Rotary water cooling component
By designing a rotating water-cooling component, the problem of conflict between the water-cooling structure and the direction of egg cart movement was solved, enabling the water-cooling structure to rotate and ensuring the normal movement of the egg cart and control of the incubation environment temperature.
Patent Information
- Application Number
- CN202520344292.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-02-28
- Publication Date
- 2026-02-27
- Estimated Expiration
- 2035-02-28
AI Technical Summary
In aisle-type incubators, the installation direction of the water-cooling structure conflicts with the direction in which the egg cart is pushed, causing the egg cart to be unable to move normally.
The design incorporates rotating water-cooling components, including upright pipes, crossbeams, water-cooling pipes, anti-rotation structural components, and rotary joints. These components connect to the incubator in the alleyway via rotary joints, enabling the water-cooling pipes to rotate and preventing obstruction of the egg carts.
This ensures the water-cooled structure and the normal movement of the egg cart, guarantees that the airflow temperature is controlled within a reasonable range, and ensures that the incubation environment temperature for the eggs is suitable.
Smart Images

Figure CN223943521U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to water cooling part technical field, concretely is rotary water cooling part. BACKGROUND
[0002] A large number of lane type incubators (for hatching chicken, for hatching duck) are applied in hatching field, since lane machine is multistage hatching equipment, either once every 3 days is hatched, or once every 3 days is hatched again once every 4 days, so there are different embryo ages of eggs in the same box, utilize the heat production of old egg to heat the pre-stage egg, due to the reason of health and epidemic prevention, more important is the quality of poultry and the consideration of sale-determined production, the market demand of single-stage large box of all-in all-out is larger and larger.If the inventory of lane machine is reformed at low cost to achieve the same effect as single-stage large box of all-in all-out, lane machine and large box integration will save a lot of investment for hatching field and obtain good operating effect.
[0003] The key point of single-stage large box structure design is to set water cooling pipe (so-called B-grade water cooling) between egg trolley and egg trolley, the purpose is that each egg trolley releases a large amount of heat in the later hatching stage, airflow is heated when passing through each egg trolley, airflow temperature rises, if airflow passes through all egg trolleys, airflow temperature rises to an unbearable height, so water cooling pipe is added between egg trolleys, and the water temperature in the pipe is controllable, so that the airflow temperature is reduced to a reasonable range when passing through an egg trolley to ensure suitable egg surface temperature.
[0004] The installation direction of B-grade water cooling must be perpendicular to the airflow direction, but the pushing direction of lane machine (hatching chicken, hatching duck) egg trolley is parallel to the airflow direction, if fixed B-grade water cooling device is added, it will inevitably lead to that egg trolley cannot be pushed, which affects the normal use of the device. Therefore, the prior art needs to be improved. CONTENT OF THE UTILITY MODEL
[0005] The utility model aims at providing rotary water cooling part, solves the problem that egg trolley cannot be normally pushed after water cooling structure is added.
[0006] To achieve the above object, the utility model provides the following technical scheme: Rotating water cooling parts, including two symmetrical distribution's stand column pipe, two the upper and lower ends of stand column pipe all are fixedly connected with crossbeam, two crossbeam between common fixedly connected with water cooling pipe stand column, the inside fixedly connected with a plurality of evenly distributed water cooling pipe of water cooling pipe stand column, every two adjacent water cooling pipe's outside common fixedly connected with copper elbow, wherein two water cooling pipe's outside fixedly connected with right angle elbow, the upper end fixedly connected with copper pipe one of stand column pipe, the inside fixedly connected with copper pipe two of crossbeam below stand column pipe, the one end fixedly connected with copper pipe three of copper pipe two far from crossbeam, the one end fixedly connected with copper pipe four of copper pipe one close to stand column pipe, the lower end left part of crossbeam below stand column pipe is installed with support wheel, the left end fixedly connected with two upper and lower symmetry distribution's stop rotation structure spare of stand column pipe, the inside of stop rotation structure spare is provided with welding sleeve, the inside installed with swivel joint of welding sleeve, the nut is connected through screw thread between swivel joint and welding sleeve, the one end fixedly connected with short pipe two of copper pipe two far from copper pipe three, the one end fixedly connected with continuation pipe one of short pipe two far from copper pipe two, the inside fixedly connected with positioning sleeve of crossbeam.
[0007] Preferably, the outside of the crossbeam is fixedly connected with two pairs of symmetrically distributed windshields, the windshields are fixedly connected with the stand column pipes, when the egg car and the rotating water cooling part are both in the service position, a small gap is formed between the side plate of the egg car and the windshields, the wind resistance is large, therefore, when the airflow flows from the fan to the upper part of the egg car, it will not enter the interior of the egg car from the gap, but circulate along the preset path.
[0008] Preferably, a short pipe one is fixedly connected between the two right angle elbows on the right side of the water cooling pipe stand column, the one end of the copper pipe one far from the crossbeam is fixedly connected with the right angle elbow, and the right angle elbow can change the direction of the water flow.
