Novel intelligent assembled pig house

Abstract

The invention discloses a novel intelligent assembled pig house which comprises a floor plate which is divided into a plurality of pig raising fences through fences, and further comprises an installation frame which is installed on the floor plate and located in the pig raising fences. The plurality of manure leaking plates are arranged at the upper end of the mounting frame; the funnels are arranged at the lower end of the mounting frame; the plurality of funnels are communicated with the blow-off pipe; the conical hopper is mounted on the excrement leaking plate, and an annular excrement discharging gap is formed between the bottom end of the conical hopper and the funnel. In the breeding process, excrement generated by pigs flows to the excrement discharging gap between the funnel and the conical hopper through the funnel, and too dry large-particle pig manure is intercepted by the conical hopper and is prevented from directly flowing into the blow-off pipe. And the flow of a mixture of pig manure and pig urine can be effectively controlled through the annular manure discharging gap, and excessive pig manure is prevented from directly flowing into the blow-off pipe, so that the possibility that the pig manure in the blow-off pipe is blocked is reduced.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of pig house, in particular to a new intelligent assembled pig house. BACKGROUND

[0002] The pig house is a building for raising pigs. Modern pig house is far from a simple building, it is a complex production system. Excellent pig house design and management is the cornerstone of the health of the pig population, excellent production performance and the profitability of the farm. The ultimate goal is to produce safe and high-quality pork products with the highest efficiency on the premise of protecting animal welfare and ecological environment.

[0003] The pig excrement treatment is an important design index of the pig house, the long-term retention of urine and feces will produce anaerobic fermentation, release a large amount of harmful gases such as ammonia, hydrogen sulfide and methane, especially in the closed environment in winter. High concentration of ammonia stimulates the respiratory system of pigs, reduces immunity, induces respiratory diseases (such as pneumonia and bronchitis), and even causes death. The continuous generation of stench in the pig house also affects the surrounding air quality and residents' life, and easily leads to social disputes. And long-term retention of fecal pollution becomes the breeding source of viruses and bacteria, increases the risk of infection of pig population, such as African swine fever; long-term exposure to harmful gases such as ammonia leads to slow growth of pig population, decreased reproductive performance and increased mortality.

[0004] In the prior art, the pig excrement is treated by using the excrement leakage plate, the funnel and the sewage pipe. However, some large-particle pig manure is too dry and has poor fluidity, which can easily cause the sewage pipe to be blocked after flowing into the sewage pipe. And the excretion behavior of pigs is highly related to the daily management program, and a clear time rule is formed, such as within half an hour to one hour after feeding, pigs will concentrate on defecation, because after eating, the gastrointestinal peristalsis of pigs is accelerated, and a strong urge to defecate will be generated. The above-mentioned concentrated defecation problem will cause the flow of the funnel and the sewage pipe to increase greatly in a short time, and also easily induce the blockage of the sewage pipe.

[0005] Therefore, it is necessary to provide a new intelligent assembled pig house to reduce the blockage probability of the sewage pipe, which is an important technical problem to be solved. SUMMARY

[0006] The present application provides a new intelligent assembled pig house, which aims to solve the problem that the sewage pipe of the pig house in the prior art is easy to be blocked.

[0007] To achieve the above objectives, this application proposes a novel intelligent prefabricated pigsty, comprising: floor slabs, which are divided into several pig pens by fences; an installation frame, which is installed on the floor slabs and located within the pig pens; multiple slatted floor panels, which are disposed at the upper end of the installation frame; multiple funnels, which are disposed at the lower end of the installation frame; a sewage pipe, which connects the multiple funnels; and a conical hopper, which is installed on the slatted floor panels, with the bottom of the conical hopper forming an annular manure discharge gap with the funnel.

[0008] In some embodiments, it further includes: a rotary power source, which is installed at the bottom end of the manure slatted plate; a connecting platform, which is provided on the conical hopper and is connected to the output shaft of the rotary power source; and a reverse conical section, which is provided at the bottom end of the conical hopper and gradually decreases the gap between the reverse conical section and the hopper in a downward axial direction.

[0009] In some embodiments, it further includes: a protrusion, wherein a protrusion is provided on the outer side of the reverse cone segment.

[0010] In some embodiments, it further includes: cutting blades, which are circumferentially spaced on the outer side of the reverse cone segment.

