Intelligent laying hen water purification control and detection method and system

Abstract

The application discloses an intelligent egg-laying hen drinking water purification control and detection method and system, and the method comprises the following steps: according to different growth stages of the egg-laying hen, a differentiated drinking water purification control mechanism is adaptively executed; for the brooding period, a first mechanism is executed: the flow rate, temperature, pH value and concentration of a first compound of the drinking water are detected, the preset flow rate device, the heat exchanger and the acidifier are controlled according to the detection results, and it is determined whether to start the ultrafiltration device; for the growing period, a second mechanism is executed: the concentration of a second compound is detected, the flow rate device, the heat exchanger and the acidifier are controlled, and it is determined whether to start the water softener; for the egg-laying period, a third mechanism is executed: the metal concentration is detected, the flow rate device, the heat exchanger and the acidifier are controlled, and it is determined whether to replace the drinking water according to the metal concentration threshold value. Through the precise control in different stages, the application realizes the automatic and intelligent management of the drinking water purification of the egg-laying hen in different stages, guarantees the health of the chicken group, reduces the disease risk, and helps to improve the egg-laying rate and the breeding benefit.

Description

Technical Field

[0001] This invention relates to the field of data processing technology, and more specifically, to an intelligent method and system for controlling and detecting the purification of drinking water for laying hens. Background Technology

[0002] The drinking water purification system cannot identify the growth stage of laying hens and uses the same treatment mode (such as fixed filtration or disinfection) for all flocks, resulting in insufficient purification during the brooding period or mineral imbalance during the laying period, which affects the health and production performance of the flock. In current farming, the drinking water flow rate, temperature and pH value mostly rely on manual periodic measurement and manual adjustment, which is slow to respond and often causes problems such as insufficient drinking water due to too slow flow rate, stress caused by too high or too low temperature, and improper pH value affecting digestion or drug efficacy. Moreover, there is a lack of linkage control mechanism.

[0003] Meanwhile, traditional methods cannot automatically detect changes in the concentration of specific harmful compounds (such as disinfection byproducts and hardness ions) or metal ions in the water, leading to untimely start-up and shutdown of key equipment such as ultrafiltration and water softeners (over-treatment or under-treatment). Furthermore, they cannot proactively prompt the replacement of drinking water components based on the degree of metal corrosion, which can easily cause water quality deterioration and equipment damage, affecting the growth of laying hens. Moreover, the current drinking nipple specifications and flow rate adjustments do not take into account the physiological differences of laying hens at different stages (such as chicks being weak and laying hens having a high water requirement), often resulting in chicks choking or having difficulty drinking due to improper flow rates, and laying hens not drinking enough water. All of these problems urgently need to be solved. Summary of the Invention

[0004] The purpose of this invention is to provide an intelligent method and system for controlling and detecting drinking water purification in laying hens, which solves the problems of existing technologies that cannot adaptively adjust purification strategies according to different growth stages of laying hens, and lack real-time closed-loop linkage control of multiple parameters such as drinking water flow rate, temperature, and pH value.

[0005] The first aspect of this invention provides an intelligent method for controlling and detecting the purification of drinking water for laying hens, comprising the following steps: Obtain the laying hen population data input by the user, which includes laying hens in the brooding period, laying hens in the growing period, and laying hens in the laying period; Based on the aforementioned laying hen population data, different drinking water purification detection mechanisms are adaptively implemented, wherein... During the brooding period, the laying hens implement a first mechanism, which includes acquiring the detected drinking water flow rate, drinking water temperature, pH value and first compound concentration, controlling and outputting a preset flow meter operation process based on the drinking water flow rate, controlling and outputting a preset heat exchanger operation process based on the drinking water temperature, controlling and outputting the acidifying agent dosage based on the pH value, and controlling and outputting whether to start the ultrafiltration device based on the first compound concentration. During the rearing period, the laying hens implement a second mechanism, which includes obtaining the detected concentration of a second compound, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of the acidifying agent dosage based on the pH value, and controlling whether to start the water softener based on the concentration of the second compound. During the laying period, the laying hen executes a third mechanism, which includes acquiring the detected metal concentration, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of acidifying agent dosage based on the pH value, and performing a threshold judgment based on the metal concentration to control whether to change the drinking water.

