Rapid cooling equipment for feed

Abstract

The utility model discloses rapid feed cooling equipment, which relates to the technical field of feed cooling machines and comprises a motor fixing frame and two transmission motors, the two transmission motors are respectively mounted on the upper wall surface of the motor fixing frame, and bearing plates are respectively mounted on two side surfaces of the motor fixing frame. A plurality of guide holes are formed in the two bearing plates respectively, a cooling structure is installed on the outer wall face of the motor fixing frame, connecting rods are installed on the outer end faces of the two transmission motors respectively, dewatering structures are installed on the outer wall faces of the two connecting rods, and auxiliary structures are installed on the inner wall faces of the two bearing plates. Two transmission motors drive a connecting rod to rotate, so that a dehydration vibration frame drives two dehydration rotating shafts to vibrate up and down around two bearing plates, feed vibrates along with a dehydration filter screen, and water attached to the feed drips into a drainage frame along the dehydration filter screen and enters a flow guide plate along the drainage frame; and finally, the wastewater is discharged into a wastewater recycling barrel through a flow guide plate to be recycled.

Description

Technical Field

[0001] The utility model relates to the technical field of feed coolers, in particular to a feed rapid cooling device. Background Art

[0002] Feed cooler makes pellets fully and evenly cooled. The machine adopts a unique slide valve mechanism to discharge materials. It runs smoothly and discharges smoothly. It adopts the counter-current cooling principle. The pellets are fully and evenly cooled. The machine adopts a unique slide valve mechanism to discharge materials. It runs smoothly and discharges smoothly. The temperature of the pellets after cooling is not higher than room temperature + 3-5℃. It has large output, good cooling effect, high degree of automation, low noise, and easy maintenance. It is widely used by advanced foreign countries and is an advanced replacement cooling equipment.

[0003] After the feed is produced, it contains moisture. This moisture adheres to the feed and is easy to freeze after being cooled by the cooling equipment. It is easy to freeze the pellet feed on the cooling equipment, resulting in lower and lower cooling efficiency and prolonged cooling efficiency. During the cooling process of the existing feed cooling equipment, the moisture adhered to the feed accumulates inside the feed cooling equipment, requiring the operator to stop the machine regularly for cleaning, reducing the cooling efficiency of the feed. The existing feed cooling equipment is easy to accumulate in the screen during cooling, which will cause the pellet feed near the edge of the screen to the cold air outlet to cool faster, while the internal feed will cool slower. Utility Model Content

[0004] The technical problem to be solved by the utility model is to provide a rapid cooling device for feed. After the feed is produced, it contains moisture. The moisture attached to the feed is easy to freeze after being cooled by the cooling device, and it is easy to freeze the granular feed on the cooling device, resulting in lower and lower cooling efficiency and prolonged cooling efficiency. During the cooling process of the existing feed cooling device, the moisture attached to the feed is accumulated inside the feed cooling device, requiring the operator to stop the device regularly for cleaning, thereby reducing the cooling efficiency of the feed. During cooling, the existing feed cooling device is easy to accumulate in the screen, which will cause the granular feed whose edge is closer to the cold air outlet to cool faster, while the internal feed cools slower.

[0005] In order to solve the above technical problems, the technical solution of the utility model is a feed rapid cooling device, comprising a motor fixing frame and two transmission motors, the two transmission motors are respectively installed on the upper wall surface of the motor fixing frame, the two side surfaces of the motor fixing frame are respectively installed with load-bearing plates, the two load-bearing plates are respectively opened with a plurality of guide holes, the outer wall surface of the motor fixing frame is installed with a cooling structure, the outer end surfaces of the two transmission motors are respectively installed with connecting rods, the outer wall surfaces of the two connecting rods are installed with a dehydration structure, and the inner wall surfaces of the two load-bearing plates are installed with an auxiliary structure.

[0006] As a further solution of the utility model: the cooling structure includes: two refrigerators, a number of air ducts, a wastewater recovery barrel and a feed recovery barrel; the two refrigerators are respectively installed on the outer wall surfaces of the two load-bearing plates, the several air ducts are respectively installed on the inner wall surfaces of the two refrigerators, and through a number of guide holes opened in the load-bearing plates, the wastewater recovery barrel is installed on the inner wall surfaces of the two load-bearing plates, and the feed recovery barrel is installed on the inner wall surfaces of the two load-bearing plates.

