Device for continuously cooling pipeline

Abstract

The utility model relates to the technical field of food processing, in particular to a pipeline continuous cooling device which comprises a supporting frame body, two first supporting rods are symmetrically arranged above the two sides of the supporting frame body, a second supporting rod is arranged below the first supporting rods, and a third supporting rod is arranged below the second supporting rod. A fourth supporting rod is arranged below the third supporting rod, a fifth supporting rod is arranged below the fourth supporting rod, and a first aluminum pipe and a second aluminum pipe are symmetrically arranged on the two side edges of the upper portions of the two first supporting rods. The first aluminum pipe, the second aluminum pipe, the third aluminum pipe, the fourth aluminum pipe, the fifth aluminum pipe, the sixth aluminum pipe, the seventh aluminum pipe, the eighth aluminum pipe, the ninth aluminum pipe and the tenth aluminum pipe are connected into a whole through the first connecting pipe and the second connecting pipe, so that the conveying length of oil and slag is increased; and in the conveying process, heat in the oil and the residues is absorbed through the ceramic inner container and discharged to the outside, so that the oil and the residues are fully cooled.

Description

Technical Field

[0001] The utility model relates to the technical field of food processing, in particular to a device for continuous cooling of pipelines. Background Art

[0002] Food oil residue refers to the solid residue separated from oil during food processing. In the food processing process, it is necessary to separate and fill the oil residue. When separating and filling the oil residue, the packaging bag will burst due to too high temperature, so it is necessary to cool the oil residue.

[0003] Common cooling devices only include the function of stirring and cooling, which can stir and cool the oil residue, but lack the function of continuous cooling and conveying. It is impossible to ensure that the oil and residue can be conveyed to the next process while cooling, and it is easy to require separate cooling and then convey the oil and residue to the next process, affecting the processing efficiency.

[0004] Therefore, aiming at the problem that the above-mentioned cooling device lacks the function of continuous cooling and conveying and cannot ensure that the oil and residue can be conveyed to the next process while cooling, it is urgently needed to be solved to improve the use scenario of the cooling device. Content of the Utility Model

[0005] In order to overcome the problem that common cooling devices lack the function of continuous cooling and conveying, cannot ensure that the oil and residue can be conveyed to the next process while cooling, and are prone to require separate cooling and then convey the oil and residue to the next process, affecting the processing efficiency.

[0006] The technical solution of the utility model is: a device for continuous cooling of pipelines, including a support frame body, two first support rods are symmetrically arranged above both sides of the support frame body, a second support rod is arranged below the first support rod, a third support rod is arranged below the second support rod, a fourth support rod is arranged below the third support rod, a fifth support rod is arranged below the fourth support rod, a first aluminum pipe and a second aluminum pipe are symmetrically arranged on both upper sides of the two first support rods, a third aluminum pipe and a fourth aluminum pipe are symmetrically arranged on both upper sides of the two second support rods, a fifth aluminum pipe and a sixth aluminum pipe are symmetrically arranged on both upper sides of the two third support rods, a seventh aluminum pipe and an eighth aluminum pipe are symmetrically arranged on both upper sides of the two fourth support rods, and a ninth aluminum pipe and a tenth aluminum pipe are symmetrically arranged on both upper sides of the two fifth support rods.

[0007] Preferably, the first aluminum pipe, the second aluminum pipe, the third aluminum pipe, the fourth aluminum pipe, the fifth aluminum pipe, the sixth aluminum pipe, the seventh aluminum pipe, the eighth aluminum pipe, the ninth aluminum pipe and the tenth aluminum pipe are connected to each other by setting a first connecting pipe and a second connecting pipe, so as to increase the conveying length of oil and slag. During the conveying process, the heat in the oil and slag is absorbed by the ceramic inner liner and discharged to the outside, so that the oil and slag are sufficiently cooled, so as to solve the problem that the common cooling device only includes the function of stirring and cooling, which can stir and cool the oil slag, but lacks the function of continuous cooling and conveying, and cannot ensure that the oil and slag can be conveyed to the next process while cooling, and it is easy to need to cool separately and then convey the oil and slag to the next process, affecting the processing efficiency.