[0006] In this solution, the first mechanism includes acquiring the detected drinking water flow rate, drinking water temperature, pH value, and first compound concentration; controlling and outputting a preset flow meter operation process based on the drinking water flow rate; controlling and outputting a preset heat exchanger operation process based on the drinking water temperature; controlling and outputting the acidifying agent dosage based on the pH value; and controlling and outputting whether to start the ultrafiltration device based on the first compound concentration. Specifically, it includes: The flow meter nipple includes a first nipple, which includes a first-sized steel ball or a cone valve type nipple; The threshold is determined based on the drinking water flow rate and the first flow rate. If the first flow rate is not within the first flow rate threshold range, the operation process is to adjust the drinking water flow rate based on the first nipple control output. Based on the drinking water temperature and the first temperature, a threshold judgment is made. If the first temperature is not within the first temperature threshold range, the operation process of adjusting the drinking water temperature is based on the heat exchanger control output. A threshold judgment is made based on the pH value and the target pH value during the brooding period. If the pH value is less than the target pH value during the brooding period, the control output prohibits the use of the acidifier. A threshold judgment is made based on the concentration of the first compound and the concentration of the brooding period compound. If the concentration of the first compound is greater than the concentration of the brooding period compound, the control output is used to start the ultrafiltration device. The concentration of the first compound includes the concentration of chlorine dioxide.

[0007] In this solution, the second mechanism includes obtaining the detected concentration of the second compound, controlling and outputting a preset flow meter operation process based on the drinking water flow rate, controlling and outputting a preset heat exchanger operation process based on the drinking water temperature, controlling and outputting the acidifying agent dosage based on the pH value, and controlling and outputting whether to start the water softener based on the concentration of the second compound. Specifically, it includes: The flow meter nipple also includes a second nipple, the second nipple including a steel ball of a second size; The process involves determining a threshold based on the drinking water flow rate and the second flow rate. If the second flow rate is not within the second flow rate threshold range, the process involves adjusting the drinking water flow rate based on the second nipple control output. Based on the drinking water temperature and the second temperature, a threshold judgment is made. If the second temperature is not within the second temperature threshold range, the operation process of adjusting the drinking water temperature is based on the heat exchanger control output. A threshold judgment is made based on the pH value and the pH target value during the growth period. If the pH value is less than the pH target value during the growth period, the control output prohibits the use of the acidifier. A threshold judgment is made based on the concentration of the second compound and the concentration of the compound during the growth period. If the concentration of the second compound is greater than the concentration of the compound during the growth period, the control output is activated to start the water softener. The concentration of the second compound includes the concentration of calcium carbonate.

[0008] In this solution, the third mechanism includes acquiring the detected metal concentration, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of acidifying agent dosage based on the pH value, and performing a threshold judgment based on the metal concentration to control whether to replace the drinking water. Specifically, it includes: The flow meter nipple also includes a third nipple, which includes a steel ball of a third size; The threshold is determined based on the drinking water flow rate and the third flow rate. If the third flow rate is not within the third flow rate threshold range, the operation process is to adjust the drinking water flow rate based on the third nipple control output. Based on the drinking water temperature and a third temperature, a threshold judgment is made. If the third temperature is not within the third temperature threshold range, the operation process of adjusting the drinking water temperature is based on the heat exchanger control output. A threshold judgment is made based on the pH value and the target pH value during the egg-laying period. If the pH value is less than the target pH value during the egg-laying period, the control output prohibits the use of the acidifier. A threshold judgment is made based on the metal concentration and the metal concentration during the egg-laying period. If the metal concentration is greater than the metal concentration during the egg-laying period, the control output changes the valve type. The metal concentration includes copper and zinc concentrations.