[0011] In some embodiments, it further includes: manure-leaking grooves, wherein manure-leaking grooves are provided at intervals along the circumferential direction on the reverse cone section.

[0012] In some embodiments, the device further includes: a first coupling, one end of which is connected to the output shaft of a rotary power source; a scraper shaft, the other end of which is connected to the scraper shaft; a second coupling, one end of which is connected to the scraper shaft; a conical bucket shaft, the other end of which is connected to the conical bucket shaft; a scraper arm, which is connected to the scraper shaft; and a scraper, which is connected to the scraper arm and conforms to the inner surface of the funnel.

[0013] In some embodiments, the manure slatted board includes: a rectangular frame plate, wherein the rectangular frame plate, the mounting frame, and the funnel are all provided with first mounting holes, and the rectangular frame plate is installed on the mounting frame by fasteners; and an intermediate connecting mesh, wherein an intermediate connecting mesh is provided inside the rectangular frame plate.

[0014] In some embodiments, the manure slatted panel includes: a connecting protrusion, wherein a connecting protrusion is provided on one side of the rectangular frame panel; and a connecting groove, wherein a connecting groove is provided on the other side of the rectangular frame panel.

[0015] In some embodiments, the system further includes: multiple foundations disposed on the ground; connecting columns connecting the foundations; and connecting beams, wherein multiple connecting beams are spaced apart along the height direction from the connecting columns, and floor slabs are connected to the connecting beams.

[0016] In some embodiments, it further includes: an inspection port, wherein the sewage pipe is provided with an inspection port and the inspection port is located near the funnel; and a main pipe, wherein the sewage pipe is connected to the main pipe.

[0017] This application proposes a novel intelligent prefabricated pigsty, comprising: floor slabs, which divide the pigsty into several sections by fences; an installation frame installed on the floor slabs and located within the pigsty sections; multiple slatted floors positioned at the top of the installation frame; multiple funnels positioned at the bottom of the installation frame; a sewage pipe, with the funnels connected to the sewage pipe; and a conical hopper installed on the slatted floors, forming an annular manure discharge gap between the bottom of the conical hopper and the funnel. During the rearing process, pig excrement flows through the funnels into the manure discharge gap between the funnels and the conical hopper. Small particles or more fluid pig manure flow through the annular gap into the sewage pipe and are discharged, while large, dry particles of pig manure are intercepted by the conical hopper, preventing them from flowing directly into the sewage pipe and reducing the probability of blockage. Furthermore, during peak defecation periods, the annular manure-feeding gap effectively controls the flow rate of the manure-urine mixture, preventing excessive manure from directly entering the sewage pipe and reducing the likelihood of blockage. The funnel design also facilitates automatic manure discharge, reducing manure and urine retention time compared to periodic scraping, lowering ammonia concentration to below 20 ppm, effectively preventing respiratory diseases and intestinal flora imbalance in pigs; improving air quality in the pigsty; and reducing the risk of chronic inflammation and growth inhibition. Attached Figure Description

[0018] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort, wherein: Figure 1 This is a plan view of the pen arrangement in a novel intelligent prefabricated pigsty according to one embodiment of this application; Figure 2 This is a cross-sectional view of a process of a novel intelligent prefabricated pigsty according to one embodiment of this application; Figure 3 for Figure 2 Enlarged view of part A in the middle; Figure 4 This is a cross-sectional view of another process of a novel intelligent prefabricated pigsty in one embodiment of this application; Figure 5 for Figure 4 Enlarged view of part B in the middle; Figure 6 This is a plan view of the funnel arrangement in a novel intelligent prefabricated pigsty according to one embodiment of this application; Figure 7This is a plan view of the arrangement of slatted floors in a novel intelligent prefabricated pigsty according to one embodiment of this application; Figure 8 This is a three-dimensional structural diagram of the funnel, part of the mounting frame, and the manure-slip plate in one embodiment of this application; Figure 9 This is a top view of the funnel, part of the mounting frame, and the manure-straining plate in one embodiment of this application; Figure 10 for Figure 9 Enlarged view of a portion of the CC section; Figure 11 for Figure 10 Enlarged view of a section in part D; Figure 12 This is a three-dimensional structural diagram of the funnel and part of the mounting frame in one embodiment of this application; Figure 13 This is a bottom view of a cone-shaped bucket according to an embodiment of this application; Figure 14 This is a bottom view of another cone-shaped bucket in one embodiment of this application.

