A gas flow cutting pulverizer for processing chlorella pyrenoidosa

Abstract

The utility model relates to protein core chlorella cutting and crushing technical field especially is a kind of airflow cutting and crushing machine for protein core chlorella processing, including frame and base, the front side of frame is provided with base, the upper end left side of frame is fixedly connected with hopper, the upper end right side of frame is fixedly connected with cloth bag dust catcher, the right side of cloth bag dust catcher is connected with suction pump by pipeline, the upper end of base is installed with feeding assembly, filter assembly is installed in the inside of feeding hopper in feeding assembly. Through the cooperation between feeding hopper, pushing screw pipeline, driving motor, discharge port, hopper, the dry protein core chlorella can be fed from lower position to high hopper, effectively avoid the problem that due to hopper needing to be installed in the higher position of equipment, utilize self weight to flow to high-speed airflow position, cause the space of hopper cannot be made larger, and height is higher to cause specific feeding process is very inconvenient.

Description

Technical Field

[0001] This utility model relates to the field of cutting and pulverizing Chlorella proteoglycans, specifically an airflow cutting and pulverizing machine for processing Chlorella proteoglycans. Background Technology

[0002] Chlorella pyrenoidosa is a ubiquitous single-celled green alga belonging to the Chlorella genus of the Chlorophyta phylum. It is a spherical single-celled freshwater algae. Chlorella pyrenoidosa is rich in protein, vitamins, minerals, dietary fiber, nucleic acids and chlorophyll. In specific processing, it needs to be pulverized into fine powder using an air jet cutting pulverizer for subsequent processing.

[0003] However, in actual use, because the hopper needs to be installed at a high position on the equipment and use its own weight to flow to the high-speed airflow position, the space of the hopper cannot be made large, and the height makes the actual feeding process very inconvenient. In addition, the lack of primary filtration treatment before feeding Chlorella proteinensis can easily cause blockage in the airflow pipe. Utility Model Content

[0004] The purpose of this invention is to solve the problems of the device, which requires the hopper to be installed at a high position on the equipment and to flow to the high-speed airflow position by gravity, resulting in the inability to make the hopper space large and the high height making the feeding process very inconvenient. In addition, the lack of primary filtration treatment before feeding Chlorella pyrenoidosa easily causes blockage in the airflow pipe. Therefore, an airflow cutting and pulverizing machine for processing Chlorella pyrenoidosa is proposed.

[0005] To achieve the above objectives, this utility model provides the following technical solution:

[0006] Design an airflow cutting and pulverizing machine for processing Chlorella proteinensis, including a frame and a base. The base is provided on the front side of the frame. A hopper is fixedly connected to the upper left side of the frame. A bag filter is fixedly connected to the upper right side of the frame. An air pump is connected to the right side of the bag filter through a pipe. A feeding assembly is installed on the upper end of the base. A filter assembly is installed inside the feed hopper of the feeding assembly.

[0007] Preferably, the feeding assembly includes a pusher threaded pipe, the outer wall of which is fixedly connected to the vertical beam of the base, one end of which is fixedly connected to a drive motor, the output shaft of which is fixedly connected to the pusher thread inside the pusher threaded pipe, a feed hopper is fixedly connected above one end of the pusher threaded pipe, and a discharge port is fixedly connected below the other end of the pusher threaded pipe.

[0008] Preferably, the lower end of the hopper is fixedly connected to the material valve via a connecting pipe, and pressure regulating valves are installed on both the upper and lower sides of the left side interior of the frame.

[0009] Preferably, the right side of the pressure regulating valve is fixedly connected to the grinding disc via a gas pipeline, and the upper gas pipeline and the outlet of the material valve are connected via a Venturi feed pipe.

[0010] Preferably, the filter assembly includes a filter screen and a vibration motor. The filter screen is located inside the feed hopper. Supports are fixedly connected to the four upper corners and the center of the right side of the filter screen. Slide rods are fixedly connected to the outer ends of the supports at the four corners. The slide rods are slidably connected to the outer wall of the feed hopper. The lower right side of the support at the center of the right side is fixedly connected to the output shaft of a self-locking cylinder. The vibration motor is fixedly connected to the front side of the outer wall of the feed hopper.

[0011] Preferably, the upper end of the grinding disc is connected to a bag filter via a pipe, and the lower end of the bag filter is connected to a fine material collection box.

[0012] Preferably, the lower end of the grinding disc is connected to the coarse material collection box via a pipe and a valve, and a direct vibration generator is installed on the lower outer wall of the connecting pipe.