[0009] The workflow for adjusting the drinking water flow rate based on the flow meter nipple in this solution specifically includes: If the aforementioned laying hen population data refers to brooding hens, then the water flow rate... Located within the first threshold range If the internal flow rate is not adjusted, the water flow rate will not be adjusted; otherwise, the control output will adjust the operating mechanism of the first nipple. Specifically, if the water flow rate... Then the control output adjusts the first nipple to a relaxed state, and the water flow rate... The control output adjusts the first nipple to a compressed state, wherein the amount of pressure adjustment of the first nipple (compression / compression) is exponentially related to the flow rate difference, and the diameter corresponding to the first nipple includes... ; If the aforementioned laying hen population data refers to rearing laying hens, then if the water flow rate... Located in the second threshold range If the internal flow rate is not adjusted, the drinking water flow rate will not be adjusted; otherwise, the control output will adjust the operating mechanism of the second nipple. Specifically, if the drinking water flow rate... Then, the control output adjusts the second nipple to a relaxed state, and the water flow rate... The control output adjusts the second nipple to a compressed state, wherein the amount of pressure adjustment of the second nipple (compression / compression) is exponentially related to the flow rate difference, and the diameter corresponding to the second nipple includes... ; If the aforementioned laying hen population data refers to laying hens, then if the water flow rate... Located in the third threshold range If the internal flow rate is not adjusted, the drinking water flow rate will not be adjusted; otherwise, the control output will adjust the operating mechanism of the third nipple. Specifically, if the drinking water flow rate... Then, the control output adjusts the third nipple to a relaxed state, and the water flow rate... Then, the control output adjusts the third nipple to a compressed state, wherein the amount of pressure adjustment of the third nipple is exponentially related to the flow rate difference, and the diameter corresponding to the third nipple includes... .

[0010] In this solution, the workflow for adjusting the drinking water temperature based on the heat exchanger specifically includes: The first temperature threshold range is The second temperature threshold range is The third temperature threshold is 1. ; When the first temperature is not within the first temperature threshold range, or the second temperature is not within the second temperature threshold range, or the third temperature is not within the third temperature threshold range, the temperature difference is calculated, and the output temperature is adjusted by controlling the heat exchanger in combination with the temperature difference, wherein the adjusted temperature of the heat exchanger is linearly related to the temperature difference.

[0011] In this plan, the target pH value during the brooding period includes: The target pH value during the growth period includes The target pH value during the egg-laying period includes .

[0012] A second aspect of the present invention also provides an intelligent drinking water purification control and detection system for laying hens, comprising a memory and a processor. The memory includes an intelligent drinking water purification control and detection method program for laying hens. When the intelligent drinking water purification control and detection method program for laying hens is executed by the processor, it performs the following steps: Obtain the laying hen population data input by the user, which includes laying hens in the brooding period, laying hens in the growing period, and laying hens in the laying period; Based on the aforementioned laying hen population data, different drinking water purification detection mechanisms are adaptively implemented, wherein... During the brooding period, the laying hens implement a first mechanism, which includes acquiring the detected drinking water flow rate, drinking water temperature, pH value and first compound concentration, controlling and outputting a preset flow meter operation process based on the drinking water flow rate, controlling and outputting a preset heat exchanger operation process based on the drinking water temperature, controlling and outputting the acidifying agent dosage based on the pH value, and controlling and outputting whether to start the ultrafiltration device based on the first compound concentration. During the rearing period, the laying hens implement a second mechanism, which includes obtaining the detected concentration of a second compound, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of the acidifying agent dosage based on the pH value, and controlling whether to start the water softener based on the concentration of the second compound. During the laying period, the laying hen executes a third mechanism, which includes acquiring the detected metal concentration, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of acidifying agent dosage based on the pH value, and performing a threshold judgment based on the metal concentration to control whether to change the drinking water.