[0019] In the diagram: 1. Floor slab; 2. Pig driveway; 3. Fence; 4. Double-sided feed trough; 5. Constant speed fan; 6. Pig pen; 7. Foundation; 8. Connecting column; 9. Connecting beam; 10. Roof; 11. Suspended ceiling; 12. Sewage pipe; 13. Main pipe; 14. Funnel; 141. First connecting end; 142. Conical part; 143. Second connecting end; 144. Rotary power source; 145. Scraper arm; 146. Scraper; 147. Conical bucket; 148. Reverse conical section; 149. Manure-leaking cutting groove; 1410. Conical bucket shaft; 1411. Cutting blade; 1412. Connecting platform; 1413. Locking nut; 1414. Transition area; 1415. Protrusion; 15. Inspection port; 16. Ground; 17. Manure-leaking plate; 171. First mounting hole; 172. Rectangular frame plate; 173. Intermediate connecting mesh; 174. Connecting protrusion; 175. Second mounting hole; 176. Connecting groove; 18. Buffer layer; 19. Mounting frame. Detailed Implementation

[0020] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of the embodiments. Based on the embodiments of this application, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of this application.

[0021] See Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8, Figure 9 and Figure 10 As shown, this application proposes a novel intelligent prefabricated pigsty, comprising: a floor slab 1, which is divided into several pig pens 6 by a fence 3; an installation frame 19, which is installed on the floor slab 1 and located within the pig pens 6; multiple manure slats 17, which are disposed at the upper end of the installation frame 19; multiple funnels 14, which are disposed at the lower end of the installation frame 19; a sewage pipe 12, which is connected to the multiple funnels 14; and a conical hopper 147, which is installed on the manure slats 17, with the bottom end of the conical hopper 147 forming an annular manure discharge gap with the funnel 14.

[0022] One type of intelligent prefabricated pigsty has multiple floors, each floor is equipped with a floor slab 1, and the structural foundation 7 of all pig farming equipment on that floor is on the floor slab 1. Multiple pig pens 6 are formed by the separation of the floor slab 1 by the fence 3. The fence 3 is made of stainless steel pipes, and a double-sided feeding trough 4 is set on the fence 3 shared by two pig pens 6.

[0023] In this embodiment, the floor slab 1 is provided with multiple rows of pig pens 6 arranged along the length direction. Each row of pig pens 6 includes multiple pig pens 6 connected end to end along the width direction of the floor slab 1. The floor slab 1 is also provided with passageways that separate the multiple rows of pig pens 6. Each row of pig pens 6 is adjacent to at least one passageway.

[0024] Specifically, floor slab 1 has a total length of 85 meters and a total width of 39.6 meters. Pig pen 6 has a length of 7.88 meters and a width of 4.76 meters. The area of ​​one pig pen 6 is 36.5 square meters, and one pig pen 6 houses 36 pigs. Floor slab 1 has 10 rows of pig pens 6 along its length, and each row includes 8 pig pens 6 along its width.

[0025] The floor slab 1 is welded or connected to an installation frame 19 via high-strength bolts. The installation frame 19 is used to install funnels 14 and manure-sprung plates 17. Each pig pen 6 has six funnels 14 at the bottom of its installation frame 19, and 24 manure-sprung plates 17 at the top. Four manure-sprung plates 17 cover the area of ​​one funnel 14, allowing pig manure or urine to be discharged through the funnels 14 in a timely manner, preventing anaerobic fermentation. Three rows of funnels 14 are arranged along the length of each pig pen 6, with each row including two funnels 14 spaced apart along the width. Combined with the structural design of the pig pens 6 within the floor slab 1, a total of 30 rows of funnels 14 are installed within the floor slab 1. Each row of funnels 14 includes 16 funnels 14 arranged along the width.

[0026] The funnel 14 includes a first connecting end 141, a conical part 142, and a second connecting end 143. The first connecting end 141, the conical part 142, and the second connecting end 143 are integrally formed. The first connecting end 141 is used to connect to the mounting frame 19, and the second connecting end 143 is used to connect to the sewage pipe 12. Pig manure or pig urine can flow from the conical part 142 into the second connecting end 143 and into the sewage pipe 12. Each row of funnels 14 shares a common sewage pipe 12, and the pig manure or pig urine is finally discharged through the sewage pipe 12.

