Intelligent breeding equipment based on energy management system

Abstract

The invention provides intelligent breeding equipment based on an energy management system. A circular ring penetrates through the lower end of the middle of a water tank, a sliding column slidably penetrates through the circular ring, a protruding strip is slidably connected to the lower end of the sliding column, a connecting frame is arranged at the lower end of the protruding strip, the two sides of the connecting frame penetrate through the interior of a feed tank, and a fixing ring surrounds the outer side of the connecting frame; the circular rings are vertically arranged, the sliding columns extend to the outer sides of the circular rings, the side faces of the sliding columns are in a T shape, residues are filtered through the filter screen, clear water enters the backflow groove, and the clear water flows back into the water tank again through the holes. According to the breeding equipment, residues on the clean water surface of the water tank can be cleaned while feed is mixed, the situation that part of feed residues float at the upper end of the interior of the water tank after livestock eat water through the water tank after the livestock eat the feed through the feed tank is avoided, and then the effect of cleaning the feed residues in the water tank regularly is achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of animal husbandry, and particularly to a smart breeding device based on an energy management system. Background Art

[0002] The electricity consumption in existing farming and breeding parks is not managed in detail. Only by effectively collecting and managing the electricity consumption in the park can the park management be precise and lay a foundation for reducing electricity consumption in the park. Traditional farming and breeding parks rely on manual labor and experience for water and electricity management, resulting in extensive management of electricity. On the one hand, it is a waste, and on the other hand, it is pollution. With the support of relatively mature Internet of Things and cloud computing technologies currently, an energy management system is introduced into farming and breeding parks to build the management foundation of a smart breeding park. Currently, in the prior art, CN202411798354.5, a smart digital breeding farm, discloses a breeding farm. In this invention, the breeding floor is provided with meshes communicating with a collection box. One side of the collection box away from the feed dispenser is fixedly connected with a surplus feed recycling structure through a connecting frame. A dung pushing structure, a dung cleaning component for cleaning feces, and a reverse lifting structure for controlling the height of the dung pushing structure and the dung cleaning component are arranged in the collection box. When one of the protective shells moves along the direction close to the cable winch, the height of the dung pushing structure and the dung cleaning component rises. Thus, when it is necessary to clean feces during the normal breeding of sheep, the feces can be cleaned without driving the sheep out of the breeding farm. Combined with the prior art and the comparative document, it can be known that during the feed feeding process of smart breeding equipment, since the feed is usually granular, it is easy to have different particle sizes, resulting in the inability of the smart breeding equipment to form a mixture of feeds during the feeding process. After the feed accumulates in the feeding trough, particle stratification of the feed occurs. At the same time, during the feeding process, livestock need to be fed with clean water. After the livestock drink the clean water, feed residues are likely to float on the upper end of the clean water, resulting in the inability of the smart breeding equipment to clean the floating residues on the surface of the clean water while forming a mixture of feeds. The present invention can mainly solve the problem that the smart breeding equipment cannot clean the floating residues on the surface of the clean water while forming a mixture of feeds. Summary of the Invention

[0003] To solve the above technical problems, the present invention provides a smart breeding device based on an energy management system to solve the problems described in the above background art.

[0004] The purpose and efficacy of a smart breeding device based on an energy management system of the present invention are achieved by the following specific technical means: A smart breeding device based on an energy management system includes a feed trough. One side of the feed trough is provided with a transmission pipe. Inside the transmission pipe is a motor. One end of the motor close to the feed trough is rotationally docked with a screw conveyor. One side of the upper end of the feed trough is equipped with a water trough, and one side of the upper end of the water trough is provided with a faucet.

[0005] The feed trough is arranged horizontally and placed on the ground. The motor is connected to the power supply circuit through a power cord, and the screw conveyor rotates horizontally inside the feed trough.

[0006] Furthermore, the motor uses Internet of Things technology to accurately collect power data.

[0007] Furthermore, there are holes penetrating through the upper side of one side of the water trough.

[0008] Furthermore, one end of the faucet is connected to the water source through a water pipe, and an electric valve is installed at the upper end of the faucet. The electric valve is connected to the control panel circuit through an electric wire.

