Intelligent sow feeding system with excess feed monitoring function

By combining cloud service management with weighing devices, remote control and real-time monitoring of the intelligent sow feeding system have been achieved, solving the problems of high labor costs and feed waste in existing technologies and meeting the needs of modern pig production.

CN121867112APending Publication Date: 2026-04-17SHENZHEN TUSIXUN TECH CO LTD
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Patent Information

Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
SHENZHEN TUSIXUN TECH CO LTD
Filing Date
2023-11-09
Publication Date
2026-04-17

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Abstract

The invention discloses an intelligent sow feeding system with an excess feed monitoring function, and relates to the technical field of sow feeding, and the system comprises the following contents: S1, cloud service management: a wireless router, a mobile terminal, an automatic feeding machine, an alarm device, a solar device and a feeding device are included; s2, a trough is assembled; s3, data monitoring: a weighing trough device comprises a pressure sensor which is used for weighing residual feed in a weighing trough and monitoring the feeding condition of the sow in real time; and S4, feeding information is uploaded. According to the remote feeding method achieved through the system, automatic feeding according to the variety and weight of feed can be remotely controlled, the labor cost is saved, the activity range of sows can be controlled, the alarm function of a feeding pen is achieved, diversified feeding of the variety of feed is achieved, and feeding according to the weight of the feed is achieved; feed is filled into the feed storage bin in time; and various nutritional feeds are matched and mixed for feeding.
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Description

Technical Field

[0001] This invention relates to the field of sow feeding technology, specifically to an intelligent sow feeding system with residual feed monitoring function. Background Technology

[0002] Postpartum paralysis in sows, also known as postpartum paralysis or wind paralysis, is an acute hypoglycemic disorder (acute neurological disorder) that occurs suddenly after sows give birth, characterized by loss of consciousness and paralysis of the limbs. It can occur regardless of breed, age, parity, or body condition. Currently, the etiology of this disease is not fully understood. It is generally believed to be due to a lack of calcium and phosphorus in the diet, an imbalance in the calcium-to-phosphorus ratio, insufficient vitamin D content, or insufficient exercise and light exposure leading to vitamin D deficiency. This results in decreased absorption capacity of the body. Postpartum lactation in sows leads to a sudden decrease in blood calcium and blood sugar levels due to the loss of these levels through milk, causing dysfunction of the cerebral cortex. This is also attributed to the sow's low immunity. To eliminate this disease, the main focus is on improving the feeding and management conditions of sows, paying particular attention to a balanced diet and supplementing with mineral feeds. Secondly, it is crucial to strengthen pre- and post-partum care for sows, providing ample clean, dry hay and manually turning them 2-3 times daily. Pre-partum exercise should also be encouraged, ensuring sufficient sunlight, dry pens, and good ventilation. Finally, pregnant sows should be fed at least 20g of bone meal and 20g of salt daily, along with easily digestible, nutrient-rich concentrated green fodder. Among the aforementioned solutions, a reasonable combination of nutrients and supplemental mineral feed are essential for sows' diets. However, the requirements for sows' living habits are overly complicated, indicating that the effective components of the feed are not high. Therefore, it is necessary to scientifically understand the growth and reproduction patterns of pigs, evaluate feeding effects, and find scientific, economical, and practical sow feeding methods. To improve the effectiveness of sow feeding, this invention provides an intelligent sow feeding system with leftover feed monitoring functionality. The existing technology has the following problems:

[0003] 1. Existing intelligent feeding systems for sows with residual feed monitoring functions cannot achieve remote control to automatically dispense feed according to the type and weight of feed. The cost of manual feeding is high, and it cannot achieve diversified feeding of feed types or quantitative feed dispensing.

