-shaped plate 120 moves vertically upward along the inner wall of the tank body 10 to reset. The air supply component loses the external force and will return to its original state, and draws air upward from the inner ends of the powder discharging components, prompting an air flow flowing from bottom to top to be generated at the inner ends of each distribution component. The flowing air flow will guide part of the powder at the inner end of the powder collecting tank 220 into the powder discharging components to complete the powder filling work.

[0071] S4. Repeat the operations of S1 - S3 to cyclically perform powder spraying and powder supply work.

[0072] The foregoing has shown and described the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments, and the above embodiments and the descriptions in the specification are only preferred examples of the present invention and are not used to limit the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements fall within the scope of the present invention claimed. The scope of the present invention claimed is defined by the appended claims and their equivalents.

Claims

1. An energy-saving gluing device for processing squid slices, comprising a tank body (10), an inner barrel (20) arranged at the inner end of the tank body (10), and a collection barrel (30) arranged at the bottom end of the tank body (10). An opening for containing squid is formed at the top end of the inner barrel (20). A servo motor (110) is arranged at the top end of the tank body (10). A lead screw (111) is coaxially connected to the bottom end of the servo motor (110). A cutting blade (112) is connected to the bottom end of the lead screw (111). The cutting blade (112) extends into the inner end of the opening to slice or shred the squid. It is characterized in that: An inner powder collecting groove (220) for powder storage is provided inside the inner barrel (20). An inner groove (230) is provided on the side of the top end of the inner barrel (20). An air supply assembly is provided at the inner end of the inner groove (230). A plurality of powder discharging assemblies are arranged in an array and conductively connected to the bottom end of the air supply assembly. One side of the powder discharging assembly is in communication with the inner end of the powder collecting groove (220), and the other side is in conduction with the inner end of the opening. A hopper-shaped plate (120) is threadedly connected to the outside of the lead screw (111). The side of the hopper-shaped plate (120) is attached to the inner wall of the tank body (10). An adjusting component is provided between the bottom end of the hopper-shaped plate (120) and the top end of the air supply assembly. During the forward rotation of the lead screw (111), the hopper-shaped plate (120) is driven to move downward, cooperating with the adjusting component to squeeze the air supply assembly and provide air flow into the powder discharging assembly, driving the sticky powder contained therein to spray out towards the inner end of the opening and evenly adhere to the surfaces of squid slices at different positions. During the reverse rotation of the lead screw (111), the hopper-shaped plate (120) is driven to move upward, and the air supply assembly resets, generating an air flow from top to bottom at the inner end of the inner groove (230). Through the conduction area between the powder discharging assembly and the powder collecting groove (220), the adhesion contained at the inner end of the powder collecting groove (220) is guided to the inner ends of each powder discharging assembly.

2. The energy-saving powder sticking device for squid slice processing according to claim 1, wherein: The air supply assembly includes an airbag (210) and a plurality of exhaust ports (211) connected in communication to the bottom end of the airbag (210). The airbag (210) is arranged at the inner end position of the inner groove (230), and the top end of the airbag (210) protrudes outside the top end of the inner groove (230). Each of the exhaust ports (211) is arranged in an array at the bottom end position of the airbag (210).

3. The energy-saving powder sticking device for squid slice processing according to claim 2, wherein: The powder discharging assembly includes a plurality of powder spraying cavity plates (240). Each of the powder spraying cavity plates (240) is respectively conductively connected to the bottom end of the exhaust port (211) at the corresponding position. One side of the powder spraying cavity plate (240) is conductively connected to a plurality of spray heads (241) at the inner end of the opening. The other side of the powder spraying cavity plate (240) is conductively connected to an inclined pipe (221) between the inner end of the powder collecting groove (220).

4. The energy-saving flour sticking device for squid slice processing according to claim 3, wherein: The inclined pipe (221) is inclined and connected between the powder spraying cavity plate (240) and the powder collecting groove (220), and the height of the port of the inclined pipe (221) close to the powder spraying cavity plate (240) is higher than the port close to the powder collecting groove (220).

5. The energy-saving powder sticking device for squid slice processing according to claim 3, wherein: A one-way valve is provided at the inner end of each of the spray heads (241). During the process of the powder spraying cavity plate (240) sucking air inward, the channel between the opening and the powder spraying cavity plate (240) is closed. During the process of the powder spraying cavity plate (240) exhausting air outward, the channel between the opening and the powder spraying cavity plate (240) is opened. A filter plate (242) for filtering powder is provided at a position close to the top inside the powder spraying cavity plate (240).

6. The energy-saving sticky powder device for squid slice processing according to claim 2, characterized in that: The position adjustment component includes a clamping ring (123) and a top ring (212). The clamping ring (123) is fixedly connected to the inner side of the bottom end of the hopper-shaped plate (120). The top ring (212) is located at the top end of the airbag (210). The bottom end of the clamping ring (123) has an annular socket opening, and the annular socket opening is in socket fit with the top end of the top ring (212).

7. The energy-saving sticky powder device for squid slice processing according to claim 5, wherein: A filter plate (242) for filtering the upward-flowing powder is arranged at a position near the top of the inner end of the powder spraying cavity plate (240).

8. The energy-saving powder sticking device for squid slice processing according to claim 6, characterized in that: A bottom ring (122) is arranged on the side of the bottom end of the hopper-shaped plate (120). The cross-section of the bottom ring (122) is a wedge-shaped structure, and the cross-sectional dimension of the bottom end of the bottom ring (122) is smaller than that of its top end. The inclined surface of the bottom ring (122) faces the center of the bottom ring (122). The middle part of the inner barrel (20) is a trapezoidal structure, and a wedge-shaped gap is formed between the side surface of the inner barrel (20) and the inner wall of the tank body (10). A plurality of feed ports (250) communicating with the inner end of the powder collecting groove (220) are arranged on the side surface of the inner barrel (20).

9. The energy-saving sticky powder device for squid slice processing according to claim 8, wherein: Connecting rods (131) are arranged on both sides of the top end of the hopper-shaped plate (120). A pair of sleeve rings (130) are arranged at the top inner position of the tank body (10). The two sleeve rings (130) are respectively in plug-in fit with the corresponding connecting rods (131).

10. A method for an energy-saving sticky powder device using squid slices processed as described in claim 1, characterized in that, It includes the following method steps: S1. Drive the lead screw (111) to rotate through the servo motor (110), and the lead screw (111) drives the cutting blade (112) to rotate to slice the squid to be processed located at the inner end of the opening. S2. Drive the lead screw (111) to rotate forward through the servo motor (110). At this time, the hopper-shaped plate (120) vertically moves down along the inner wall of the tank body (10) and gradually approaches the air supply component. Apply a thrust to the air supply component through the position adjustment component to prompt the air supply component to supply air flow to the inner ends of each powder discharging component. The flowing air flow blows the powder at the inner end of the powder discharging component outward to the inner end of the opening, so that the blown powder evenly adheres to the surface of the cut squid slices. S3. Drive the lead screw (111) to rotate reversely through the servo motor (110). The hopper-shaped plate (120) vertically moves up along the inner wall of the tank body (10) to reset. The air supply component loses the external force and is about to return to its original state, and draws air upward from the inner end of the powder discharging component, prompting an upward-flowing air flow to be generated at the inner ends of each distribution component. The flowing air flow will guide part of the powder at the inner end of the powder collecting groove (220) into the powder discharging component to complete the powder filling work. S4. Repeat the operations of S1 - S3 to cyclically perform the powder spraying and powder supply work.

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