[0027] Among them, the cone 147 is the core structure of a new type of intelligent modular pig house. The cone 147 is set between the funnel 14 and the cone 147 to form an annular manure discharge gap. The annular manure discharge gap can effectively intercept overly dry and large-particle pig manure, preventing overly dry and large-particle pig manure from flowing directly into the sewage pipe 12. In addition, the annular manure discharge gap design can effectively control the flow rate of the mixture of pig manure and pig urine.

[0028] Specifically, during the breeding process, the excrement produced by the pigs flows through funnel 14 into the manure discharge gap between funnel 14 and cone 147. Small particles or more fluid pig manure flow into the sewage pipe 12 through the annular gap and are discharged through the sewage pipe 12. Larger, drier particles of pig manure are intercepted by cone 147, preventing them from flowing directly into the sewage pipe 12 and reducing the probability of blockage. Furthermore, during periods of concentrated pig defecation, the annular manure discharge gap effectively controls the flow rate of the mixture of pig manure and urine, preventing excessive pig manure from directly entering the sewage pipe 12, thus reducing the possibility of blockage. The funnel 14 design also facilitates automatic manure discharge. Compared to periodic manure scraping, it reduces the retention time of manure and urine, lowering ammonia concentration to below 20 ppm, effectively preventing respiratory diseases and intestinal flora imbalance in pigs; improving air quality in the pigsty; and reducing the risk of chronic inflammation and growth inhibition.

[0029] The funnel 14 is made of 304 stainless steel, and the inner wall of the conical portion 142 of the funnel 14 needs to be polished to improve the smoothness of the inner surface of the conical portion 142. The diameter of the sewage pipe 12 is preferably 160 mm, and the width of the manure discharge gap is preferably 40 mm. The conical hopper 147 is made of UHMW-PE (ultra-high molecular weight polyethylene) or fiberglass (FRP). Both UHMW-PE and FRP have excellent anti-stick properties and sufficient mechanical strength.

[0030] Because pig excrement has a certain degree of stickiness, the novel intelligent modular pigsty of this application requires regular maintenance and management by staff, including regular washing and disinfection. It should not be assumed that the novel intelligent modular pigsty of this application alone can completely remove pig excrement.

[0031] See Figure 8 , Figure 9 , Figure 10 , Figure 12 and Figure 14 As shown, in some embodiments, it further includes: a rotary power source 144, which is installed at the bottom end of the manure-slatting plate 17; the rotary power source 144 is a waterproof motor, and has an output shaft, through which the rotary power source 144 can output torque. A connecting platform 1412 is provided on the conical hopper 147, and the connecting platform 1412 is connected to the output shaft of the rotary power source 144; the connecting platform 1412 is a platform, and has a through hole for connecting the connecting platform 1412 to the power source output shaft. The rotary power source 144 can drive the connecting platform 1412, the conical hopper 147, and the reverse conical section 148 to rotate through the output shaft. The reverse conical section 148 is located at the bottom end of the conical hopper 147, and the gap between the reverse conical section 148 and the funnel 14 gradually decreases in the axial downward direction. The inverted cone section 148 and the cone hopper 147 are integrally formed. The inverted cone section 148 is designed to form an annular manure discharge belt with axial thickness between the funnel 14 and the cone hopper 147. The structure of the annular manure discharge belt helps to retain more dry, large-particle pig manure, reducing the probability of dry, large-particle pig manure clogging the annular manure discharge belt. During the manure discharge process, the rotary power source 144 can drive the inverted cone section 148 to rotate, grinding the dry, large-particle pig manure through the inverted cone section 148 and the funnel 14. The continuously flowing pig urine and flushing water can wash away the ground pig manure particles, reducing the diameter of the dry, large-particle pig manure. When the diameter of the dry, large-particle pig manure is less than a certain value, it can pass through the annular manure discharge belt and eventually flow into the sewage pipe 12. Furthermore, the continuously flowing pig urine and flushing water also help to soften the dry, large-particle pig manure, increasing its fluidity, so that the dry, large-particle pig manure can deform and pass through the annular manure discharge belt and eventually flow into the sewage pipe 12. This prevents large, dry pig manure particles from remaining in funnel 14 for extended periods, improving air quality in the pigsty and reducing the risk of chronic inflammation and growth inhibition.