[0007] As a further solution of the utility model: the dehydration structure includes: a dehydration vibration frame, a dehydration filter, two dehydration shafts, a drainage frame and a guide plate; the dehydration vibration frame is hinged on the outer wall surface of the two connecting rods, the dehydration filter is installed on the inner wall surface of the dehydration vibration frame, the two dehydration shafts are respectively installed on the outer wall surface of the dehydration vibration frame, and are connected to two load-bearing plates, the drainage frame is installed on the inner wall surface of the two load-bearing plates, and corresponds to be directly below the dehydration vibration frame, and the guide plate is installed on the inner wall surface of the two load-bearing plates, and corresponds to be directly below the drainage frame.

[0008] As a further solution of the utility model: the auxiliary structure includes: an auxiliary vibration frame, a vibration motor, three filter fixing frames and three auxiliary filters; the auxiliary vibration frame is provided with a plurality of air guide holes and is installed on the inner wall surfaces of two load-bearing plates, the vibration motor is installed on the side wall surfaces of the auxiliary vibration frame, the three filter fixing frames are respectively installed on the inner wall surfaces of the auxiliary vibration frame, and the three auxiliary filters are respectively installed on the inner wall surfaces of the three filter fixing frames.

[0009] As a further solution of the utility model: feed guide plates are installed on the inner wall surfaces of the two load-bearing plates.

[0010] As a further solution of the utility model: an auxiliary handle is installed on the outer wall surface of the feed recovery bucket.

[0011] As a further solution of the utility model: a feed drainage plate is installed on the upper wall surface of the drainage rack.

[0012] As a further solution of the utility model: the filtering diameters of the three auxiliary filter screens are arranged from large to small from top to bottom.

[0013] As a further solution of the utility model: the two connecting rods are composed of a crank rocker, so that the dehydration vibration frame remains horizontal when the rocker rotates to the lowest point.

[0014] The utility model adopts the above technical solution, and has the following advantages compared with the prior art:

[0015] The two transmission motors drive the connecting rods to rotate, so that the dehydration vibration frame drives the two dehydration shafts to vibrate up and down around the two load-bearing plates. The feed vibrates along the dehydration filter, and the moisture attached to the feed drips into the drainage frame along the dehydration filter, and enters the guide plate along the drainage frame, and finally the wastewater is discharged into the wastewater recovery barrel through the guide plate for recycling and reuse, which solves the problem that the existing feed contains moisture after production, and the moisture attached to the feed is easy to freeze after being cooled by the cooling equipment, and the granular feed is easily frozen on the cooling equipment, resulting in lower and lower cooling efficiency and prolonged cooling efficiency. In the cooling process of the existing feed cooling equipment, the moisture attached to the feed accumulates inside the feed cooling equipment, requiring the operator to stop the machine regularly for cleaning, thereby reducing the feed cooling efficiency.

[0016] The filter apertures of the three auxiliary filters are arranged in descending order from top to bottom, so that after the feed enters the upper auxiliary filter, it can fall evenly into the middle and lower auxiliary filters under the action of the vibration motor, preventing the feed from accumulating on the upper auxiliary filter and causing filter blockage. At the same time, the gap between the feeds is increased during the falling process, thereby improving the heat dissipation efficiency, thus solving the problem that the existing feed cooling equipment is easy to accumulate in the screen during cooling, which will cause the granular feed near the edge of the screen to be cooled faster, while the internal feed is cooled slower. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 This is a structural schematic diagram of a feed rapid cooling device in an embodiment of the utility model;

[0018] Figure 2 This is a schematic diagram of a cooling structure of a feed rapid cooling device in an embodiment of the utility model;

[0019] Figure 3 This is a schematic diagram of a dehydration structure of a feed rapid cooling device in an embodiment of the utility model;

[0020] Figure 4 This is a partial enlarged view of A in a schematic diagram of a dehydration structure of a feed rapid cooling device in an embodiment of the utility model;

[0021] Figure 5 This is a schematic diagram of the auxiliary structure of a feed rapid cooling device in an embodiment of the utility model.

