Movable hen welfare breeding system
By designing a mobile welfare-oriented egg-laying hen farming system, which employs a three-tiered perch, automated equipment, and IoT control, the system addresses the issues of low automation, poor environmental controllability, and fixed facilities in egg-laying hen farming, thereby improving farming efficiency and environmental sustainability.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- CHINA AGRI UNIV
- Filing Date
- 2025-08-07
- Publication Date
- 2026-07-07
AI Technical Summary
Existing egg-laying hen farming models suffer from low levels of automation, poor environmental controllability, and serious manure pollution. Furthermore, the fixed nature of facilities makes site relocation difficult, impacting production efficiency and environmental sustainability.
Design a mobile welfare-oriented egg-laying hen farming system, which adopts a three-layer three-dimensional perch, automated feed and water lines, egg-laying boxes, manure treatment components and Internet of Things control system, combined with fermentation bed and mobile structure to achieve efficient space utilization, automated management and environmental control.
It improves the activity space and environmental control level of laying hens, reduces the intensity of manual labor, enhances breeding efficiency and environmental sustainability, reduces disease risk and manure pollution, and enables efficient egg collection and flexible facility relocation.
Smart Images

Figure CN224460865U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of egg-laying hen breeding technology, and in particular to a mobile welfare-oriented egg-laying hen breeding system. Background Technology
[0002] As consumers become increasingly concerned about food safety, intensive egg-laying hen farming is gradually shifting from traditional cage-raising to cage-free farming (such as free-range farming in forests). However, in my country's egg-laying hen industry, which is dominated by small-scale farmers, traditional free-range farming still holds a significant position. Although this type of free-range farming improves the activity space and behavioral freedom of egg-laying hens to some extent, its inherent defects limit farming efficiency and environmental sustainability, mainly in the following aspects: ① Low automation and high labor intensity. Traditional free-range farming uses relatively little automated equipment, and farming processes such as feed feeding, water management, and egg collection rely on manual operation, making it difficult to achieve standardized and refined management, resulting in low farming efficiency. ② Poor environmental controllability and high disease risk. Traditional free-range farming facilities are simple, and the control of environmental parameters such as temperature, relative humidity, and carbon dioxide concentration inside the shed is poor. Frequent environmental stress in the flock leads to decreased egg production and high disease incidence, resulting in low production efficiency. ③ Significant manure pollution problems and insufficient ecological sustainability. In traditional free-range farming, chickens come into direct contact with manure, resulting in low efficiency in manure treatment and direct discharge of manure into the farm, leading to severe pollution of the soil and air, which hinders the sustainable development of the industry.
[0003] While existing intensive facility-based farming has certain advantages in automated management, environmental control, and manure collection and treatment, compared to traditional free-range farming, facility-based chicken houses have limited space for movement, resulting in lower flock welfare and impacting production performance and egg quality. Furthermore, due to their long construction cycles and high costs, intensive chicken houses cannot be relocated to adapt to environmental changes and farming needs, leading to problems such as fixed site conditions and difficulties in relocation. Utility Model Content
[0004] To address the shortcomings of existing technologies, this utility model provides a mobile welfare-oriented egg-laying hen farming system, which solves the problems of low automation in existing free-range egg-laying hen farming models and high costs in intensive facility farming.
[0005] To achieve the above objectives, the technical solution adopted by this utility model is as follows:
[0006] A mobile welfare-oriented egg-laying hen farming system includes a breeding room with three layers of perches inside. The top perch is equipped with an egg-laying box; the middle and bottom perches are equipped with feed lines and water lines; and a manure treatment unit is installed at the bottom of the breeding room.
[0007] In this solution, a three-tiered perch structure is adopted, allowing laying hens to move freely within the three tiers, providing ample space for their activity and achieving efficient space utilization. The top perch is equipped with a laying box, providing a platform for laying eggs. The middle and bottom perches are equipped with water and feed lines, providing feeding platforms for the laying hens. The manure excreted by the laying hens falls into the manure treatment unit at the bottom for processing, resulting in a high degree of automation.
[0008] Furthermore, the bottom net of the egg-laying box is inclined, and an egg-collecting conveyor belt is installed at the bottom of the egg-laying box; inclined bottom nets are installed on the perches in the middle layer and the perches in the bottom layer, and an intermediate conveyor belt is installed at the bottom of the inclined bottom net.