[0013] The airflow cutting and pulverizing machine for processing Chlorella proteinaceae proposed in this utility model has the following advantages:

[0014] By coordinating the feeding hopper, the pusher spiral pipe, the drive motor, the discharge port, and the hopper, dried Chlorella proteoglycans are fed into the feeding hopper. Then, the drive motor is started, which drives the pusher spiral inside the pusher spiral pipe (which is consistent with the pusher screw of the screw extruder in the existing technology) to rotate. This drives the dried Chlorella proteoglycans to move upward along the pusher spiral pipe and finally discharge it at the discharge port. This allows the dried Chlorella proteoglycans to be fed from a lower position to a higher hopper, effectively avoiding the problem that the hopper needs to be installed at a high position in the equipment and rely on its own weight to flow to the high-speed airflow position, which results in the hopper space not being large enough and the high height making the feeding process very inconvenient.

[0015] Through the coordination of the filter screen, discharge port, feed hopper, vibrating motor, and self-locking cylinder, when the dried Chlorella proteoglycans are fed into the feed hopper, the dried Chlorella proteoglycans need to pass through the primary filtration of the filter screen before entering the bottom space of the feed hopper. This prevents large-sized Chlorella proteoglycans from getting stuck in the pipes. The feed hopper is then conveyed to the discharge port by the pusher screw. During this process, the vibrating motor can drive the feed hopper and filter screen to vibrate as a whole, allowing the dried Chlorella proteoglycans on the filter screen to better pass through the holes in the filter screen and enter the bottom space of the feed hopper. After this batch is processed, the self-locking cylinder can be controlled to move the filter screen to the upper edge of the feed hopper, and then the large-sized Chlorella proteoglycans that are blocked on the surface can be cleaned off. This effectively avoids the problem of blockage in the airflow pipes caused by the lack of primary filtration before feeding Chlorella proteoglycans in existing technologies. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the front appearance structure of this utility model;

[0017] Figure 2 This is a schematic diagram of the left side appearance structure of this utility model;

[0018] Figure 3 This is a bottom view of the external structure of this utility model;

[0019] Figure 4 This is a schematic diagram of the main structure of this utility model;

[0020] Figure 5 This is a schematic diagram of the left-side structure of this utility model;

[0021] Figure 6 This utility model Figure 1 A schematic diagram of the structure at point I in the diagram.

[0022] In the diagram: 1. Frame, 2. Base, 3. Filter assembly, 301. Bracket, 302. Slide rod, 303. Filter screen, 304. Vibration motor, 305. Self-locking cylinder, 4. Feeding assembly, 401. Pushing threaded pipe, 402. Feed hopper, 403. Drive motor, 404. Discharge port, 5. Hopper, 6. Bag dust collector, 7. Air pump, 8. Fine material collection box, 9. Coarse material collection box, 10. Grinding disc, 11. Pressure regulating valve, 12. Material valve, 13. Connecting pipe, 14. Direct vibration generator, 15. Gas pipeline. Detailed Implementation

[0023] The present invention will be further described below with reference to the accompanying drawings:

[0024] See attached document Figure 1-6In this embodiment, an airflow cutting and pulverizing machine for processing Chlorella proteinensis includes a frame 1 and a base 2. The base 2 is located on the front side of the frame 1. A hopper 5 is fixedly connected to the upper left side of the frame 1, and a bag filter 6 is fixedly connected to the upper right side of the frame 1. The models of the bag filter 6 and the suction pump 7 are determined according to the specific application. The suction pump 7 is connected to the right side of the bag filter 6 through a pipe. A feeding assembly 4 is installed on the upper end of the base 2. A filter assembly 3 is installed inside the feed hopper 402 of the feeding assembly 4. The lower end of the hopper 5 is fixedly connected to the material valve 12 through a connecting pipe 13. Pressure regulating valves 11 are installed on both the upper and lower sides of the left side of the frame 1. The other side of the pressure regulating valve 11 is connected to... An external air pump is connected to regulate the airflow pressure and adjust the final airflow state at the grinding disc 10. The right side of the pressure regulating valve 11 is fixedly connected to the grinding disc 10 through the gas pipe 15. The model of the grinding disc 10 can be determined according to the specific application. The upper gas pipe 15 and the discharge port of the material valve 12 are connected through a venturi feeding pipe. The upper end of the grinding disc 10 is connected to the bag filter 6 through a pipe. The lower end of the grinding disc 10 is connected to the coarse material collection box 9 through a pipe and a valve. The lower end of the bag filter 6 is connected to the fine material collection box 8. A direct vibration generator 14 is installed on the lower outer wall of the connecting pipe 13. The model of the direct vibration generator 14 can be determined according to the specific application.