[0022] In the figure: 1. Motor fixing frame; 2. Transmission motor; 3. Load-bearing plate; 4. Connecting rod; 5. Refrigerator; 6. Air guide tube; 7. Wastewater recovery barrel; 8. Feed recovery barrel; 9. Dehydration vibration frame; 10. Dehydration filter; 11. Dehydration shaft; 12. Drainage frame; 13. Guide plate; 14. Auxiliary vibration frame; 15. Vibration motor; 16. Filter fixing frame; 17. Auxiliary filter; 18. Feed guide plate; 19. Auxiliary handle; 20. Feed drainage plate. DETAILED DESCRIPTION

[0023] The specific implementation methods of the present invention are further described below in conjunction with the accompanying drawings. It should be noted that the description of these implementation methods is used to help understand the present invention, but does not constitute a limitation of the present invention. In addition, the technical features involved in each implementation method of the present invention described below can be combined with each other as long as they do not conflict with each other. Example 1

[0024] See also Figure 1-Figure 4 A feed rapid cooling device comprises a motor fixing frame 1 and two transmission motors 2, the two transmission motors 2 are respectively mounted on the upper wall of the motor fixing frame 1, load-bearing plates 3 are respectively mounted on the two side surfaces of the motor fixing frame 1, the two load-bearing plates 3 are respectively opened with a plurality of guide holes, a cooling structure is mounted on the outer wall surface of the motor fixing frame 1, connecting rods 4 are respectively mounted on the outer end surfaces of the two transmission motors 2, a dehydration structure is mounted on the outer wall surfaces of the two connecting rods 4, and an auxiliary structure is mounted on the inner wall surfaces of the two load-bearing plates 3.

[0025] See also Figure 2 The cooling structure includes: two refrigerators 5, a number of air ducts 6, a wastewater recovery barrel 7 and a feed recovery barrel 8; the two refrigerators 5 are respectively installed on the outer wall surfaces of the two load-bearing plates 3, the several air ducts 6 are respectively installed on the inner wall surfaces of the two refrigerators 5, and through a number of guide holes opened in the load-bearing plates 3, the wastewater recovery barrel 7 is installed on the inner wall surfaces of the two load-bearing plates 3, and the feed recovery barrel 8 is installed on the inner wall surfaces of the two load-bearing plates 3.

[0026] See also Figure 3 The dehydration structure includes: a dehydration vibration frame 9, a dehydration filter 10, two dehydration shafts 11, a drainage frame 12 and a guide plate 13; the dehydration vibration frame 9 is hinged on the outer wall surface of the two connecting rods 4, the dehydration filter 10 is installed on the inner wall surface of the dehydration vibration frame 9, the two dehydration shafts 11 are respectively installed on the outer wall surface of the dehydration vibration frame 9, and are connected to the two load-bearing plates 3, the drainage frame 12 is installed on the inner wall surface of the two load-bearing plates 3, and corresponds to the bottom of the dehydration vibration frame 9, and the guide plate 13 is installed on the inner wall surface of the two load-bearing plates 3, and corresponds to the bottom of the drainage frame 12.

[0027] See also Figure 4 The two connecting rods 4 are composed of a crank rocker, so that the dehydration vibration frame 9 remains horizontal when the rocker rotates to the lowest point. In this embodiment, the dehydration vibration frame 9 remains horizontal when the rocker rotates to the lowest point, so that the feed can move forward along the dehydration vibration frame 9 when the dehydration vibration frame 9 vibrates.

[0028] In this embodiment, two transmission motors 2 drive the connecting rod 4 to rotate, so that the dehydration vibration frame 9 drives the two dehydration shafts 11 to vibrate up and down around the two load-bearing plates 3, and the feed vibrates along the dehydration filter 10. The moisture attached to the feed drips along the dehydration filter 10 into the drainage frame 12, and enters the guide plate 13 along the drainage frame 12, and finally the wastewater is discharged into the wastewater recovery barrel 7 through the guide plate 13 for recycling and reuse.