[0004] 2. Existing intelligent feeding systems for sows with residual feed monitoring functions cannot weigh the remaining feed inside the feed trough, making it difficult to monitor the remaining feed in real time, which easily leads to feed waste and cannot meet the needs of modern pig production. Summary of the Invention

[0005] To solve the above-mentioned technical problems, the technical solution adopted by the present invention is as follows:

[0006] A smart feeding system for sows with residual feed monitoring function includes the following:

[0007] S1, Cloud Service Management: Includes wireless routers, mobile terminals, automatic feeders, alarm devices, solar energy devices, and feeders;

[0008] S2. Feed trough assembly: mainly consists of a weighing guardrail device for weighing pigs, a weighing feed trough device for feeding pigs, and a feed dispensing device controller for feeding the weighing feed trough device. The pressure sensor of the weighing guardrail device is installed on the crossbar, the inner pen for weighing pigs is suspended on the weighing connecting rod, and the weighing connecting rod is attached to the tension sensor.

[0009] S3. Data monitoring: The weighing feed trough device includes a pressure sensor that weighs the remaining feed inside the weighing feed trough to monitor the sow's feeding status in real time.

[0010] S4. Feeding Information Upload: After the pressure sensor weighs the remaining feed inside the symmetrical weighing trough, the weighing data is remotely transmitted through a wireless router and mobile terminal, allowing staff to monitor remotely.

[0011] A further improvement of the technical solution of the present invention is that: the S1 wireless router is used to acquire network signals and convert the network signals into wireless network signals; the mobile terminal communicates with the wireless router; the mobile terminal receives the wireless network signals and establishes a matching connection; the automatic feeder communicates with the wireless router; the automatic feeder receives the wireless network signals and establishes a matching connection with the mobile terminal.

[0012] A further improvement of the technical solution of the present invention is that: the automatic feeder communicates with the wireless router, and the automatic feeder receives the wireless network signal and establishes a matching connection with the mobile terminal.

[0013] A further improvement of the technical solution of the present invention is that: the S2 controller includes a computer, and its input / output interface is connected to a display for simply displaying the pig's individual parameters, load-bearing control parameters, feeding control parameters and identification code information.

[0014] A further improvement of the technical solution of the present invention is that: the S2 weighing trough device includes a support frame, a pressure sensor, and a trough. The pressure sensor is fixed on the support frame, and the trough is suspended on the pressure or tension sensor. There is a gap between the trough and the support frame, and an automatic adjustment device in the front-back and left-right directions is provided between the trough and the support frame.

[0015] Due to the adoption of the above technical solution, the technical progress achieved by this invention compared to the prior art is as follows:

[0016] 1. This invention provides an intelligent feeding system for sows with residual feed monitoring function. Under the shared management of cloud services, the cloud service management consists of a wireless router, a mobile terminal, an automatic feeder, an alarm device, a solar energy device, and a feeding device. Using this system, a remote feeding method can be realized. It can not only remotely control the automatic feeding according to the type and weight of feed, saving labor costs, but also control the activity range of sows and realize the alarm function of the feeding pen, realize the diverse feeding of feed types, realize the feeding by weight, timely replenish the feed storage bin, and realize the mixed feeding of multiple nutritious feeds.

[0017] 2. This invention provides an intelligent feeding system for sows with residual feed monitoring function. Under the action of data monitoring, the pressure sensor included in the weighing feed trough device weighs the residual feed inside the weighing feed trough, and monitors the sow's feeding status in real time. It not only has a simple structure, reliable performance, and low manufacturing and use costs, but also has the advantages of small system error, high precision, less feed waste, and high information automation. It can replace imported products and meet the needs of modern pig production. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the process structure of an intelligent feeding system for sows with residual feed monitoring function according to the present invention. Detailed Implementation

[0019] The present invention will be further described in detail below with reference to embodiments:

[0020] Example 1

[0021] like Figure 1 As shown, this invention provides an intelligent feeding system for sows with residual feed monitoring function, including the following:

[0022] S1, Cloud Service Management: Includes wireless routers, mobile terminals, automatic feeders, alarm devices, solar energy devices, and feeders;

[0023] S2. Feed trough assembly: mainly consists of a weighing guardrail device for weighing pigs, a weighing feed trough device for feeding pigs, and a feed dispensing device controller for adding feed to the weighing feed trough device. The weighing guardrail device includes an inner pig weighing pen, a weighing connecting rod, a pressure sensor, and an outer protective fence. The inner pig weighing pen is placed inside the outer protective fence, and the weighing connecting rod is located at the top of the outer protective fence. A crossbar is also provided at the top of the outer protective fence. The pressure sensor is installed on the crossbar. The inner pig weighing pen is suspended on the weighing connecting rod, and the weighing connecting rod is connected to the tension sensor.