[0032] See Figure 14 As shown, in this embodiment, the outer contour of the cross-section of the reverse cone section 148 can be cam-shaped. During the rotational motion of the reverse cone section 148, it continuously compresses the dry, large-particle pig manure, allowing it to shrink or soften more quickly, thus flowing through the annular manure conveyor belt and ultimately into the sewage pipe 12. This further reduces the residence time of large-particle pig manure in the funnel 14. Furthermore, the cam-shaped reverse cone section 148 structure is smoother, making it less prone to bridging or adhesion of pig manure.

[0033] SeeFigure 8 , Figure 9 , Figure 10 , Figure 12 and Figure 13 As shown, in some embodiments, it further includes a protrusion 1415, which is provided on the outer side of the anti-conical section 148. During the continuous rotation of the anti-conical section 148, the protrusion 1415 continuously compresses the large particles of pig manure in the annular manure conveyor belt, allowing the dry, large particles of pig manure to shrink or soften more quickly, thus passing through the annular manure conveyor belt and ultimately flowing into the sewage pipe 12. This further reduces the residence time of large particles of pig manure in the funnel 14.

[0034] In this embodiment, the protrusion 1415 is integrally formed with the reverse cone section 148, and the protrusion 1415 smoothly transitions between the outer peripheral surface of the reverse cone section 148, making it less likely for pig manure to "bridge" or adhere. The protrusion 1415 can be disposed on the outer side of the cam-shaped reverse cone section 148 to further enhance the grinding effect of the reverse cone section 148 on dry, large-particle pig manure.

[0035] See Figure 8 , Figure 9 and Figure 10 As shown, in some embodiments, it further includes: cutting blades 1411, which are circumferentially spaced along the outer side of the reverse cone section 148. During the continuous rotation of the reverse cone section 148, the cutting blades 1411 continuously cut the large, dry pig manure particles in the annular manure conveyor belt, causing the large, dry pig manure particles in the annular manure conveyor belt to rapidly shrink or soften under the action of compression and shearing forces, thereby passing through the annular manure conveyor belt and ultimately flowing into the sewage pipe 12. This further reduces the residence time of the large, dry pig manure particles in the funnel 14.

[0036] In this embodiment, both the upper and lower surfaces of the cutting blade 1411 are smoothly transitioned arc surfaces. That is, along the direction of manure discharge, the surface of the cutting blade 1411 is arc-shaped and smoothly transitioned, preventing the cutting blade 1411 from affecting the flow of ordinary manure. Furthermore, as the reverse cone section 148 rotates continuously, centrifugal force is generated, causing the manure hanging on the cutting blade 1411 to fall off, enhancing the cleanliness of the reverse cone section 148 and thus improving the air quality in the pigsty. The ammonia concentration can be reduced to below 20 ppm, effectively preventing respiratory diseases and intestinal flora imbalance in pigs, and reducing the risk of chronic inflammation and growth inhibition. The left and right surfaces of the cutting blade 1411 are both flat, which is beneficial for applying shearing force to the dry, large-particle pig manure during rotation.

[0037] Along the manure discharge direction, three cutting blades 1411 are provided, with their sizes gradually decreasing. As the width of the annular manure discharge belt gradually decreases along this direction, the smaller cutting blades 1411 help to adapt to the width of the annular manure discharge belt, preventing them from occupying too much space and thus reducing the probability of blockage. Furthermore, in areas where the annular manure discharge belt is narrower, the diameter of the dry, large-particle pig manure is smaller, and the smaller cutting blades 1411 are better at applying shearing force to the manure, preventing them from merely compressing it. In areas where the annular manure discharge belt is wider, the larger cutting blades 1411 help to improve cutting efficiency.

[0038] See Figure 8 , Figure 9 , Figure 10 and Figure 12 As shown, in some embodiments, the system further includes a manure-leaking trough 149, which is circumferentially spaced along the upper edge of the conical section 148. During the manure discharge process, the bottom of the annular manure-discharging belt is easily blocked temporarily by dry, large-particle pig manure, causing subsequent, more fluid pig manure to also be blocked and unable to flow downwards. The manure-leaking trough 149 provides an alternative manure discharge path. The width of the manure-leaking trough 149 is less than or equal to the minimum width of the annular manure-discharging belt. This avoids excessive accumulation of pig manure and also helps reduce the probability of blockage in the annular manure-discharging belt.