[0013] A third aspect of the present invention provides a computer-readable storage medium comprising a program for an intelligent method of controlling and detecting drinking water purification in laying hens. When executed by a processor, the program implements the steps of the intelligent method of controlling and detecting drinking water purification in laying hens as described in any of the preceding claims.

[0014] A fourth aspect of the present invention provides an electronic device comprising: a processor and a memory; wherein the memory is used to store a computer program, and the processor is used to execute the computer program stored in the memory to cause the electronic device to perform the steps of an intelligent drinking water purification control and detection method for laying hens as described in any of the preceding claims.

[0015] The present invention discloses an intelligent method and system for controlling and detecting drinking water purification in laying hens, which has the following beneficial effects: 1. This invention can automatically switch between different detection and control mechanisms according to the brooding period, growing period and laying period of laying hens, and implement differentiated purification strategies according to the characteristics of each stage (such as ultrafiltration during the brooding period, soft water during the growing period and monitoring of metal concentration during the laying period), thus avoiding the traditional "one-size-fits-all" water treatment method. 2. This invention can detect drinking water flow rate, temperature, and pH value in real time, and automatically control the preset flow meter (nipple loose / tight state), heat exchanger, and acidifier dosage to form a closed-loop regulation, ensuring that the drinking water is always in the optimal parameter range at each stage. 3. This invention provides an automatic start-stop ultrafiltration device for monitoring the concentration of a first compound (such as chlorine dioxide) during the brooding period; an automatic start-stop water softener for monitoring the concentration of a second compound (such as calcium carbonate) during the rearing period; and an automatic judgment and prompt for changing drinking water or valve type for monitoring the concentration of metals (such as copper and zinc) during the egg-laying period, thereby achieving precise deep water treatment and equipment maintenance early warning. 4. This invention sets different nipples and corresponding flow rate threshold ranges for the brooding period, growing period, and laying period, and dynamically adjusts the nipple pressure through an exponential relationship to accurately match the drinking capacity and needs of chickens at each stage. Attached Figure Description

[0016] Figure 1 This invention provides a schematic diagram illustrating the steps of an intelligent drinking water purification control and detection method for laying hens. Figure 2 A schematic diagram of the flow rate nipple in an intelligent drinking water purification control and detection method for laying hens according to the present invention is shown; Figure 3 A block diagram of an intelligent drinking water purification control and detection system for laying hens according to the present invention is shown. Detailed Implementation

[0017] To better understand the above-mentioned objectives, features, and advantages of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments of the present invention and the features thereof can be combined with each other.

[0018] Many specific details are set forth in the following description in order to provide a full understanding of the invention. However, the invention may also be practiced in other ways different from those described herein, and therefore the scope of protection of the invention is not limited to the specific embodiments disclosed below.

[0019] Specifically, Figure 1 The diagram illustrates the steps of an intelligent drinking water purification control and detection method for laying hens according to the present invention.

[0020] like Figure 1As shown, this invention discloses an intelligent method for controlling and detecting drinking water purification in laying hens, specifically including the following steps: Obtain the laying hen population data input by the user, which includes laying hens in the brooding period, laying hens in the growing period, and laying hens in the laying period; Based on the aforementioned laying hen population data, different drinking water purification detection mechanisms are adaptively implemented, wherein... During the brooding period, the laying hens implement a first mechanism, which includes acquiring the detected drinking water flow rate, drinking water temperature, pH value and first compound concentration, controlling and outputting a preset flow meter operation process based on the drinking water flow rate, controlling and outputting a preset heat exchanger operation process based on the drinking water temperature, controlling and outputting the acidifying agent dosage based on the pH value, and controlling and outputting whether to start the ultrafiltration device based on the first compound concentration. During the rearing period, the laying hens implement a second mechanism, which includes obtaining the detected concentration of a second compound, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of the acidifying agent dosage based on the pH value, and controlling whether to start the water softener based on the concentration of the second compound. During the laying period, the laying hen executes a third mechanism, which includes acquiring the detected metal concentration, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of acidifying agent dosage based on the pH value, and performing a threshold judgment based on the metal concentration to control whether to change the drinking water.