[0008] Preferably, the first aluminum pipe and the second aluminum pipe are fixed to the first support rod through a limiting ring, the third aluminum pipe and the fourth aluminum pipe are fixed to the second support rod through a limiting ring, the fifth aluminum pipe and the sixth aluminum pipe are fixed to the third support rod through a limiting ring, the seventh aluminum pipe and the eighth aluminum pipe are fixed to the fourth support rod through a limiting ring, and the ninth aluminum pipe and the tenth aluminum pipe are fixed to the fifth support rod through a limiting ring. The positions of the first aluminum pipe, the second aluminum pipe, the third aluminum pipe, the fourth aluminum pipe, the fifth aluminum pipe, the sixth aluminum pipe, the seventh aluminum pipe, the eighth aluminum pipe, the ninth aluminum pipe and the tenth aluminum pipe are fixed through the limiting ring.

[0009] Preferably, one ends of the first aluminum pipe and the second aluminum pipe are welded through a first connecting pipe, one ends of the third aluminum pipe and the fourth aluminum pipe are welded through a first connecting pipe, one ends of the fifth aluminum pipe and the sixth aluminum pipe are welded through a first connecting pipe, one ends of the seventh aluminum pipe and the eighth aluminum pipe are welded through a first connecting pipe, and one ends of the ninth aluminum pipe and the tenth aluminum pipe are welded through a first connecting pipe. The first aluminum pipe is connected to the second aluminum pipe, the third aluminum pipe is connected to the fourth aluminum pipe, the fifth aluminum pipe is connected to the sixth aluminum pipe, the seventh aluminum pipe is connected to the eighth aluminum pipe, and the ninth aluminum pipe is connected to the tenth aluminum pipe through five first connecting pipes respectively.

[0010] Preferably, the other ends of the second aluminum pipe and the fourth aluminum pipe are welded through a second connecting pipe, the other ends of the third aluminum pipe and the fifth aluminum pipe are welded through a second connecting pipe, the other ends of the sixth aluminum pipe and the eighth aluminum pipe are welded through a second connecting pipe, and the other ends of the seventh aluminum pipe and the ninth aluminum pipe are welded through a second connecting pipe. The second aluminum pipe is connected to the fourth aluminum pipe, the third aluminum pipe is connected to the fifth aluminum pipe, the sixth aluminum pipe is connected to the eighth aluminum pipe, and the seventh aluminum pipe is connected to the ninth aluminum pipe through four second connecting pipes respectively.

[0011] Preferably, ceramic inner liners are arranged inside the first aluminum pipe, the second aluminum pipe, the third aluminum pipe, the fourth aluminum pipe, the fifth aluminum pipe, the sixth aluminum pipe, the seventh aluminum pipe, the eighth aluminum pipe, the ninth aluminum pipe and the tenth aluminum pipe. During the conveying process of oil and slag, the heat in the oil and slag is absorbed by the ceramic inner liner and discharged to the outside.

[0012] Preferably, an upper feed pipe is provided above the side of the first aluminum pipe, and the other end of the first aluminum pipe is connected to an upper solenoid valve pressure relief pipe. Oil and slag enter the interior of the first aluminum pipe through the upper feed pipe, and then enter the interior of the tenth aluminum pipe via the second aluminum pipe, the third aluminum pipe, the fourth aluminum pipe, the fifth aluminum pipe, the sixth aluminum pipe, the seventh aluminum pipe, the eighth aluminum pipe, and the ninth aluminum pipe.

[0013] Preferably, a lower material conveying pipe is provided below the side of the tenth aluminum pipe, and the other end of the tenth aluminum pipe is connected to a lower solenoid valve pressure relief pipe. Oil and slag are conveyed to the next process through the lower material conveying pipe on the tenth aluminum pipe.

[0014] Advantages of the present utility model:

[0015] 1. By providing the first connecting pipe and the second connecting pipe, the first aluminum pipe, the second aluminum pipe, the third aluminum pipe, the fourth aluminum pipe, the fifth aluminum pipe, the sixth aluminum pipe, the seventh aluminum pipe, the eighth aluminum pipe, the ninth aluminum pipe, and the tenth aluminum pipe are connected to each other to form an integrated body, thereby increasing the conveying length of oil and slag. During the conveying process, the heat in the oil and slag is absorbed by the ceramic inner liner and discharged to the outside, so that the oil and slag are sufficiently cooled, so as to solve the problem of common cooling devices that only include the function of stirring and cooling, can stir and cool the oil slag, but lack the function of continuous cooling and conveying, and cannot ensure that the oil and slag can be conveyed to the next process while being cooled, and it is easy to require separate cooling and then conveying the oil and slag to the next process, affecting the processing efficiency.