[0025] The feeding assembly 4 includes a pusher threaded pipe 401. The outer wall of the pusher threaded pipe 401 is fixedly connected to the vertical beam of the base 2. One end of the pusher threaded pipe 401 is fixedly connected to a drive motor 403. The model of the drive motor 403 can be determined according to the specific application. The output shaft of the drive motor 403 is fixedly connected to the pusher thread inside the pusher threaded pipe 401. A feed hopper 402 is fixedly connected above one end of the pusher threaded pipe 401, and a discharge port 404 is fixedly connected below the other end of the pusher threaded pipe 401.

[0026] See attached document Figure 1-6 In this embodiment, the filter assembly 3 includes a filter screen 303 and a vibration motor 304. The filter screen 303 is located inside the feed hopper 402. The mesh size of the filter screen 303 can be determined according to the specific application. The upper four corners and the center of the right side of the filter screen 303 are all fixedly connected to the brackets 301. The outer ends of the four corner brackets 301 are fixedly connected to the sliding rods 302. The sliding rods 302 are slidably connected to the outer wall of the feed hopper 402. The lower right side of the center bracket 301 is fixedly connected to the output shaft of the self-locking cylinder 305. The models of the self-locking cylinder 305 and the vibration motor 304 can be determined according to the specific application requirements. The vibration motor 304 is fixedly connected to the front side of the outer wall of the feed hopper 402.

[0027] Working principle:

[0028] When this Chlorella proteinensis processing airflow cutting pulverizer is needed, the dried Chlorella proteinensis is first put into the hopper 5, and then conveyed from the hopper 5 to the material valve 12 through the connecting pipe 13. The material valve 12 controls the specific discharge amount of Chlorella proteinensis material, and the connecting pipe 13 is driven by the direct vibration generator 14 to vibrate slightly to achieve smooth material feeding. Then, the purified air is pumped by an external air pump and the pressure is controlled by the pressure regulating valve 11, and then conveyed to the grinding disc 10 through the gas pipe 13. By controlling the air pressure injected into the gas pipes 13 at two positions, a high-speed airflow with different spirals is formed inside the grinding disc 10. At the same time, the gas pipe 13 on one side can blow the Chlorella proteinensis discharged from the material valve 12 into the interior of the grinding disc 10 at high speed.

[0029] High-speed airflow causes the individual Chlorella pyrenoidosa cells to rub and collide with each other, impacting the grinding blocks inside the grinding disc 10 to achieve the purpose of cutting and pulverizing. The Chlorella pyrenoidosa cells that meet the pulverization requirements can pass through the gaps in the grinding disc 10 and be transported to the bag filter 6 through the pipe above. The air pump 7 maintains a negative pressure state inside the bag filter 6 in real time, so that the Chlorella pyrenoidosa cells that meet the pulverization requirements (fineer) are blocked on the outer wall of the cloth belt in the bag filter 6, while the Chlorella pyrenoidosa cells that do not meet the pulverization requirements (coarser) are blocked. Chlorella is left in the grinding disc 10. After all the Chlorella proteinensis in this batch has been processed, the vacuum pump 7 is stopped, allowing the finer Chlorella proteinensis on the surface of the cloth to fall off and be collected in the fine material collection box 8. Then, the valve of the discharge pipe below the grinding disc 10 is opened, allowing the coarse material to be discharged from the discharge pipe below the grinding disc 10 into the coarse material collection box 9. This completes the cutting, crushing, and grading collection of Chlorella proteinensis. The above are the actual working processes of the existing technology, which are fully achievable and have practical significance.

[0030] In practical use, because the hopper needs to be installed at a high position on the equipment, relying on its own weight to flow to the high-speed airflow position, the space of the hopper cannot be made large enough, and the height makes the actual feeding process very inconvenient. Therefore, this design incorporates a feeding component 4. By feeding dried Chlorella proteoglycans into the feed hopper 402, and then starting the drive motor 403, the drive motor 403 can drive the pusher screw inside the pusher screw pipe 401 (which is consistent with the pusher screw of the screw extruder in the prior art) to rotate, thereby driving the dried Chlorella proteoglycans to move upward along the pusher screw pipe 401 and finally discharge at the discharge port 404. This allows the dried Chlorella proteoglycans to be fed from a lower position to a higher hopper 5, effectively avoiding the problem that the hopper needs to be installed at a high position on the equipment, relying on its own weight to flow to the high-speed airflow position, which limits the space of the hopper and makes the actual feeding process very inconvenient.