[0009] In this design, eggs slide onto the egg collection conveyor belt, greatly improving egg collection efficiency; the inclined bottom net ensures that eggs automatically roll onto the middle conveyor belt, thus achieving efficient collection of eggs outside the nest.
[0010] Furthermore, the material line includes a batching bin, which is connected to two storage bins via two conveying pipes. The two storage bins are respectively located at the ends of the perching racks in the middle layer and the bottom layer. Each storage bin is equipped with a chain auger feeding mechanism at its outlet. The storage bin is connected to several material troughs distributed on the perching racks in the middle layer and the bottom layer via the chain auger feeding mechanism.
[0011] In this scheme, the feed in the feed mixing bin is transported to the indoor storage bin via a conveying pipeline, and then the feed is transported to each feed trough through a chain auger feeding structure so that the laying hens can eat it.
[0012] Furthermore, the water line includes a water supply pipeline. One end of the water supply pipeline is connected to a water source, and the other end of the water supply pipeline passes through a slightly acidic electrolyzed water generator and a filter in sequence before splitting into two paths. One path is connected to several nipple drinkers distributed on the perches in the middle layer; the other path is connected to several nipple drinkers distributed on the perches in the bottom layer.
[0013] In this scheme, the water source is transported through the water supply pipeline to the filter and the slightly acidic electrolyzed water generator for purification. After purification, it is delivered to the nipple drinkers in the breeding room, where chickens can drink freely.
[0014] Furthermore, the manure treatment components include a fermentation bed and a slatted floor; the slatted floor is laid at the bottom of the breeding room, and the fermentation bed is set underneath the slatted floor; a manure cleaning door is set at the back of the breeding room; and a manure cleaning conveyor belt is set at the manure outlet of the manure cleaning door.
[0015] In this solution, the manure removal process adopts a fermentation bed mode. Chicken manure falls into the fermentation bed through the slatted floor for fermentation. When manure removal is needed, the manure removal door at the back of the breeding room is opened, and the manure is transferred to the manure removal conveyor belt for transport, making the manure removal process in the chicken house convenient and efficient.
[0016] Furthermore, ventilation doors are installed at both ends of the breeding room. One of the ventilation doors has a wet curtain hanging on top, and the other ventilation door has a ventilation fan installed inside.
[0017] In this solution, ventilation fans are used to ventilate the breeding room to ensure fresh indoor air; at the same time, wet curtains are designed to change the humidity of the airflow during ventilation, ensuring a stable and controllable indoor environment.
[0018] Furthermore, a gas sensor is installed inside the breeding room, and the gas sensor is electrically connected to the Internet of Things control system.
[0019] Furthermore, ladders are provided between the top perch, the middle perch, and the bottom perch.
[0020] In this design, ladders are installed between the layers to allow laying hens to move freely between the three roosting levels.
[0021] Furthermore, the mobile welfare-oriented egg-laying hen farming system also includes an exercise yard, with the breeding room located within the exercise yard; the front of the breeding room is equipped with an automatic door and an entrance door, and the entrance door of the automatic door is equipped with an entrance and exit ladder.
[0022] In this solution, the design of automatic door opening and closing and entrance / exit ladders allows laying hens to move around in the outdoor exercise area, increasing their activity space and thus ensuring their health.
[0023] Furthermore, wheels are installed at the bottom of the breeding chamber, and a traction device is connected to the side of the breeding chamber; the traction device is used to drive the breeding chamber to move.
[0024] In this solution, the mobility of the breeding room is achieved by using a traction device and wheels, which solves the problems of difficult site conversion in traditional breeding models.
[0025] The beneficial effects of this utility model are:
[0026] The mobile welfare-oriented egg-laying hen farming system provided by this utility model features a three-tiered perch design inside the breeding chamber, achieving efficient utilization of the egg-laying hen breeding space through scientific stratification. The lower and middle perches serve as feeding platforms for the hens, equipped with automated feed and water lines; the upper tier is the egg-laying and roosting area for the hens, equipped with egg-laying boxes, where laid eggs slide down onto an egg-collecting conveyor belt, greatly improving egg collection efficiency.
[0027] The breeding room is equipped with evaporative cooling pads and ventilation fans on both sides. These devices regulate the air environment inside the breeding room, ensuring a stable and controllable environment. Simultaneously, gas sensors detect the gas concentration inside the breeding room, enabling real-time monitoring of air quality.