[0021] It should be noted that, in this embodiment, when the method is applied, it first obtains the laying hen population data input by the user. Accordingly, the laying hen population data input by the user includes brooding hens, growing hens, and laying hens. The execution mechanism corresponding to laying hens at different stages is different. That is, different drinking water purification detection mechanisms are adaptively executed based on the laying hen population data. Among them, brooding hens execute the first mechanism, which includes obtaining the detected drinking water flow rate, drinking water temperature, pH value, and first compound concentration. Based on the drinking water flow rate, a preset flow meter operation process is output; based on the drinking water temperature, a preset heat exchanger operation process is output; based on the pH value, the acidifying agent dosage is output; and based on the first compound concentration, the water purification detection mechanism is controlled. The system outputs whether to activate the ultrafiltration device. During the rearing period, laying hens execute a second mechanism, which includes acquiring the detected concentration of a second compound, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of the acidifying agent dosage based on the pH value, and controlling whether to activate the water softener based on the concentration of the second compound. During the laying period, laying hens execute a third mechanism, which includes acquiring the detected metal concentration, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of the acidifying agent dosage based on the pH value, and performing a threshold judgment based on the metal concentration to control whether to change the drinking water.

[0022] According to an embodiment of the present invention, the first mechanism includes acquiring the detected drinking water flow rate, drinking water temperature, pH value, and first compound concentration; controlling and outputting a preset flow meter operation process based on the drinking water flow rate; controlling and outputting a preset heat exchanger operation process based on the drinking water temperature; controlling and outputting the acidifying agent dosage based on the pH value; and controlling and outputting whether to start the ultrafiltration device based on the first compound concentration. Specifically, it includes: The flow meter nipple includes a first nipple, which includes a first-sized steel ball or a cone valve type nipple; The threshold is determined based on the drinking water flow rate and the first flow rate. If the first flow rate is not within the first flow rate threshold range, the operation process is to adjust the drinking water flow rate based on the first nipple control output. Based on the drinking water temperature and the first temperature, a threshold judgment is made. If the first temperature is not within the first temperature threshold range, the operation process of adjusting the drinking water temperature is based on the heat exchanger control output. A threshold judgment is made based on the pH value and the target pH value during the brooding period. If the pH value is less than the target pH value during the brooding period, the control output prohibits the use of the acidifier. A threshold judgment is made based on the concentration of the first compound and the concentration of the brooding period compound. If the concentration of the first compound is greater than the concentration of the brooding period compound, the control output is used to start the ultrafiltration device. The concentration of the first compound includes the concentration of chlorine dioxide.

[0023] It should be noted that, in this embodiment, when executing the first mechanism, a threshold judgment is made based on the drinking water flow rate combined with a first flow rate. If the first flow rate is not within the first flow rate threshold range, then the operation process of adjusting the drinking water flow rate is based on the first nipple control output. Specifically, if the drinking water flow rate... Located within the first threshold range If the internal flow rate is not adjusted, the water flow rate will not be adjusted; otherwise, the control output will adjust the operating mechanism of the first nipple. Specifically, if the water flow rate... Then the control output adjusts the first nipple to a relaxed state, and the water flow rate... The control output adjusts the first nipple to a compressed state, wherein the amount of pressure adjustment of the first nipple (compression / compression) is exponentially related to the flow rate difference, and the diameter corresponding to the first nipple includes... , specifically Figure 2 As shown.