[0039] See Figure 8 , Figure 9 , Figure 10 and Figure 12 As shown, in some embodiments, it further includes: a first coupling, one end of which is connected to the output shaft of the rotary power source 144; a scraper shaft, the other end of which is connected to the scraper shaft; the output shaft of the rotary power source 144 and the scraper shaft are connected via a first connector; a second coupling, one end of which is connected to the scraper shaft; a conical bucket shaft 1410, the other end of which is connected to the conical bucket shaft 1410; the conical bucket shaft 1410 and the scraper shaft are connected via a second coupling, which facilitates the simultaneous transmission of the torque output by the rotary power source 144 to both the scraper shaft and the conical bucket shaft 1410, enabling the scraper shaft and the conical bucket shaft 1410 to rotate synchronously. A scraper arm 145 is connected to the scraper shaft; a scraper plate 146 is connected to the scraper arm 145 and conforms to the inner side of the funnel 14. The scraper arm 145 connects the scraper shaft and the scraper 146. The scraper arm 145 is welded to the scraper shaft, and the scraper arm 145 is welded to the scraper 146, or the scraper arm 145 and the scraper 146 are integrally formed. As the cone hopper 147 rotates, the scraper 146 also rotates, scraping off some of the pig manure that is stuck to the funnel 14.

[0040] In this embodiment, the conical bucket shaft 1410 is provided with a threaded section, on which two locking nuts 1413 are provided. One locking nut 1413 is located at the upper end of the connecting platform 1412, and the other locking nut 1413 is located at the lower end of the connecting platform 1412. Both locking nuts 1413 abut against the connecting platform 1412, and the two locking nuts 1413 can form a connection between the connecting platform 1412 and the conical bucket shaft 1410. Preferably, anti-loosening washers are provided between the two locking nuts 1413 and the connecting platform 1412.

[0041] Preferably, the scraper 146 extends to the second connecting end 143 to effectively clean the entire funnel 14, and since the scraper 146 includes only two spaced apart circumferentially, it will not have too much impact on the annular manure belt.

[0042] See Figure 8 , Figure 9 and Figure 10 As shown, in some embodiments, the manure slatted floor 17 includes: a rectangular frame plate 172, with first mounting holes 171 provided on the rectangular frame plate 172, the mounting frame 19, and the funnel 14. The rectangular frame plate 172 is mounted to the mounting frame 19 using fasteners; the fasteners can be bolts, and no specific limitation is made here. An intermediate connecting mesh 173 is provided inside the rectangular frame plate 172. The intermediate connecting mesh 173 allows pig excrement to pass through. The entire manure slatted floor 17 is made of stainless steel and undergoes hot-dip galvanizing treatment.

[0043] In this embodiment, a second mounting hole 175 is also provided on the rectangular frame plate 172 and the rotary power source 144. The rotary power source 144 is installed on the rectangular frame plate 172 by bolts or the like. Due to the protection of the rectangular frame plate 172, the impact of pig excrement on the rotary power source 144 can be reduced, and the service life of the rotary power source 144 can be extended.

[0044] in, Figure 8 The mounting frame 19 shown is only a part of the mounting frame 19. The complete mounting frame 19 has 6 funnels 14 and 24 manure-splitting plates 17 installed on it. The connection method between the funnels 14 and manure-splitting plates 17 and the mounting frame 19 in other units is different. Figure 8 The connection methods shown are exactly the same. Here, the connection method between the funnel 14 and the manure-slip plate 17 and the mounting frame 19 is highlighted. The structure of the mounting frame 19 and the corresponding 5 funnels 14 and 20 manure-slip plates 17 are omitted.

[0045] The first connecting end 141 is provided with a transition area 1414. The upper end of the transition area 1414 is a square hole to accommodate multiple manure leakage plates 17, and the lower end of the transition area 1414 is a round hole to accommodate the upper end of the conical part 142.

[0046] See Figure 8 , Figure 9 , Figure 10 and Figure 11 As shown, in some embodiments, the manure slatted floor 17 includes: a connecting protrusion 174, which is provided on one side of the rectangular frame plate 172; and a connecting groove 176, which is provided on the other side of the rectangular frame plate 172. The cooperation of the connecting protrusion 174 and the connecting groove 176 enhances the overall integrity of the manure slatted floor 17, thereby improving its overall stability.