[0016] 2. Oil and slag enter the interior of the first aluminum pipe through the upper feed pipe, and then enter the interior of the tenth aluminum pipe via the second aluminum pipe, the third aluminum pipe, the fourth aluminum pipe, the fifth aluminum pipe, the sixth aluminum pipe, the seventh aluminum pipe, the eighth aluminum pipe, and the ninth aluminum pipe, thereby increasing the conveying length of oil and slag. During the conveying process, the heat in the oil and slag is absorbed by the ceramic inner liner and discharged to the outside, so that the oil and slag are sufficiently cooled, and finally conveyed to the next process through the lower material conveying pipe, realizing the function of continuous cooling and conveying. Description of the Drawings

[0017] Figure 1 Shown is a three-dimensional structural schematic diagram of a device for continuous cooling of pipes of the present utility model;

[0018] Figure 2 Shown is a three-dimensional structural schematic diagram of a support frame of a device for continuous cooling of pipes of the present utility model;

[0019] Figure 3 Shown is a three-dimensional structural schematic diagram of a pipe assembly of a device for continuous cooling of pipes of the present utility model;

[0020] Figure 4 Shown is a three-dimensional sectional structural schematic diagram of a device for continuous cooling of pipes of the present utility model.

[0021] In the figure: 1. Support frame body; 2. First support rod; 3. Second support rod; 4. Third support rod; 5. Fourth support rod; 6. Fifth support rod; 7. Limit ring; 8. First aluminum tube; 9. Second aluminum tube; 10. Third aluminum tube; 11. Fourth aluminum tube; 12. Fifth aluminum tube; 13. Sixth aluminum tube; 14. Seventh aluminum tube; 15. Eighth aluminum tube; 16. Ninth aluminum tube; 17. Tenth aluminum tube; 18. Upper feeding pipe; 19. Upper solenoid valve pressure relief pipe; 20. Lower material conveying pipe; 21. Lower solenoid valve pressure relief pipe; 22. First connecting pipe; 23. Second connecting pipe; 24. Ceramic inner liner. Specific embodiments

[0022] The present utility model will be further described below in conjunction with the accompanying drawings and embodiments.

[0023] Please refer to Figures 1-4 , the present utility model provides an embodiment: a device for continuous cooling of pipelines, including a support frame body 1, two first support rods 2 are symmetrically arranged above both sides of the support frame body 1, a second support rod 3 is arranged below the first support rod 2, a third support rod 4 is arranged below the second support rod 3, a fourth support rod 5 is arranged below the third support rod 4, a fifth support rod 6 is arranged below the fourth support rod 5, a first aluminum tube 8 and a second aluminum tube 9 are symmetrically arranged on both sides above the two first support rods 2, a third aluminum tube 10 and a fourth aluminum tube 11 are symmetrically arranged on both sides above the two second support rods 3, a fifth aluminum tube 12 and a sixth aluminum tube 13 are symmetrically arranged on both sides above the two third support rods 4, a seventh aluminum tube 14 and an eighth aluminum tube 15 are symmetrically arranged on both sides above the two fourth support rods 5, and a ninth aluminum tube 16 and a tenth aluminum tube 17 are symmetrically arranged on both sides above the two fifth support rods 6.

[0024] Please refer to Figures 1-4 , in this embodiment, the first aluminum tube 8 and the second aluminum tube 9 are fixed to the first support rod 2 through the limit ring 7, the third aluminum tube 10 and the fourth aluminum tube 11 are fixed to the second support rod 3 through the limit ring 7, the fifth aluminum tube 12 and the sixth aluminum tube 13 are fixed to the third support rod 4 through the limit ring 7, the seventh aluminum tube 14 and the eighth aluminum tube 15 are fixed to the fourth support rod 5 through the limit ring 7, the ninth aluminum tube 16 and the tenth aluminum tube 17 are fixed to the fifth support rod 6 through the limit ring 7, oil and slag enter the inside of the first aluminum tube 8 from the upper feeding pipe 18, and then enter the inside of the tenth aluminum tube 17 via the second aluminum tube 9, the third aluminum tube 10, the fourth aluminum tube 11, the fifth aluminum tube 12, the sixth aluminum tube 13, the seventh aluminum tube 14, the eighth aluminum tube 15 and the ninth aluminum tube 16, so as to increase the conveying length of the oil and slag. During the conveying process, the heat in the oil and slag is absorbed by the ceramic inner liner 24 and discharged to the outside, so that the oil and slag are sufficiently cooled, and finally are conveyed to the next process through the lower material conveying pipe 20, completing the work of continuous cooling and conveying.