[0024] Furthermore, in this embodiment, a threshold judgment is performed based on the drinking water temperature and a first temperature. If the first temperature is not within the first temperature threshold range, an operation process is initiated to adjust the drinking water temperature based on the heat exchanger control output. The first temperature threshold range is... If the first temperature is not within the first temperature threshold range, the temperature difference is calculated, and the output temperature is adjusted by controlling the heat exchanger in combination with the temperature difference. The adjusted temperature of the heat exchanger is linearly related to the temperature difference.

[0025] Furthermore, in this embodiment, a threshold judgment is performed based on the pH value combined with the target pH value during the brooding period. If the pH value is less than the target pH value during the brooding period, the control output prohibits the use of the acidifier. The target pH value during the brooding period includes... The corresponding target pH value for the brooding period is "7". A threshold judgment is made based on the concentration of the first compound and the concentration of the brooding period compound. If the concentration of the first compound is greater than the concentration of the brooding period compound, the ultrafiltration device is activated. The first compound concentration includes chlorine dioxide concentration. At this stage, the chickens are small and drink little water, but intestinal infections can cause significant losses. If the chlorine dioxide concentration exceeds the concentration of the brooding period compound... This will disrupt the intestinal flora of chicks or damage the crop mucosa. Therefore, if the concentration of the first compound is greater than the concentration of the brooding compound, the control output will start the ultrafiltration device.

[0026] According to an embodiment of the present invention, the second mechanism includes acquiring the detected concentration of a second compound, controlling and outputting a preset flow meter operation process based on the drinking water flow rate, controlling and outputting a preset heat exchanger operation process based on the drinking water temperature, controlling and outputting the acidifying agent dosage based on the pH value, and controlling and outputting whether to start the water softener based on the concentration of the second compound. Specifically, it includes: The flow meter nipple also includes a second nipple, the second nipple including a steel ball of a second size; The process involves determining a threshold based on the drinking water flow rate and the second flow rate. If the second flow rate is not within the second flow rate threshold range, the process involves adjusting the drinking water flow rate based on the second nipple control output. Based on the drinking water temperature and the second temperature, a threshold judgment is made. If the second temperature is not within the second temperature threshold range, the operation process of adjusting the drinking water temperature is based on the heat exchanger control output. A threshold judgment is made based on the pH value and the pH target value during the growth period. If the pH value is less than the pH target value during the growth period, the control output prohibits the use of the acidifier. A threshold judgment is made based on the concentration of the second compound and the concentration of the compound during the growth period. If the concentration of the second compound is greater than the concentration of the compound during the growth period, the control output is activated to start the water softener. The concentration of the second compound includes the concentration of calcium carbonate.

[0027] It should be noted that, in this embodiment, when executing the second mechanism, a threshold judgment is made based on the drinking water flow rate combined with the second flow rate. If the second flow rate is not within the second flow rate threshold range, then the operation process of adjusting the drinking water flow rate is based on the second nipple control output. Specifically, if the drinking water flow rate... Located in the second threshold range If the internal flow rate is not adjusted, the drinking water flow rate will not be adjusted; otherwise, the control output will adjust the operating mechanism of the second nipple. Specifically, if the drinking water flow rate... Then, the control output adjusts the second nipple to a relaxed state, and the water flow rate... The control output adjusts the second nipple to a compressed state, wherein the amount of pressure adjustment of the second nipple (compression / compression) is exponentially related to the flow rate difference, and the diameter corresponding to the second nipple includes... Among them, specifically such as Figure 2 As shown.

[0028] Furthermore, in this embodiment, a threshold judgment is performed based on the drinking water temperature combined with a second temperature, wherein the second temperature threshold range is [missing information]. If the second temperature is not within the second temperature threshold range, the operation process of adjusting the drinking water temperature based on the heat exchanger control output is as follows: specifically, the temperature difference is calculated, and the operation process of adjusting the temperature using the heat exchanger control output is combined with the temperature difference, wherein the adjustment temperature of the heat exchanger is linearly related to the temperature difference.