[0028] A fermentation bed is installed at the bottom of the breeding room. Chicken manure automatically falls into the fermentation bed below the slatted floor, achieving physical isolation between the chickens and the manure and effectively blocking the spread of pathogenic microorganisms. The fermentation bed is composed of a mixture of rice husks and sawdust, which can convert chicken manure into stable organic fertilizer, avoiding manual manure removal.
[0029] The breeding room is equipped with wheels at the bottom, which can be moved by tractors, trucks or other towing equipment. This allows for flexible adjustment of the breeding room's location according to seasonal and disease prevention changes, enabling land rotation and improving the applicability and sustainability of the farm. Attached Figure Description
[0030] Figure 1 This is a front view of a mobile welfare-oriented egg-laying hen farming system according to the present invention;
[0031] Figure 2 This is a schematic diagram of the internal structure of a mobile welfare-oriented egg-laying hen farming system according to the present invention;
[0032] Figure 3 This is a schematic diagram of the internal feed line and water line of a mobile welfare-oriented egg-laying hen farming system according to this utility model;
[0033] Figure 4 This is a schematic diagram of the structure of the breeding room and the exercise field in this utility model.
[0034] Figure label:
[0035] 1. Evaporative cooling pad; 2. Entrance door; 3. Automatic door opening and closing; 4. Fermentation bed; 5. Traction device; 6. Wheels; 7. Feeding bin; 8. Feed conveying pipeline; 9. Storage bin; 10. Red blackout curtain for laying boxes; 11. Nipple drinker; 12. Feed trough; 13. Filter; 14. Slightly acidic electrolyzed water generator; 15. Slatted floor; 16. Gas sensor; 17. Internet of Things control system; 18. Ventilation fan; 19. Breeding room; 20. Entrance and exit ladders; 21. Exercise area; 22. Water line; 23. Inter-level ladders; 24. Perching rack; 25. Laying box; 26. Egg collection conveyor belt; 27. Feed line; 28. Inclined bottom net; 29. Intermediate conveyor belt; 30. Manure removal door; 31. Manure removal conveyor belt; Detailed Implementation
[0036] The present invention will be further described below with reference to the accompanying drawings and specific embodiments. The specific embodiments of the present invention are described below to facilitate understanding by those skilled in the art. However, it should be understood that the present invention is not limited to the scope of the specific embodiments. For those skilled in the art, various changes are obvious as long as they fall within the spirit and scope of the present invention as defined and determined by the appended claims. All inventions utilizing the concept of the present invention are protected.
[0037] like Figure 1 and Figure 2 As shown, this embodiment provides a mobile welfare-oriented egg-laying hen farming system. This system combines the advantages of efficient indoor automated farming and free-range outdoor farming, solving the problems of low automation in existing free-range egg-laying hen farming models and high costs in intensive facility farming. Specifically, it includes:
[0038] 19. Breeding room, 24. Perching rack, 25. Egg laying box, 27. Feed line, 22. Water line and manure treatment components;
[0039] The breeding room 19 is equipped with three-tiered perches 24, allowing laying hens to move freely within the perches 24 and achieving efficient use of space. The top perch 24 is equipped with a laying box 25. The middle and bottom perches 24 are equipped with feed lines 27 and water lines 22. The bottom of the breeding room 19 is equipped with a manure treatment component, which processes the manure excreted by the laying hens. The process is highly automated.
[0040] The egg-laying box 25 has an inclined bottom mesh, and an egg-collecting conveyor belt 26 is installed at the bottom of the egg-laying box 25; the eggs will slide into the egg-collecting conveyor belt 26, which greatly improves the egg collection efficiency. The perches 24 in the middle layer and the perches 24 in the bottom layer are both equipped with inclined bottom mesh 28, and an intermediate conveyor belt 29 is installed at the bottom of the inclined bottom mesh 28, which can ensure that the eggs automatically roll into the intermediate conveyor belt 29, thereby achieving efficient collection of eggs outside the nest.
[0041] Based on the chickens' behavioral preferences, the top-level perch 24 is equipped with a red blackout curtain 10 for the egg-laying box, which, combined with the enclosed space layout of the third layer, guides the laying hens to prioritize laying eggs in this area.