[0009] Furthermore, a circular ring penetrates through the lower end of the middle part of the water trough. A sliding column slides through the inside of the circular ring. The lower end of the sliding column is slidably connected to a protruding strip. The lower end of the protruding strip is provided with a connecting frame. Both sides of the connecting frame penetrate through the inside of the feed trough. A fixing ring is wound around the outside of the connecting frame, and a vertical column is provided at the lower end of the fixing ring.

[0010] Furthermore, the circular rings are arranged vertically. The sliding column extends to the outside of the circular ring, and the side surface of the sliding column is in a "T" shape.

[0011] Furthermore, the side surface of the sliding column is in a "T" shape. When the sliding column is in a static state, the sliding column is clamped at the upper end of the circular ring.

[0012] Furthermore, the protruding strip is located below the circular ring. The connecting frame is used in combination with the protruding strip. The connecting frame is arranged horizontally as a whole, and the connecting frame is vertically corresponding to the screw conveyor.

[0013] Furthermore, a chute is opened on the outside of the vertical column. The chutes are arranged vertically. There are multiple vertical columns arranged horizontally, and the vertical columns are vertically corresponding to the screw conveyor.

[0014] Furthermore, two ends inside the chute of the vertical column are slidably connected with sliders, and blades are inlaid between the sliders.

[0015] Furthermore, every two sliders form a group. Each group of sliders is used in combination with the blades. There are 4 - 6 groups of sliders on the outside of the vertical column.

[0016] Furthermore, the blades are arranged vertically and are arc-shaped, and the arc angle is 180°.

[0017] Furthermore, the upper end of the sliding column is slidably connected with a top plate. One side of the water tank is penetrated by a return flow tank, and a filter screen is arranged inside the return flow tank.

[0018] Furthermore, one side of the return flow tank close to the water tank is penetrated by a hole. The hole is located at the lower end of the return flow tank and communicates with the hole on the side of the water tank.

[0019] Furthermore, the top plate penetrates into the interior of the water tank. When the sliding column slides vertically, the top plate slides synchronously.

[0020] Furthermore, a plurality of filter holes penetrate through the filter screen, and the inner diameter of the filter holes is 0.2 - 0.3 cm.

[0021] Beneficial effects: 1. The auger rotates horizontally as a whole. When the outer side of the auger rotates, it squeezes against the lower end of the column. The column can drive the connecting frame to slide upward. The connecting frame can drive the whole sliding column to slide upward through the convex strip. Since the auger is helical as a whole, the auger cannot continuously squeeze the lower end of the column. Utilizing the overall gravity of the sliding column, the convex strip and the connecting frame, the whole sliding column and the connecting frame can slide downward. Therefore, through the rotation of the auger, it can assist the sliding column and the connecting frame to slide vertically inside the feed trough. 2. The threaded piece on the outer side of the auger can squeeze against the lower end of the blade during rotation. One side of the lower end of the blade is squeezed, and the lower end of the blade can deform upward. Therefore, the slider at the lower end of the blade slides upward inside the column, and the lower end of the blade moves upward. The blade can assist the feed inside the feed trough to move upward, and the blade can slide downward and return to its original position through the slider. Repeating the above steps can prevent the feed from accumulating at the upper end of the auger, enabling the feed to be turned vertically as a whole and avoiding the situation of uneven mixing of the feed due to the mixture of multiple types of particles. 3. The top plate penetrates into the interior of the water tank. When the sliding column slides vertically, the top plate slides synchronously. Therefore, the top plate can assist the clear water at the upper end of the water tank to flow upward into the return flow tank, enabling the clear water and residues at the upper end of the water tank to fall onto the upper end of the filter screen. The residues are filtered by the filter screen, and the clear water enters the interior of the return flow tank. The clear water reflows into the interior of the water tank through the hole, enabling this kind of breeding equipment to mix the feed and clean the residues on the surface of the clear water in the water tank at the same time, avoiding the situation where some feed residues float on the upper end inside the water tank after the livestock eats through the feed trough and then drinks water through the water tank, thereby achieving the effect of regularly cleaning the feed residues inside the water tank. Description of the drawings

[0022] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0023] Figure 2This is the schematic diagram of the overall structure explosion of the present invention.

[0024] Figure 3 This is the partial schematic diagram of the overall structure of the present invention.