[0029] Furthermore, in this embodiment, a threshold judgment is performed based on the pH value combined with the target pH value during the growth period. If the pH value is less than the target pH value during the growth period, the control output prohibits the use of the acidifying agent. The target pH value during the growth period includes... The corresponding target pH value for the incubation period is "6"; and a threshold judgment is made based on the concentration of the second compound and the concentration of the incubation period compound. If the concentration of the second compound is greater than the concentration of the incubation period compound, the water softener is activated. The concentration of the second compound includes the concentration of calcium carbonate. During application, if the concentration of calcium carbonate exceeds... If so, a water softener needs to be used to prevent blockage.

[0030] According to an embodiment of the present invention, the third mechanism includes acquiring the detected metal concentration, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of acidifying agent dosage based on the pH value, and performing a threshold judgment based on the metal concentration to control whether to replace the drinking water, specifically including: The flow meter nipple also includes a third nipple, which includes a steel ball of a third size; The threshold is determined based on the drinking water flow rate and the third flow rate. If the third flow rate is not within the third flow rate threshold range, the operation process is to adjust the drinking water flow rate based on the third nipple control output. Based on the drinking water temperature and a third temperature, a threshold judgment is made. If the third temperature is not within the third temperature threshold range, the operation process of adjusting the drinking water temperature is based on the heat exchanger control output. A threshold judgment is made based on the pH value and the target pH value during the egg-laying period. If the pH value is less than the target pH value during the egg-laying period, the control output prohibits the use of the acidifier. A threshold judgment is made based on the metal concentration and the metal concentration during the egg-laying period. If the metal concentration is greater than the metal concentration during the egg-laying period, the control output changes the valve type. The metal concentration includes copper and zinc concentrations.

[0031] It should be noted that, in this embodiment, when executing the third mechanism, a threshold judgment is made based on the drinking water flow rate combined with the third flow rate. If the third flow rate is not within the third flow rate threshold range, then the operation process of adjusting the drinking water flow rate is based on the third nipple control output. Specifically, if the drinking water flow rate... Located in the third threshold range If the internal flow rate is not adjusted, the drinking water flow rate will not be adjusted; otherwise, the control output will adjust the operating mechanism of the third nipple. Specifically, if the drinking water flow rate... Then, the control output adjusts the third nipple to a relaxed state, and the water flow rate... Then, the control output adjusts the third nipple to a compressed state, wherein the amount of pressure adjustment of the third nipple is exponentially related to the flow rate difference, and the diameter corresponding to the third nipple includes... Among them, specifically such as Figure 2 As shown.

[0032] Furthermore, in this embodiment, a threshold judgment is performed based on the drinking water temperature combined with a third temperature, wherein the third temperature threshold is 1. If the third temperature is not within the third temperature threshold range, the operation process of adjusting the drinking water temperature based on the heat exchanger control output is specifically calculated, and the operation process of adjusting the temperature using the heat exchanger control output is combined with the temperature difference, wherein the adjustment temperature of the heat exchanger is linearly related to the temperature difference.

[0033] Furthermore, in this embodiment, a threshold judgment is performed based on the pH value combined with the target pH value during the egg-laying period. If the pH value is less than the target pH value during the egg-laying period, the control output prohibits the use of the acidifying agent. The target pH value during the egg-laying period includes... The corresponding target pH value for the laying period is "6"; and a threshold judgment is made based on the metal concentration and the metal concentration during the laying period. If the metal concentration is greater than the metal concentration during the laying period, the control output will change the valve type. The metal concentration includes copper and zinc concentration. In application, laying hens are sensitive to heavy metals, so excessive corrosion products in the drinking water will cause the eggshells to become discolored and lighter or become spotted eggs. Therefore, in practical applications, it is recommended to use stainless steel or plastic materials in the purification equipment.

[0034] It is worth mentioning that the adjustment temperature of the heat exchanger is linearly related to the temperature difference, specifically including: The temperature difference between the drinking water temperature and the median temperature threshold is calculated as the temperature difference. The adjusted temperature is calculated based on the temperature difference using a preset linear function.