[0009] Preferably, the copper pipe three is fixedly connected with the copper elbow, and the copper pipe four is fixedly connected with the stand column pipe, and the copper pipe three can transport cold water.
[0010] Preferably, a support foot is fixedly connected with the side of the crossbeam far from the stand column pipe, a gasket is fixedly connected between the support foot and the crossbeam, and the support foot can support the crossbeam.
[0011] Preferably, the continuation pipe one is fixedly connected with the welding sleeve below the stand column pipe, and the continuation pipe one is fixedly connected with the crossbeam, and the continuation pipe one can connect the welding sleeve and the copper pipe two.
[0012] Preferably, one end of the copper pipe four is fixedly connected with a connecting pipe two, the connecting pipe two is fixedly connected with a welding sleeve located above the column pipe, and the connecting pipe two can connect the copper pipe four and the welding sleeve.
[0013] Compared with the prior art, the utility model has the advantages that:
[0014] The utility model discloses a rotatable structure is arranged on the column pipe, and the rotatable structure is connected with the rotating joint, and the rotating joint is connected with the support wheel, and the support wheel is connected with the copper pipe four, and the copper pipe four is connected with the welding sleeve. BRIEF DESCRIPTION OF DRAWINGS
[0015] Figure 1 It is the overall structure perspective drawing of the utility model;
[0016] Figure 2 It is the perspective drawing of the utility model's Figure 1 ;
[0017] Figure 3 It is the A department structure enlarged view of the utility model's Figure 1 ;
[0018] Figure 4 It is the B department structure enlarged view of the utility model's Figure 1 ;
[0019] Figure 5 It is the C department structure enlarged view of the utility model's Figure 1 ;
[0020] Figure 6 It is the D department structure enlarged view of the utility model's Figure 2 ;
[0021] Figure 7 It is the E department structure enlarged view of the utility model's Figure 2 .
[0022] In the drawing: 1, copper elbow;2, water cooling pipe;3, short pipe one;4, short pipe two;5, right angle elbow;6, water cooling pipe column;7, column pipe;8, crossbeam;9, copper pipe one;10, copper pipe two;11, copper pipe three;12, copper pipe four;13, support wheel;14, welding sleeve;15, nut;16, connecting pipe one;17, rotation stop structure;18, positioning sleeve;19, connecting pipe two;20, support foot;21, wind shield;22, gasket;23, rotating joint. DETAILED DESCRIPTION
[0023] Clearly, the described embodiments are merely a part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments of the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of the present application.
[0024] Please refer to Figures 1-7 , the rotating water cooling part, including two symmetrical distribution of column pipe 7, the upper and lower ends of two column pipe 7 are fixedly connected with cross beam 8, two cross beams 8 are fixedly connected with water cooling pipe column 6 between them, the inside of water cooling pipe column 6 is fixedly connected with a plurality of evenly distributed water cooling pipe 2, water cooling pipe 2 is made of red copper material, and is not limited to red copper material, the outside of every two adjacent water cooling pipe 2 is fixedly connected with copper elbow 1, the outside of two water cooling pipe 2 is fixedly connected with right angle elbow 5, the upper end of column pipe 7 is fixedly connected with copper pipe one 9, the inside of cross beam 8 below column pipe 7 is fixedly connected with copper pipe two 10, the end of copper pipe two 10 away from cross beam 8 is fixedly connected with copper pipe three 11, the end of copper pipe one 9 close to column pipe 7 is fixedly connected with copper pipe four 12, the lower end left part of cross beam 8 below column pipe 7 is installed with support wheel 13, the left end of column pipe 7 is fixedly connected with two upper and lower symmetrical distribution of rotation stop structure 17, the inside of rotation stop structure 17 is provided with welding sleeve 14, welding sleeve 14 is installed with rotary joint 23 in the inside, nut 15 is connected between rotary joint 23 and welding sleeve 14 through screw thread, the end of short pipe two 4 away from copper pipe two 10 is fixedly connected with continuation pipe one 16, the inside of cross beam 8 is fixedly connected with positioning sleeve 18.
[0025] Please refer to Figures 1-7 , the outside of cross beam 8 is fixedly connected with two pairs of symmetrical distribution of wind shield 21, wind shield 21 is fixedly connected with column pipe 7, when the egg car and the rotating water cooling part are all in service position, the side plate of the egg car and the wind shield 21 form small gap, the wind resistance is large, therefore the airflow from the fan through the upper part of the egg car will not enter the inside of the egg car from the gap, but circulates according to the preset path, the two right angle elbows 5 between the right side of water cooling pipe column 6 are fixedly connected with short pipe one 3, the end of copper pipe one 9 away from cross beam 8 is fixedly connected with right angle elbow 5, right angle elbow 5 can change the direction of water flow, copper pipe three 11 is fixedly connected with copper elbow 1, copper pipe four 12 is fixedly connected with column pipe 7, copper pipe three 11 can transport cold water.