[0047] In this embodiment, a buffer layer 18 is provided between the rectangular frame plate 172 and the mounting frame 19. The buffer layer 18 is made of rubber. During the operation of the rotary power source 144, slight vibrations will be generated. Especially when the rotary power source 144 performs periodic high-speed rotation to remove the pig manure adhering to the reverse cone section 148, the vibration will be slightly more noticeable. The buffer layer 18 can prevent the vibration from being transmitted to the mounting frame 19. Furthermore, after the above vibration is transmitted to the manure slatted plate 17, it helps to shake off the pig manure adhering to the manure slatted plate 17, reducing the amount of pig manure adhering to the manure slatted plate 17 and improving the air quality in the pigsty.

[0048] See Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 and Figure 7 In some embodiments, the system further includes: multiple foundations 7, which are set on the ground 16; each foundation 7 includes piles and a pile cap, the piles being either steel pipe piles or concrete pipe piles, the pile cap connecting the steel pipe piles to connecting columns 8, the connecting columns 8 and the pile cap being connected by high-strength bolts or welding, and the foundation 7 bearing and transmitting loads. Connecting columns 8 connect to the foundations 7; the connecting columns 8 are made of steel, and connecting beams 9 are provided at intervals along the height direction of the connecting columns 8, with floor slabs 1 connected to the connecting beams 9. The connecting beams 9 are also made of steel, and both the connecting columns 8 and connecting beams 9 can be prefabricated in a factory, and can be connected together by welding or high-strength bolts. A new type of intelligent prefabricated pigsty skeleton structure is formed by the connecting columns 8 and the connecting beams 9 spaced at intervals along the height direction. Corrugated steel sheets are laid on the connecting beams 9 at the same height, reinforcing bars are tied, and then a concrete floor slab is poured to form the floor slab 1. The pigsty is preferably set up with two floors. The pigsty is also equipped with a suspended ceiling 11, which is connected to the connecting beam 9. The pigsty also includes a roof 10, which includes a roof truss connecting the connecting column 8, roof tiles, and purlins connecting the roof truss and the roof tiles.

[0049] Specifically, the construction method of a new type of intelligent prefabricated pigsty frame structure is as follows: Connecting columns 8, connecting beams 9, and profiled steel sheets are prefabricated in a factory. After the foundation construction is completed, connecting columns 8 are hoisted and connected to the foundation using high-strength bolts and welding. Then, following the principle of expanding from the lower to the upper level and from one area outwards, connecting beams 9 are hoisted sequentially to connect to connecting columns 8. Profiled steel sheets are then laid, reinforcing bars are tied, and then concrete slabs are poured to form floor slabs 1. C-shaped or Z-shaped cold-formed thin-walled steel purlins are used as connectors for the exterior walls. These connectors are fixed to the connecting columns 8 or connecting beams 9 using high-strength bolts or welding, thus completing the fixation of the exterior walls. The ceiling 11 is then installed onto the connecting beams 9 on the top floor using high-strength bolts or welding, and the roof 10 is then installed, thus initially completing the construction of the new type of intelligent prefabricated pigsty frame structure.

[0050] The aforementioned steel frame structure offers the following advantages: **Fast Construction Speed:** Steel structures can be prefabricated in a factory and then assembled on-site. This method is more efficient than traditional brick and stone construction. Components are prefabricated in the factory and quickly assembled on-site (shortening the construction period by 30%–50%). No maintenance is required, reducing on-site wet work and making it suitable for winter or rainy season construction. **Low Maintenance Costs:** Because steel structures are less prone to damage, repair and replacement costs are lower, resulting in significant long-term maintenance savings. **Cost Savings:** Steel structure buildings are generally cheaper than traditional buildings because factory prefabrication reduces waste and labor costs. Furthermore, the lower maintenance costs of steel structure buildings further reduce overall costs. Environmentally Friendly: Steel structures can be prefabricated in factories, reducing waste and pollutants generated during on-site construction. They are recyclable, with a steel recycling rate of up to 90%, aligning with green building principles. Factory prefabrication reduces on-site waste, and components can be reused after dismantling. Remelting energy consumption is only 1 / 3 that of virgin steel. Structurally Stable: The steel frame structure boasts strong load-bearing capacity, adapting to various complex terrains and construction conditions, ensuring the structural safety and lifespan of the pigsty. Highly Adaptable: Steel structures can be quickly installed, suitable for rapid production deployment, and enabling faster returns on investment.

[0051] The floor slab 1 is equipped with a pig-driving path 2. A constant-speed fan 5 can be installed on the exterior wall, and ventilation openings are provided on the ceiling 11 or parts of the exterior wall. The constant-speed fan 5 enhances the exchange of air between the pigsty and the outside air, thus improving the air quality inside the pigsty.