[0024] S3. Data monitoring: The weighing feed trough device includes a pressure sensor to weigh the remaining feed inside the weighing feed trough and monitor the sow's feeding status in real time.

[0025] S4. Feeding Information Upload: After the pressure sensor weighs the remaining feed inside the symmetrical weighing trough, the weighing data is remotely transmitted through a wireless router and mobile terminal, allowing staff to monitor remotely.

[0026] In this implementation case, the cloud service management system consists of a wireless router, a mobile terminal, an automatic feeder, an alarm device, a solar panel, and a feeding device. This system enables remote feeding, allowing for remote control of automatic feed dispensing based on type and weight, saving labor costs. It also controls the sow's activity range, provides alarms for the feeding pen, enables diverse feeding options, allows for weight-based feed dispensing, timely replenishment of feed storage bins, and mixed feeding of various nutrient feeds.

[0027] Example 2

[0028] like Figure 1 As shown, based on Embodiment 1, the present invention provides a technical solution: Preferably, S1 is a wireless router used to acquire network signals and convert the network signals into wireless network signals. A mobile terminal communicates with the wireless router, receives the wireless network signals and establishes a matching connection. An automatic feeder communicates with the wireless router, receives the wireless network signals and establishes a matching connection with the mobile terminal. An automatic feeder communicates with the wireless router, receives the wireless network signals and establishes a matching connection with the mobile terminal. An automatic feeder receives the wireless network signals and establishes a matching connection with the mobile terminal. S2 is a controller including a computer, whose input / output interface is connected to a display for simply displaying the pig's individual parameters, weight control parameters, feeding control parameters and identification code information. S2 is a weighing feeder device including a support frame, a pressure sensor and a feeder. The pressure sensor is fixed on the support frame, and the feeder is suspended on the pressure or tension sensor. There is a gap between the feeder and the support frame. Automatic adjustment devices in the front-back and left-right directions are provided between the feeder and the support frame.

[0029] In this embodiment, the weighing feed trough device includes a pressure sensor that weighs the remaining feed inside the weighing feed trough to monitor the sow's feeding status in real time. It not only has a simple structure, reliable performance, and low manufacturing and usage costs, but also has significant advantages such as small system error, high precision, less feed waste, and high degree of information automation. It can replace imported products and meet the needs of modern pig farming.

[0030] The working principle of this intelligent feeding system for sows with residual feed monitoring function will be explained in detail below.