[0026] Please refer to Figures 1-7The support foot 20 is fixedly connected with the cross beam 8, and the gasket 22 is fixedly connected between the support foot 20 and the cross beam 8, so that the cross beam 8 can be supported by the support foot 20; the first connecting pipe 16 is fixedly connected with the welding sleeve 14 located below the column pipe 7, and the first connecting pipe 16 is fixedly connected with the cross beam 8, so that the welding sleeve 14 and the second copper pipe 10 can be connected by the first connecting pipe 16; one end of the fourth copper pipe 12 is fixedly connected with the second connecting pipe 19, and the second connecting pipe 19 is fixedly connected with the welding sleeve 14 located above the column pipe 7, so that the fourth copper pipe 12 and the welding sleeve 14 can be connected by the second connecting pipe 19.
[0027] In use, after the egg cart is pushed into the inside of the incubator, the water cooling pipe column 6 is pulled to drive the water cooling component to rotate as a whole, and the support wheel 13 can support the water cooling pipe column 6 during rotation; when the cross beam 8 rotates by 90°, the rotation is stopped, and then another egg cart can be pushed into the inside of the incubator.
[0028] During the working process of the water cooling component, cold water enters the inside of the second connecting pipe 19 through the rotating joint 23 located above the column pipe 7, enters the inside of the fourth copper pipe 12 through the second connecting pipe 19, and then enters the inside of the first copper pipe 9, so that the cold water is injected into the inside of the water cooling pipe 2; when the cold water flows in the inside of the water cooling pipe 2 and the copper elbow 1, the two egg carts can be cooled; the water flow after heat exchange enters the inside of the third copper pipe 11 through the first short pipe 3, enters the inside of the second short pipe 4 through the third copper pipe 11 and the second copper pipe 10, and then enters the inside of the rotating joint 23 located below the column pipe 7 through the first connecting pipe 16, and the water flow after heat exchange is discharged through the rotating joint 23.
[0029] Although the embodiments of the utility model have been shown and described, it can be understood by those skilled in the art that various changes, modifications, replacements and variations can be made to the embodiments without departing from the principles and spirits of the utility model, and the scope of the utility model is defined by the appended claims and their equivalents.
Claims
1. A rotating water cooled component comprising two symmetrically distributed column tubes (7), characterized in that: Two said column pipe (7) upper and lower ends are fixedly connected with cross beam (8), two said cross beam (8) between common fixedly connected with water cooling pipe column (6), the inside of water cooling pipe column (6) is fixedly connected with multiple evenly distributed water cooling pipe (2), every two adjacent water cooling pipe (2) outside common fixedly connected with copper elbow (1), wherein two water cooling pipe (2) outside fixedly connected with elbow (5), the upper end of column pipe (7) is fixedly connected with copper pipe one (9), the inside of cross beam (8) below column pipe (7) is fixedly connected with copper pipe two (10), the one end of copper pipe two (10) away from cross beam (8) is fixedly connected with copper pipe three (11), the one end of copper pipe one (9) close to column pipe (7) is fixedly connected with copper pipe four (12), the lower end left part of cross beam (8) below column pipe (7) is installed with support wheel (13), the left end of column pipe (7) is fixedly connected with two upper and lower symmetrical distribution's rotation stop structure (17), the inside of rotation stop structure (17) is provided with welding sleeve (14), the inside of welding sleeve (14) is installed with swivel joint (23), the nut (15) of screw connection is between swivel joint (23) and welding sleeve (14), the one end of copper pipe two (10) away from copper pipe three (11) is fixedly connected with short pipe two (4), the one end of short pipe two (4) away from copper pipe two (10) is fixedly connected with continuation pipe one (16), the inside of cross beam (8) is fixedly connected with positioning sleeve (18).
2. The rotating water cooled component of claim 1, wherein: The outside of cross beam (8) is fixedly connected with two pairs of symmetrical distribution's wind shield (21), wind shield (21) is fixedly connected with column pipe (7).
3. The rotating water cooled component of claim 1, wherein: The inside of cross beam (8) is fixedly connected with positioning sleeve (18).
4. The rotating water cooled component of claim 1, wherein: The outside of cross beam (8) is fixedly connected with two pairs of symmetrical distribution's wind shield (21), wind shield (21) is fixedly connected with column pipe (7).
5. The rotating water cooled component of claim 1, wherein: The one end of copper pipe four (12) is fixedly connected with continuation pipe two (19), and the welding sleeve (14) above column pipe (7) is fixedly connected with continuation pipe two (19).
6. The rotating water cooled component of claim 1, wherein: The one end of copper pipe four (12) is fixedly connected with continuation pipe two (19), and the welding sleeve (14) above column pipe (7) is fixedly connected with continuation pipe two (19).
7. The rotating water cooled component of claim 1, wherein: The one end of copper pipe four (12) is fixedly connected with continuation pipe two (19), and the welding sleeve (14) above column pipe (7) is fixedly connected with continuation pipe two (19).