[0031] Furthermore, when the dried Chlorella proteoglycans are fed into the hopper 402, they need to pass through the primary filtration of the filter screen 303 before entering the bottom space of the hopper 402. This prevents large-sized Chlorella proteoglycans from getting stuck in the pipes. The hopper is then fed to the discharge port 404 by the pusher screw. During this process, the vibration motor 304 can drive the hopper 402 and the filter screen 303 to vibrate as a whole, allowing the dried Chlorella proteoglycans on the filter screen 303 to pass through the holes in the filter screen 303 and enter the bottom space of the hopper 402. After this batch is processed, the self-locking cylinder 305 can be controlled to move the filter screen 303 to the upper edge of the hopper 402, and then the large-sized Chlorella proteoglycans blocked on the surface can be cleaned off. This effectively avoids the problem of blockage in the airflow pipes caused by the lack of primary filtration before feeding Chlorella proteoglycans in the existing technology. Although the present invention has been illustrated and described with reference to preferred embodiments, those skilled in the art should understand that various changes in form and detail are possible within the scope of the claims.

Claims

1. An airflow cutting and pulverizing machine for processing Chlorella proteinensis, comprising a frame (1) and a base (2), wherein the base (2) is provided on the front side of the frame (1), characterized in that: A hopper (5) is fixed to the upper left side of the frame (1), and a bag filter (6) is fixed to the upper right side of the frame (1). An air pump (7) is connected to the right side of the bag filter (6) through a pipe. A feeding assembly (4) is installed at the upper end of the base (2). A filter assembly (3) is installed inside the feed hopper (402) of the feeding assembly (4).

2. The airflow cutting and pulverizing machine for processing Chlorella vulgaris according to claim 1, characterized in that: The feeding assembly (4) includes a pusher threaded pipe (401), the outer wall of which is fixedly connected to the vertical beam of the base (2), one end of which is fixedly connected to a drive motor (403), the output shaft of which is fixedly connected to the pusher thread inside the pusher threaded pipe (401), a feed hopper (402) is fixedly connected above one end of the pusher threaded pipe (401), and a discharge port (404) is fixedly connected below the other end of the pusher threaded pipe (401).

3. The airflow cutting and pulverizing mill for processing Chlorella proteinensis according to claim 1, characterized in that: The lower end of the hopper (5) is fixedly connected to the material valve (12) through the connecting pipe (13), and pressure regulating valves (11) are installed on both the upper and lower sides of the left side of the frame (1).

4. The airflow cutting and pulverizing mill for processing Chlorella proteinensis according to claim 3, characterized in that: The right side of the pressure regulating valve (11) is fixedly connected to the grinding disc (10) through a gas pipe (15), and the outlet of the gas pipe (15) and the material valve (12) above are connected through a venturi feeding pipe.

5. The airflow cutting and pulverizing mill for processing Chlorella vulgaris according to claim 1, characterized in that: The filter assembly (3) includes a filter screen (303) and a vibration motor (304). The filter screen (303) is located inside the feed hopper (402). The filter screen (303) is fixedly connected to the four corners of the upper end and the center of the right side of the filter screen (303). The outer ends of the four corner supports (301) are fixedly connected to the sliding rods (302). The sliding rods (302) are slidably connected to the outer wall of the feed hopper (402). The lower right side of the support (301) at the center of the right side is fixedly connected to the output shaft of the self-locking cylinder (305). The vibration motor (304) is fixedly connected to the front side of the outer wall of the feed hopper (402).

6. The airflow cutting and pulverizing mill for processing Chlorella proteinensis according to claim 4, characterized in that: The upper end of the grinding disc (10) is connected to the bag filter (6) through a pipe, and the lower end of the bag filter (6) is connected to the fine material collection box (8).

7. The airflow cutting and pulverizing mill for processing Chlorella proteinensis according to claim 6, characterized in that: The lower end of the grinding disc (10) is connected to the coarse material collection box (9) through a pipe and a valve, and a direct vibration generator (14) is installed on the lower part of the outer wall of the connecting pipe (13).

Images