[0042] like Figure 3As shown, the feed line 27 includes a feed mixing bin 7, a conveying pipe 8, a storage bin 9, and feed troughs 12. The feed mixing bin 7 is connected to two storage bins 9 via two conveying pipes 8. The two storage bins 9 are respectively located at the ends of the perches 24 in the middle layer and the perches 24 in the bottom layer. Each storage bin 9 has a chain auger feeding mechanism at its outlet. The storage bin 9 is connected to several feed troughs 12 distributed on the perches 24 in the middle layer and the perches 24 in the bottom layer via the chain auger feeding mechanism. The feed in the feed mixing bin 7 is transported to the storage bins 9 in the room via the conveying pipe 8, and then transported to the feed troughs 12 by the chain auger feeding structure for the laying hens to eat.
[0043] like Figure 3 As shown, the water line 22 includes a water supply pipeline, a slightly acidic electrolyzed water generator 14, a filter 13, and nipple drinkers 11. One end of the water supply pipeline is connected to a water source, and the other end of the pipeline passes through the slightly acidic electrolyzed water generator 14 and the filter 13 in sequence before splitting into two paths. One path connects to several nipple drinkers 11 distributed on the perches 24 in the middle layer; the other path connects to several nipple drinkers 11 distributed on the perches 24 in the bottom layer. The water source is transported through the water supply pipeline to the filter 13 and the slightly acidic electrolyzed water generator 14 for purification, and then transported to the nipple drinkers 11 in the breeding room 19, where chickens can drink freely.
[0044] The manure treatment component includes a fermentation bed 4 and a slatted floor 15. The slatted floor 15 is laid at the bottom of the breeding room 19, and the fermentation bed 4 is located beneath the slatted floor 15. A manure removal door 30 is located at the back of the breeding room 19. A manure removal conveyor belt 31 is installed at the outlet of the manure removal door 30. The manure removal process adopts the fermentation bed 4 mode, where chicken manure falls into the fermentation bed 4 through the slatted floor 15 for fermentation. When manure removal is needed, the manure removal door 30 at the back of the breeding room 19 is opened, and the manure is transferred to the manure removal conveyor belt 31 for removal, making the manure removal process in the chicken house convenient and efficient.
[0045] Fermentation bed 4 uses a 1:1 ratio of sawdust and rice husks as bedding material, with the addition of auxiliary materials such as straw to improve fermentation efficiency. PP tape is laid on the bottom and sides of the tank to ensure a flat bottom and prevent leakage.
[0046] like Figure 4 As shown, ventilation doors are provided at both ends of the breeding room 19. One ventilation door has a wet curtain 1 hanging on the top, and the other ventilation door has a ventilation fan 18 installed inside. The ventilation fan 18 ventilates the interior of the breeding room 19 to ensure fresh indoor air. At the same time, the wet curtain 1 is designed to change the humidity of the airflow during ventilation, ensuring a stable and controllable indoor environment.
[0047] Interlayer ladders 23 are provided between the top perch 24, the middle perch 24 and the bottom perch 24 to facilitate the free movement of laying hens among the three perches 24.
[0048] The mobile welfare-oriented egg-laying hen farming system in this embodiment also includes a playground 21, such as... Figure 4 As shown; the breeding room 19 is located inside the exercise area 21; the front of the breeding room 19 is equipped with an automatic opening and closing door 3 and an entrance door 2, and the entrance and exit ladder 20 is provided at the entrance of the automatic opening and closing door 3. The design of the automatic opening and closing door 3 and the entrance and exit ladder 20 allows the laying hens to move around in the outdoor exercise area 21, increasing the activity space of the laying hens and thus ensuring the health of the chickens.
[0049] The bottom of the breeding room 19 is equipped with wheels 6, and the side of the breeding room 19 is connected to a traction device 5. The traction device 5 is used to drive the breeding room 19 to move. The mobility of the breeding room 19 is achieved by using the traction device 5 and wheels 6, which solves the problems of difficult site conversion in traditional breeding mode.
[0050] A gas sensor 16 is installed inside the breeding room 19, and the gas sensor 16 is electrically connected to the Internet of Things (IoT) control system 17. The IoT control system 17 is also electrically connected to the ventilation fan 18, and controls the ventilation fan 18 to ventilate the inside of the breeding room 19 based on the information collected by the gas sensor 16. The IoT control system 17 is also electrically connected to the automatic door 3, which controls the automatic door to open at set times to facilitate the laying hens' outdoor activities.