[0031] like Figure 1As shown, cloud service management includes a wireless router, a mobile terminal, an automatic feeder, an alarm device, a solar panel, and a feeder. The wireless router acquires network signals and converts them into wireless network signals. The mobile terminal communicates with the wireless router, receives the wireless network signals, and establishes a pairing connection. The automatic feeder also communicates with the wireless router, receives the wireless network signals, and establishes a pairing connection with the mobile terminal. The cloud service management system comprises a wireless router, a mobile terminal, an automatic feeder, and... The system comprises an alarm device, a solar panel, and a feeding device. Utilizing this system, remote feeding is achieved. It not only allows for remote control of automatic feed dispensing based on type and weight, saving labor costs, but also controls the sow's activity range and provides an alarm function for the feeding pen. It enables diverse feed varieties, weight-based feed dispensing, timely replenishment of feed storage bins, and mixed feeding of various nutrient feeds. The feed trough assembly mainly consists of a weighing guardrail device for weighing pigs, a weighing feed trough device for feeding pigs, and a feed dispensing device controller for adding feed to the weighing feed trough device. The weighing guardrail device includes an inner pig-weighing pen, a weighing linkage, a pressure sensor, and an outer protective fence. The inner pig-weighing pen is placed on the outer... Inside the protective enclosure, a weighing linkage is located at the top of the outer protective enclosure. A horizontal bar is also installed at the top of the outer protective enclosure, and a pressure sensor is mounted on the horizontal bar. The pig's inner pen is suspended from the weighing linkage, which is connected to a tension sensor. The controller includes a computer with input / output interfaces connected to displays for simple information about the pig, such as individual parameters, load-bearing control parameters, feeding control parameters, and identification code information. The weighing feeder device includes a support frame, a pressure sensor, and a feeder. The pressure sensor is fixed to the support frame, and the feeder is suspended from the pressure or tension sensor. There is a gap between the feeder and the support frame. Automatic adjustment devices in both the front-to-back and left-to-right directions are provided between the feeder and the support frame. The included pressure sensor weighs the remaining feed inside the symmetrical weighing trough, enabling real-time monitoring of the sow's feeding status. It boasts advantages such as simple structure, reliable performance, low manufacturing and operating costs, small system error, high precision, minimal feed waste, and high degree of automation. It can replace imported products and meet the needs of modern pig farming. Data monitoring: The weighing trough device includes a pressure sensor to weigh the remaining feed inside the symmetrical weighing trough, enabling real-time monitoring of the sow's feeding status. Feeding information upload: After the pressure sensor weighs the remaining feed inside the symmetrical weighing trough, the weighing data is remotely transmitted via a wireless router and mobile terminal, allowing staff to monitor remotely.

[0032] The present invention has been described in detail above. However, modifications or improvements can be made to it, which will be obvious to those skilled in the art. Therefore, any modifications or improvements that do not depart from the spirit of the present invention are within the scope of protection of the present invention.

Claims

1. A smart feeding system for sows with residual feed monitoring function, comprising the following features: S1, Cloud Service Management: Includes wireless routers, mobile terminals, automatic feeders, alarm devices, solar energy devices, and feeders; S2. Feed trough assembly: mainly consists of a weighing guardrail device for weighing pigs, a weighing feed trough device for feeding pigs, and a feed dispensing device controller for adding feed to the weighing feed trough device. The pressure sensor of the weighing guardrail device is installed on the crossbar, the inner pen for weighing pigs is suspended on the weighing connecting rod, and the weighing connecting rod is attached to the tension sensor. S3. Data monitoring: The weighing feed trough device includes a pressure sensor that weighs the remaining feed inside the weighing feed trough to monitor the sow's feeding status in real time. S4. Feeding Information Upload: After the pressure sensor weighs the remaining feed inside the symmetrical weighing trough, the weighing data is remotely transmitted through a wireless router and mobile terminal, allowing staff to monitor remotely.

2. The sow intelligent feeding system with excess material monitoring function according to claim 1, characterized in that: The S1 wireless router is used to acquire network signals and convert them into wireless network signals. The mobile terminal communicates with the wireless router, receives the wireless network signals, and establishes a matching connection. The automatic feeder communicates with the wireless router, receives the wireless network signals, and establishes a matching connection with the mobile terminal.

3. The sow intelligent feeding system with excess material monitoring function according to claim 2, characterized in that: The automatic feeder communicates with the wireless router, receives the wireless network signal, and establishes a matching connection with the mobile terminal.

4. The sow intelligent feeding system with excess material monitoring function according to claim 1, characterized in that: The S2 controller includes a computer with an input / output interface connected to a display for simply showing the pig's individual parameters, weight control parameters, feeding control parameters, and identification code information.

5. The sow intelligent feeding system with excess material monitoring function according to claim 1, characterized in that: The S2 weighing trough device includes a support frame, a pressure sensor, and a trough. The pressure sensor is fixed on the support frame, and the trough is suspended on the pressure or tension sensor. There is a gap between the trough and the support frame, and there are automatic adjustment devices in the front-back and left-right directions between the trough and the support frame.