[0052] See Figure 2 , Figure 3 and Figure 4As shown, in some embodiments, it further includes: an inspection port 15, which is provided on the sewage pipe 12 and is located adjacent to the funnel 14; when the sewage pipe 12 is blocked, the blockage in the sewage pipe 12 can be cleared through the inspection port 15. The sewage pipe 12 has a slope of 1%, which facilitates the flow of excrement in the sewage pipe 12 under the action of gravity. A main pipe 13 is connected to the sewage pipe 12. The main pipe 13 includes multiple vertical main pipes 13 and a horizontal main pipe 13. Sewage pipes 12 at different vertically overlapping layers flow into a single vertical main pipe 13, and different vertical main pipes 13 flow into a single horizontal main pipe 13, and then flow into the treatment structure through the horizontal main pipe 13.

[0053] The above description is only a part or preferred embodiment of this application. Neither the text nor the drawings should limit the scope of protection of this application. All equivalent structural transformations made using the content of this application's specification and drawings under the overall concept of this application, or direct / indirect applications in other related technical fields, are included within the scope of protection of this application.

Claims

1. A novel intelligent assembled pig house, comprising: Floor slab (1) is divided into several pig stalls (6) by fence (3), characterized in that further comprising: Mounting frame (19) is mounted on the floor slab (1) and located in the pig stall (6); A plurality of manure leakage plates (17) are arranged at the upper end of the mounting frame (19); A plurality of funnels (14) are arranged at the lower end of the mounting frame (19); The sewage pipe (12) is communicated with the funnel (14); The conical hopper (147) is installed on the manure leakage plate (17), and the bottom end of the conical hopper (147) and the funnel (14) form an annular manure gap.

2. The novel intelligent pig house of claim 1, characterized in that, Further comprising: Rotary power source (144) is installed at the bottom end of the manure leakage plate (17); The connecting table (1412) is provided on the conical hopper (147), and the connecting table (1412) connects the output shaft of the rotary power source (144); The reverse taper section (148) is arranged at the bottom end of the conical hopper (147) in the direction of the axis downward, and the gap between the reverse taper section (148) and the funnel (14) gradually decreases.

3. The novel intelligent pig house of claim 2, characterized in that, Further comprising: The protrusion (1415) is arranged on the outer side of the reverse taper section (148).

4. The novel intelligent pig house of claim 2, characterized in that, Further comprising: The cutting edge (1411) is arranged on the outer side of the reverse taper section (148) in the circumferential direction.

5. The novel intelligent pig house of claim 2, characterized in that, Further comprising: The manure leakage slot (149) is arranged on the reverse taper section (148) in the circumferential direction.

6. The novel intelligent pig house of claim 2, characterized in that, Further comprising: The first coupling is connected to the output shaft of the rotary power source (144); The scraper shaft is connected to the other end of the first coupling; The second coupling is connected to the scraper shaft; The conical hopper shaft (1410) is connected to the other end of the second coupling; The scraper arm (145) is connected to the scraper shaft; The scraper plate (146) is connected to the scraper arm (145), and the scraper plate (146) is attached to the inner side of the funnel (14).

7. The novel intelligent pig house of claim 1, wherein, The manure leakage plate (17) comprises: The rectangular frame plate (172), the mounting frame (19) and the funnel (14) are all provided with first mounting holes (171), and the rectangular frame plate (172) is mounted on the mounting frame (19) by fasteners; The intermediate connecting net (173) is arranged in the rectangular frame plate (172).

8. The novel intelligent pig house of claim 7, characterized in that, The manure leakage plate (17) comprises: The connecting protrusion (174) is arranged on one side of the rectangular frame plate (172); The connecting groove (176) is arranged on the other side of the rectangular frame plate (172).

9. The novel intelligent pig house of claim 1, wherein, Further comprising: A plurality of foundations (7) are arranged on the ground (16); A plurality of connecting columns (8) are connected to the foundations (7); A plurality of connecting beams (9) are arranged along the height direction at intervals on the connecting columns (8), and the floor slabs (1) are connected to the connecting beams (9).

10. The novel intelligent pig house of claim 1, wherein, Further comprising: An inspection hole (15) is arranged on the drain pipe (12), and the inspection hole (15) is arranged adjacent to the funnel (14); A main pipe (13) is connected to the drain pipe (12).

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