[0051] As a preferred embodiment, the Internet of Things control system 17 may use an ESP32 microcontroller; the gas sensor 16 may use a carbon dioxide concentration sensor and an ammonia concentration sensor.
[0052] Those skilled in the art will recognize that the embodiments described herein are intended to help the reader understand the principles of this invention, and should be understood that the scope of protection of this invention is not limited to such specific statements and embodiments. Those skilled in the art can make various other specific modifications and combinations based on these technical teachings disclosed in this invention without departing from the essence of this invention, and these modifications and combinations are still within the scope of protection of this invention.
Claims
1. A mobile welfare-oriented egg-laying hen farming system, characterized in that: The room includes a breeding room (19), which is equipped with three layers of perches (24). The top perch (24) is equipped with an egg-laying box (25). The middle and bottom perches (24) are equipped with feed lines (27) and water lines (22). The bottom of the breeding room (19) is equipped with a manure treatment component.
2. The mobile welfare-oriented egg-laying hen farming system according to claim 1, characterized in that: The bottom net of the egg-laying box (25) is inclined, and the bottom of the egg-laying box (25) is provided with an egg-collecting conveyor belt (26); the perches (24) of the middle layer and the perches (24) of the bottom layer are both provided with inclined bottom nets (28), and the bottom of the inclined bottom nets (28) is provided with an intermediate conveyor belt (29).
3. The mobile welfare-oriented egg-laying hen farming system according to claim 1, characterized in that: The material line (27) includes a batching bin (7), which is connected to two storage bins (9) via two conveying pipes (8). The two storage bins (9) are respectively located at the ends of the perching rack (24) in the middle layer and the perching rack (24) in the bottom layer. Each storage bin (9) is equipped with a chain auger feeding mechanism at its outlet. The storage bin (9) is connected to several material troughs (12) distributed on the perching rack (24) in the middle layer and the perching rack (24) in the bottom layer via the chain auger feeding mechanism.
4. The mobile welfare-oriented egg-laying hen farming system according to claim 1, characterized in that: The water line (22) includes a water supply pipeline. One end of the water supply pipeline is connected to a water source. The other end of the water supply pipeline passes through a slightly acidic electrolyzed water generator (14) and a filter (13) in sequence before splitting into two paths. One path is connected to several nipple drinkers (11) distributed on the perch (24) in the middle layer. The other path is connected to several nipple drinkers (11) distributed on the perch (24) in the bottom layer.
5. The mobile welfare-oriented egg-laying hen farming system according to claim 2, characterized in that: The manure treatment assembly includes a fermentation bed (4) and a slatted floor (15); the slatted floor (15) is laid at the bottom of the breeding room (19), and the fermentation bed (4) is located below the slatted floor (15); a manure cleaning door (30) is located on the back of the breeding room (19); a manure cleaning conveyor belt is provided at the manure outlet of the manure cleaning door (30).
6. The mobile welfare-oriented egg-laying hen farming system according to claim 1, characterized in that: The breeding room (19) is equipped with ventilation doors at both ends. One of the ventilation doors has a wet curtain (1) hanging on the top, and the other ventilation door has a ventilation fan (18) installed inside.
7. The mobile welfare-oriented egg-laying hen farming system according to claim 6, characterized in that: The breeding room (19) is equipped with a gas sensor (16), which is electrically connected to the Internet of Things control system (17).
8. The mobile welfare-oriented egg-laying hen farming system according to any one of claims 1 to 7, characterized in that: Interlayer ladders (23) are provided between the top perch (24), the middle perch (24), and the bottom perch (24).
9. The mobile welfare-oriented egg-laying hen farming system according to any one of claims 1 to 7, characterized in that: It also includes a sports field (21), and the breeding room (19) is located in the sports field (21); the front of the breeding room (19) is provided with an automatic opening and closing door (3) and an entrance door (2), and the entrance and exit ladder (20) is provided at the door of the automatic opening and closing door (3).
10. The mobile welfare-oriented egg-laying hen farming system according to claim 9, characterized in that: The bottom of the breeding chamber (19) is equipped with wheels (6), and the side of the breeding chamber (19) is connected to a traction device (5); the traction device (5) is used to drive the breeding chamber (19) to move.