[0029] Specifically, the operator starts two transmission motors 2, and the two transmission motors 2 respectively drive the connecting rod 4 to rotate, and the connecting rod 4 drives the dehydration vibration frame 9 to vibrate up and down around the two load-bearing plates 3 through the two dehydration shafts 11, and the dehydration filter 10 follows the vibration. At this time, the operator pours the feed on the dehydration filter 10, and the feed follows the vibration of the dehydration filter 10 and falls on the feed drainage plate 20 along the dehydration vibration frame 9. During this period, due to the vibration of the feed, the moisture attached to the feed drips along the dehydration filter 10 into the drainage frame 12, and enters the guide plate 13 along the drainage frame 12, and finally the wastewater is discharged into the wastewater recovery barrel 7 through the guide plate 13 for recycling and reuse. Example 2

[0030] See also Figure 5 The auxiliary structure includes: an auxiliary vibration frame 14, a vibration motor 15, three filter fixing frames 16 and three auxiliary filters 17; the auxiliary vibration frame 14 is provided with a plurality of air guide holes and is installed on the inner wall surfaces of the two load-bearing plates 3, the vibration motor 15 is installed on the side wall surface of the auxiliary vibration frame 14, the three filter fixing frames 16 are respectively installed on the inner wall surfaces of the auxiliary vibration frame 14, and the three auxiliary filters 17 are respectively installed on the inner wall surfaces of the three filter fixing frames 16.

[0031] See also Figure 1 , the inner wall surfaces of the two load-bearing plates 3 are provided with feed guide plates 18, in this embodiment, through.

[0032] See also Figure 2 An auxiliary handle 19 is installed on the outer wall of the feed recovery bucket 8. In this embodiment, through.

[0033] See also Figure 3 , a feed drainage plate 20 is installed on the upper wall of the drainage frame 12. In this embodiment, through.

[0034] See also Figure 5 The filter apertures of the three auxiliary filters 17 are arranged from large to small from top to bottom. In this embodiment, the filter apertures of the three auxiliary filters 17 are arranged from large to small from top to bottom, so that after the feed enters the upper auxiliary filter 17, it can fall evenly on the middle and lower auxiliary filter screens 17 under the action of the vibration motor 15, preventing the feed from accumulating on the upper auxiliary filter 17 and causing the filter screen to be blocked. At the same time, the gap between the feeds is increased during the falling process, thereby improving the heat dissipation efficiency.

[0035] In this embodiment, the auxiliary vibration frame 14 is driven to vibrate by the vibration motor 15. After filtering the water, the feed first enters the upper auxiliary filter 17 along the auxiliary vibration frame 14 through the feed guide plate 18. Under the vibration of the vibration motor 15, the feed moves evenly along the upper auxiliary filter 17 and falls on the middle auxiliary filter 17. Finally, it passes through the lower auxiliary filter 17 and enters the feed recovery bucket 8 after cooling.

[0036] Specifically, the vibration motor 15 drives the auxiliary vibration frame 14 to vibrate, and the auxiliary vibration frame 14 drives the three auxiliary filter screens 17 to vibrate. At the same time, the two refrigerators 5 discharge the cold air through the plurality of air guide tubes 6. The plurality of air guide tubes 6 are aimed at the auxiliary vibration frame 14 to blow the cold air into the plurality of air guide holes opened on the auxiliary vibration frame 14. After filtering the water, the feed first enters the upper auxiliary filter screen 17 along the auxiliary vibration frame 14 through the feed guide plate 18. Under the vibration of the vibration motor 15, the feed moves evenly along the upper auxiliary filter screen 17 and falls on the middle auxiliary filter screen 17. Finally, it passes through the lower auxiliary filter screen 17 and is cooled before entering the feed recovery barrel 8. The filtering calibers of the three auxiliary filter screens 17 are arranged from large to small from top to bottom, so that after the feed enters the upper auxiliary filter screen 17, it can fall evenly in the middle and lower auxiliary filter screens 17 under the action of the vibration motor 15, so as to prevent the feed from accumulating on the upper auxiliary filter screen 17 and causing the filter screen to be blocked. At the same time, the gap between the feeds is increased during the falling process, so as to improve the heat dissipation efficiency.