[0025] Please refer to Figures 1-4 In this embodiment, one end of the first aluminum pipe 8 and the second aluminum pipe 9 is welded through the first connecting pipe 22, one end of the third aluminum pipe 10 and the fourth aluminum pipe 11 is welded through the first connecting pipe 22, one end of the fifth aluminum pipe 12 and the sixth aluminum pipe 13 is welded through the first connecting pipe 22, one end of the seventh aluminum pipe 14 and the eighth aluminum pipe 15 is welded through the first connecting pipe 22, one end of the ninth aluminum pipe 16 and the tenth aluminum pipe 17 is welded through the first connecting pipe 22, and the other ends of the second aluminum pipe 9 and the fourth aluminum pipe 11 are welded through the second connecting pipe 23. The other ends of the third aluminum pipe 10 and the fifth aluminum pipe 12 are welded through the second connecting pipe 23. The other ends of the sixth aluminum pipe 13 and the eighth aluminum pipe 15 are welded through the second connecting pipe 23. The other ends of the seventh aluminum pipe 14 and the ninth aluminum pipe 16 are welded through the second connecting pipe 23. Ceramic inner liners 24 are provided inside the first aluminum pipe 8, the second aluminum pipe 9, the third aluminum pipe 10, the fourth aluminum pipe 11, the fifth aluminum pipe 12, the sixth aluminum pipe 13, the seventh aluminum pipe 14, the eighth aluminum pipe 15, the ninth aluminum pipe 16, and the tenth aluminum pipe 17. An upper feeding pipe 18 is provided above the side of the first aluminum pipe 8. The other end of the first aluminum pipe 8 is connected to an upper solenoid valve pressure relief pipe 19. A lower feeding pipe 20 is provided below the side of the tenth aluminum pipe 17. The other end of the tenth aluminum pipe 17 is connected to a lower solenoid valve pressure relief pipe 21. Oil and slag enter the inside of the first aluminum pipe 8 from the upper feeding pipe 18, and then enter the inside of the tenth aluminum pipe 17 through the second aluminum pipe 9, the third aluminum pipe 10, the fourth aluminum pipe 11, the fifth aluminum pipe 12, the sixth aluminum pipe 13, the seventh aluminum pipe 14, the eighth aluminum pipe 15, and the ninth aluminum pipe 16, thereby increasing the conveying length of the oil and slag. During the conveying process, the ceramic inner liner 24 absorbs the heat in the oil and slag and discharges it to the outside, so that the oil and slag are sufficiently cooled. Finally, it is conveyed to the next process through the lower feeding pipe 20, realizing the function of continuous cooling and conveying, and preventing the problem of affecting the processing efficiency by separately cooling the oil and slag and then conveying them to the next process.

[0026] When working, oil and slag enter the inside of the first aluminum pipe 8 from the upper feeding pipe 18, and then enter the inside of the tenth aluminum pipe 17 through the second aluminum pipe 9, the third aluminum pipe 10, the fourth aluminum pipe 11, the fifth aluminum pipe 12, the sixth aluminum pipe 13, the seventh aluminum pipe 14, the eighth aluminum pipe 15, and the ninth aluminum pipe 16, thereby increasing the conveying length of the oil and slag. During the conveying process, the ceramic inner liner 24 absorbs the heat in the oil and slag and discharges it to the outside, so that the oil and slag are sufficiently cooled. Finally, it is conveyed to the next process through the lower feeding pipe 20, realizing the function of continuous cooling and conveying.

[0027] Through the above steps, by setting the first connecting pipe 22 and the second connecting pipe 23, the first aluminum pipe 8, the second aluminum pipe 9, the third aluminum pipe 10, the fourth aluminum pipe 11, the fifth aluminum pipe 12, the sixth aluminum pipe 13, the seventh aluminum pipe 14, the eighth aluminum pipe 15, the ninth aluminum pipe 16 and the tenth aluminum pipe 17 are connected to each other to form an integral body, thereby increasing the conveying length of oil and slag. During the conveying process, the heat in the oil and slag is absorbed by the ceramic inner liner 24 and discharged to the outside, so that the oil and slag are sufficiently cooled, so as to solve the problem of common cooling devices, which only include the function of stirring and cooling, can stir and cool the oil slag, but lack the function of continuous cooling and conveying, and cannot ensure that the oil and slag can be conveyed to the next process while being cooled, and it is easy to need to be cooled separately and then the oil and slag are conveyed to the next process, which affects the processing efficiency.