[0025] Figure 4 This is the schematic diagram of the auger and connecting frame structure of the present invention.

[0026] Figure 5 For the present invention Figure 4 in the explosion structure schematic diagram.

[0027] Figure 6 This is the schematic diagram of the circular ring structure of the present invention.

[0028] Figure 7 This is the exploded schematic diagram of the column assembly of the present invention.

[0029] Figure 8 This is the schematic diagram of the blade deformation of the column assembly of the present invention.

[0030] Figure 9 This is the schematic diagram of the water tank assembly structure of the present invention.

[0031] Figures 1-9 In it, the corresponding relationship between the part names and the drawing numbers is as follows: 1 - feed trough, 101 - water tank, 102 - faucet, 103 - transmission pipe, 104 - auger, 2 - circular ring, 201 - rib, 202 - connecting frame, 203 - sliding column, 3 - fixing ring, 301 - column, 302 - slider, 303 - blade, 4 - top plate, 401 - return trough, 402 - filter screen. Detailed implementation manners

[0032] 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 embodiments of 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 of 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. Embodiment

[0033] As shown in the attached Figure 1 to the attached Figure 9 shown: Embodiment 1: A smart breeding device based on an energy management system, including a feed trough 1, on one side of the feed trough 1 there is a transmission pipe 103, inside the transmission pipe 103 there is a motor, and at one end of the motor close to the feed trough 1 there is a rotationally docked auger 104. On one side of the upper end of the feed trough 1, there is installed a water tank 101, and on one side of the upper end of the water tank 101 there is a faucet 102; Among them: The feed trough 1 is arranged horizontally, placed on the ground. The motor is connected to the power supply circuit through a power cord, and the auger 104 rotates horizontally inside the feed trough 1; The motor adopts Internet of Things technology to accurately collect power data; At the same time, one end of the motor is connected to a control panel through an electric wire circuit. The control panel uses cloud computing and big data analysis to perform data operation, statistics and analysis, so as to make adaptive results and push them to the management personnel, thus realizing data closed-loop management; Precisely manage various power supplies. At the same time, combined with the growth cycle of farmed animals, etc., achieve flexible management, combined with manual scheduling, and further achieve strong adaptability and strong matching of supply and discharge; In the park designed in this way, the power usage efficiency is improved, and useless consumption is reduced. Through experiments, 25% of the electricity in the park is saved; In the planting and breeding park where this system is deployed, the overall electricity energy is well matched, and it can better adapt to the characteristics of different planting and breeding animals. It can be deployed as a standard system for future planting and breeding parks, meeting the environmental protection requirements, achieving efficient irrigation, and at the same time reducing the overall energy consumption and labor input; There are holes penetrating through the upper side of the water trough 101, which can be referred to in the attached Figure 9 instruction manual; One end of the faucet 102 is connected to the water source through a water pipe. An electric valve is installed at the upper end of the faucet 102, and the electric valve is connected to the control panel circuit through an electric wire; Among them: Through the innovative integration of technologies such as the Internet of Things, cloud computing, and statistical analysis, fully combined with the actual operation and management of planting and breeding, forming a global management support for the management of the planting and breeding park from manual inspection to the work order system combined with Internet of Things data and data results, thus achieving goals such as power saving. It is the underlying support for a negative-carbon intelligent planting and breeding park, which can save 25% of the electricity in the park and reduce the overall energy consumption of the park; Clean water enters the inside of the water trough 101 through the faucet 102. The faucet 102 is closed through the electric valve. Feed for breeding is added inside the feed trough 1, and the motor drives the auger 104 to rotate. The auger 104 can drive the feed inside the feed trough 1 to move horizontally; Embodiment 2: Refer to the attached Figures 1-5 instruction manual. It can be known that the difference between Embodiment 2 and Embodiment 1 is that a circular ring 2 penetrates through the lower end of the middle part of the water trough 101. A sliding column 203 slides through the inside of the circular ring 2. The lower end of the sliding column 203 is slidably connected to a convex strip 201. A connecting frame 202 is provided at the lower end of the convex strip 201. Both sides of the connecting frame 202 penetrate through the inside of the feed trough 1. A fixing ring 3 is wound around the outside of the connecting frame 202. A column 301 is provided at the lower end of the fixing ring 3; Among them: The circular rings 2 are arranged vertically, the sliding columns 203 extend to the outside of the circular rings 2, and the sides