[0037] The embodiments of the present invention are described in detail above with reference to the accompanying drawings, but the present invention is not limited to the described embodiments. For those skilled in the art, various changes, modifications, substitutions and variations of these embodiments are made without departing from the principles and spirit of the present invention, and still fall within the scope of protection of the present invention.

Claims

1. A feed rapid cooling device, comprising a motor fixing frame (1) and two transmission motors (2), characterized in that: The two transmission motors (2) are respectively mounted on the upper wall surface of the motor fixing frame (1); the two side surfaces of the motor fixing frame (1) are respectively mounted with load-bearing plates (3); the two load-bearing plates (3) are respectively provided with a plurality of guide holes; the outer wall surface of the motor fixing frame (1) is mounted with a cooling structure; the outer end surfaces of the two transmission motors (2) are respectively mounted with connecting rods (4); the outer wall surfaces of the two connecting rods (4) are mounted with a dehydration structure; and the inner wall surfaces of the two load-bearing plates (3) are mounted with an auxiliary structure.

2. A feed rapid cooling device according to claim 1, characterized in that: The cooling structure comprises: two refrigerators (5), a plurality of air guide tubes (6), a wastewater recovery bucket (7) and a feed recovery bucket (8); The two refrigerators (5) are respectively mounted on the outer wall surfaces of the two bearing plates (3); the plurality of air guide tubes (6) are respectively mounted on the inner wall surfaces of the two refrigerators (5) and pass through the plurality of guide holes opened in the bearing plates (3); the wastewater recovery barrel (7) is mounted on the inner wall surfaces of the two bearing plates (3); and the feed recovery barrel (8) is mounted on the inner wall surfaces of the two bearing plates (3).

3. A feed rapid cooling device according to claim 1, characterized in that: The dehydration structure comprises: a dehydration vibration frame (9), a dehydration filter (10), two dehydration rotating shafts (11), a drainage frame (12) and a guide plate (13); The dehydration vibration frame (9) is hinged on the outer wall surface of the two connecting rods (4), the dehydration filter (10) is installed on the inner wall surface of the dehydration vibration frame (9), the two dehydration shafts (11) are respectively installed on the outer wall surface of the dehydration vibration frame (9) and connected to the two bearing plates (3), the drainage frame (12) is installed on the inner wall surface of the two bearing plates (3) and corresponds to the bottom of the dehydration vibration frame (9), and the guide plate (13) is installed on the inner wall surface of the two bearing plates (3) and corresponds to the bottom of the drainage frame (12).

4. A feed rapid cooling device according to claim 1, characterized in that: The auxiliary structure comprises: an auxiliary vibration frame (14), a vibration motor (15), three filter screen fixing frames (16) and three auxiliary filter screens (17); The auxiliary vibration frame (14) is provided with a plurality of air guide holes and is mounted on the inner wall surfaces of the two load-bearing plates (3); the vibration motor (15) is mounted on the side wall surface of the auxiliary vibration frame (14); the three filter screen fixing frames (16) are respectively mounted on the inner wall surfaces of the auxiliary vibration frame (14); and the three auxiliary filter screens (17) are respectively mounted on the inner wall surfaces of the three filter screen fixing frames (16).

5. A feed rapid cooling device according to claim 1, characterized in that: Feed guide plates (18) are installed on the inner wall surfaces of the two load-bearing plates (3).

6. A feed rapid cooling device according to claim 2, characterized in that: An auxiliary handle (19) is installed on the outer wall surface of the feed recovery bucket (8).

7. A feed rapid cooling device according to claim 3, characterized in that: A feed drainage plate (20) is installed on the upper wall surface of the drainage frame (12).

8. A feed rapid cooling device according to claim 4, characterized in that: The filtering calibers of the three auxiliary filter screens (17) are arranged in descending order from top to bottom.

9. A feed rapid cooling device according to claim 3, characterized in that: The two connecting rods (4) are composed of crank rockers, so that the dehydration vibration frame (9) remains horizontal when the rockers rotate to the lowest point.

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