[0028] The embodiments of the present invention have been described in detail above in conjunction with the accompanying drawings. However, the present invention is not limited to the above embodiments, and various changes can be made without departing from the spirit of the present invention within the scope of knowledge possessed by those skilled in the art.

Claims

1. A device for continuous cooling of a pipeline, comprising a support frame (1), characterized in that: Two first support rods (2) are symmetrically arranged above both sides of the support frame (1); a second support rod (3) is arranged below the first support rod (2); a third support rod (4) is arranged below the second support rod (3); a fourth support rod (5) is arranged below the third support rod (4); a fifth support rod (6) is arranged below the fourth support rod (5); a first aluminum tube (8) and a second aluminum tube (9) are symmetrically arranged on both sides above the two first support rods (2); a third aluminum tube (10) and a fourth aluminum tube (11) are symmetrically arranged on both sides above the two second support rods (3); a fifth aluminum tube (12) and a sixth aluminum tube (13) are symmetrically arranged on both sides above the two third support rods (4); a seventh aluminum tube (14) and an eighth aluminum tube (15) are symmetrically arranged on both sides above the two fourth support rods (5); and a ninth aluminum tube (16) and a tenth aluminum tube (17) are symmetrically arranged on both sides above the two fifth support rods (6).

2. The device for continuous cooling of a pipeline according to claim 1, characterized in that: The first aluminum tube (8) and the second aluminum tube (9) are fixed to the first support rod (2) via a limiting ring (7), the third aluminum tube (10) and the fourth aluminum tube (11) are fixed to the second support rod (3) via a limiting ring (7), the fifth aluminum tube (12) and the sixth aluminum tube (13) are fixed to the third support rod (4) via a limiting ring (7), the seventh aluminum tube (14) and the eighth aluminum tube (15) are fixed to the fourth support rod (5) via a limiting ring (7), and the ninth aluminum tube (16) and the tenth aluminum tube (17) are fixed to the fifth support rod (6) via a limiting ring (7).

3. The device for continuous cooling of a pipeline according to claim 1, characterized in that: One end of the first aluminum tube (8) and the second aluminum tube (9) are welded through a first connecting tube (22), one end of the third aluminum tube (10) and the fourth aluminum tube (11) are welded through the first connecting tube (22), one end of the fifth aluminum tube (12) and the sixth aluminum tube (13) are welded through the first connecting tube (22), one end of the seventh aluminum tube (14) and the eighth aluminum tube (15) are welded through the first connecting tube (22), and one end of the ninth aluminum tube (16) and the tenth aluminum tube (17) are welded through the first connecting tube (22).

4. The device for continuous cooling of a pipeline according to claim 1, characterized in that: The other ends of the second aluminum tube (9) and the fourth aluminum tube (11) are welded via a second connecting tube (23), the other ends of the third aluminum tube (10) and the fifth aluminum tube (12) are welded via a second connecting tube (23), the other ends of the sixth aluminum tube (13) and the eighth aluminum tube (15) are welded via a second connecting tube (23), and the other ends of the seventh aluminum tube (14) and the ninth aluminum tube (16) are welded via a second connecting tube (23).

5. The device for continuous cooling of a pipeline according to claim 1, characterized in that: A ceramic liner (24) is provided inside each of the first aluminum tube (8), the second aluminum tube (9), the third aluminum tube (10), the fourth aluminum tube (11), the fifth aluminum tube (12), the sixth aluminum tube (13), the seventh aluminum tube (14), the eighth aluminum tube (15), the ninth aluminum tube (16), and the tenth aluminum tube (17).

6. The device for continuous cooling of a pipeline according to claim 1, characterized in that: An upper feeding pipe (18) is arranged above the side of the first aluminum tube (8), and the other end of the first aluminum tube (8) is connected to an upper electromagnetic valve pressure relief pipe (19).

7. The device for continuous cooling of a pipeline according to claim 1, characterized in that: A lower material delivery pipe (20) is arranged at the lower side of the tenth aluminum tube (17), and the other end of the tenth aluminum tube (17) is connected to a lower electromagnetic valve pressure relief pipe (21).

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