of the sliding columns 203 are in a "T" shape; When the sides of the sliding columns 203 are in a "T" shape and the sliding columns 203 are in a static state, the sliding columns 203 are clamped to the upper ends of the circular rings 2. Please refer to the attached Figure 6 instructions; The convex strips 201 are located below the circular rings 2. The connecting frames 202 are used in combination with the convex strips 201. The connecting frames 202 are arranged horizontally as a whole, and the connecting frames 202 are perpendicularly corresponding to the auger 104; Chutes are provided on the outer sides of the columns 301. The chutes are arranged vertically, and there are multiple columns 301 arranged horizontally. The columns 301 are perpendicularly corresponding to the auger 104 in the vertical direction; Due to the shape setting of the auger 104, when the auger 104 rotates, the auger 104 presses against the lower ends and the outsides of the columns 301, and the columns 301 can slide upward; Among them: The auger 104 rotates horizontally as a whole. When the outside of the auger 104 rotates, it presses against the lower ends of the columns 301. The columns 301 can drive the connecting frames 202 to slide upward, and the connecting frames 202 can drive the sliding columns 203 to slide upward as a whole through the convex strips 201; Since the auger 104 is spiral as a whole, the auger 104 cannot continuously press against the lower ends of the columns 301. Using the overall gravity of the sliding columns 203, the convex strips 201 and the connecting frames 202, the sliding columns 203 and the connecting frames 202 can slide downward as a whole. Therefore, through the rotation of the auger 104, it can assist the sliding columns 203 and the connecting frames 202 to slide vertically inside the feed trough 1; Embodiment 3: Refer to the attached Figures 2-8 instructions. It can be known that the difference between Embodiment 3 and Embodiments 1 and 2 is that sliders 302 are slidably connected to both ends inside the chutes of the columns 301, and blades 303 are embedded between the sliders 302; Among them: Every two sliders 302 form a group. Each group of sliders 302 is used in combination with the blades 303. There are 4 - 6 groups of sliders 302 on the outer sides of the columns 301; The blades 303 are arranged vertically, the blades 303 are arc-shaped, the arc angle is 180°, and the blades 303 are made of deformable materials, such as rubber materials; Wherein: The outer threaded piece of the auger 104 can be squeezed against the lower end of the blade 303 during rotation. One side of the lower end of the blade 303 is squeezed, and the lower end of the blade 303 can deform upward. Therefore, the slider 302 at the lower end of the blade 303 slides upward inside the column 301, and the lower end of the blade 303 moves upward. The blade 303 can assist the feed in the feed trough 1 to move upward, and the blade 303 can slide downward and return to its original position through the slider 302. Repeating the above steps can prevent the feed from accumulating at the upper end of the auger 104, enabling the feed to be turned over vertically as a whole, and avoiding the situation of uneven mixing of the feed due to the mixture of various feed particles; Example 4: Refer to the attached instructions Figure 2 and 9 It can be known that the difference between Example 4 and Examples 1-3 is that a top plate 4 is slidably connected to the upper end of the sliding column 203, a return flow groove 401 penetrates through one side of the water tank 101, and a filter screen 402 is provided inside the return flow groove 401; Wherein: A hole penetrates through the side of the return flow groove 401 close to the water tank 101. The hole is located at the lower end of the return flow groove 401, and this hole communicates with the hole on the side of the water tank 101, facilitating the clear water inside the return flow groove 401 to enter the inside of the water tank 101. Refer to the attached instructions Figure 9 as shown; The top plate 4 penetrates through the inside of the water tank 101. When the sliding column 203 slides vertically, the top plate 4 slides synchronously; Multiple filter holes penetrate through the filter screen 402, and the internal diameter of the filter holes is 0.2 - 0.3 cm. The filter screen 402 can filter the residues on the upper end of the top plate 4; Wherein: The top plate 4 penetrates through the inside of the water tank 101. When the sliding column 203 slides vertically, the top plate 4 slides synchronously. Therefore, the top plate 4 can assist the clear water at the upper end of the water tank 101 to flow upward into the inside of the return flow groove 401, enabling the clear water and residues at the upper end of the water tank 101 to fall onto the upper end of the filter screen 402. The residues are filtered by the filter screen 402, and the clear water enters the inside of the return flow groove 401. The clear water reflows into the inside of the water tank 101 through the hole, enabling this kind of breeding equipment to mix the feed and clean the residues on the surface of the clear water in the water tank 101 at the same time, avoiding the situation where some feed residues float on the upper end inside the water tank 101 after the livestock eat the feed through the feed trough 1 and then drink water through the water tank 101, and thus achieving the effect of regularly cleaning the feed residues inside the water tank 101.

Claims

1. A smart farming device based on an energy management system, characterized in that: including a feed trough (1), a transmission pipe (103) is provided on one side of the feed trough (1), a motor is provided inside the transmission pipe (103), a auger (104) is rotationally butted at one end of the motor close to the feed trough (1), a water trough (101) is installed on one side of the upper end of the feed trough (1), and a faucet (102) is provided on one side of the upper end of the water trough (101); There is a hole penetrating through the upper side of one side of the water trough (101); One end of the faucet (102) is communicated with a water source through a water pipe, an electric valve is installed at the upper end of the faucet (102), and the electric valve is connected to a control panel circuit through an electric wire.

2. The intelligent breeding equipment based on the energy management system according to claim 1, characterized in that: A ring (2) penetrates through the lower end of the middle part of the water trough (101), a sliding column (203) slides through the inside of the ring (2), a convex strip (201) is slidably connected to the lower end of the sliding column (203), a connecting frame (202) is provided at the lower end of the convex strip (201), both sides of the connecting frame (202) penetrate through the inside of the feed trough (1), a fixing ring (3) is wound around the outside of the connecting frame (202), and a column (301) is provided at the lower end of the fixing ring (3).

3. The intelligent breeding equipment based on the energy management system according to claim 2, characterized in that: The rings (2) are arranged vertically, the sliding column (203) extends to the outside of the ring (2), and the side surface of the sliding column (203) is in a "T" shape.

4. The intelligent breeding equipment based on the energy management system according to claim 2, characterized in that: The side surface of the sliding column (203) is in a "T" shape. When the sliding column (203) is in a static state, the sliding column (203) is clamped at the upper end of the ring (2).

5. The intelligent breeding device based on the energy management system according to claim 2, wherein: The convex strip (201) is located below the ring (2), the connecting frame (202) is used in combination with the convex strip (201), the connecting frame (202) is arranged horizontally as a whole, and the connecting frame (202) is vertically corresponding to the auger (104).

6. The intelligent breeding equipment based on the energy management system according to claim 2, characterized in that: Chute grooves are formed on the outer side of the column (301), the chute grooves are arranged vertically, there are multiple columns (301) arranged horizontally, and the columns (301) are vertically corresponding to the auger (104).

7. The intelligent breeding equipment based on the energy management system according to claim 2, characterized in that: Sliding blocks (302) are slidably connected to both ends inside the chute grooves of the column (301), and blades (303) are embedded between the sliding blocks (302).

8. The intelligent breeding equipment based on the energy management system according to claim 7, characterized in that: Every two of the sliding blocks (302) form a group, each group of the sliding blocks (302) is used in combination with the blade (303), and 4 - 6 groups of the sliding blocks (302) are provided on the outer side of the column (301); The blades (303) are arranged vertically, the blades (303) are arranged in an arc shape, and the arc angle is 180°.

9. The intelligent aquaculture equipment based on the energy management system according to claim 2, characterized in that: The upper end of the sliding column (203) is slidably connected to a top plate (4), a return flow groove (401) penetrates through one side of the water trough (101), and a filter screen (402) is provided inside the return flow groove (401).

10. The intelligent aquaculture equipment based on the energy management system according to claim 9, characterized in that: There is a hole penetrating through the side of the return flow groove (401) close to the water trough (101), the hole is located at the lower end of the return flow groove (401), and this hole is communicated with the hole on the side surface of the water trough (101); The top plate (4) penetrates through the inside of the water trough (101), and when the sliding column (203) slides vertically, the top plate (4) slides synchronously; A plurality of filter holes penetrate through the filter screen (402), and the internal diameter of the filter holes is 0.2 - 0.3 cm.

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