[0035] It should be noted that, in this embodiment, the median value of the first temperature threshold is 28℃, the median value of the second temperature threshold is 20℃, and the median value of the third temperature threshold is 18℃. The drinking water temperature of the corresponding population at different stages is calculated, and the adjusted temperature is obtained by substituting it into a preset linear function. The formula for the linear function is as follows: Among them, for adjusting the temperature, For drinking water temperature, For the first The median of the temperature thresholds, To adjust empirical parameters, A constant related to the temperature threshold.

[0036] It is worth mentioning that the adjustment of the pressure / density of the flow meter nipple is exponentially related to the flow rate difference, specifically including: Calculate the current velocity difference The velocity difference can be positive or negative. The tightness or looseness of state variables is distinguished based on the positive or negative relationship of the velocity difference. When the velocity difference is positive, the corresponding state variable is tight; when the velocity difference is negative, the corresponding state variable is loose. The state quantity is obtained by matching the flow velocity difference with a preset exponential function.

[0037] It should be noted that, in this embodiment, the flow rate difference is specifically calculated in relation to the threshold boundary value. Taking the third nipple as an example, if the drinking water flow rate... Then the surface When the value is less than zero, the corresponding flow rate difference is negative. At this time, the control output adjusts the third nipple to a relaxed state. The corresponding calculation formula is as follows: ,in, This indicates the pressure / compression status of the flow meter nipple. This is the empirical base of the exponential function, and can be taken as the natural base in application. , For drinking water flow rate, For threshold boundary values, This indicates taking the absolute value.

[0038] Figure 3 A block diagram of an intelligent drinking water purification control and detection system for laying hens according to the present invention is shown.

[0039] like Figure 3 As shown, this invention discloses an intelligent drinking water purification control and detection system for laying hens, including a memory and a processor. The memory includes an intelligent drinking water purification control and detection method program for laying hens. When the processor executes the intelligent drinking water purification control and detection method program for laying hens, it performs the following steps: Obtain the laying hen population data input by the user, which includes laying hens in the brooding period, laying hens in the growing period, and laying hens in the laying period; Based on the aforementioned laying hen population data, different drinking water purification detection mechanisms are adaptively implemented, wherein... During the brooding period, the laying hens implement a first mechanism, which includes acquiring the detected drinking water flow rate, drinking water temperature, pH value and first compound concentration, controlling and outputting a preset flow meter operation process based on the drinking water flow rate, controlling and outputting a preset heat exchanger operation process based on the drinking water temperature, controlling and outputting the acidifying agent dosage based on the pH value, and controlling and outputting whether to start the ultrafiltration device based on the first compound concentration. During the rearing period, the laying hens implement a second mechanism, which includes obtaining the detected concentration of a second compound, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of the acidifying agent dosage based on the pH value, and controlling whether to start the water softener based on the concentration of the second compound. During the laying period, the laying hen executes a third mechanism, which includes acquiring the detected metal concentration, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of acidifying agent dosage based on the pH value, and performing a threshold judgment based on the metal concentration to control whether to change the drinking water.

[0040] It should be noted that when the intelligent drinking water purification control and detection system for laying hens disclosed in this invention is applied, the specific process corresponds to the intelligent drinking water purification control and detection method for laying hens described in the above embodiments. Since the specific implementation details of the system application are consistent with the content of the intelligent drinking water purification control and detection method for laying hens described above, no further details will be provided in this embodiment.

[0041] A third aspect of the present invention provides a computer-readable storage medium comprising a program for an intelligent method of controlling and detecting drinking water purification in laying hens. When executed by a processor, the program implements the steps of the intelligent method of controlling and detecting drinking water purification in laying hens as described in any of the preceding claims.

[0042] The fourth aspect of the present invention provides a computer program product comprising: computer program code, which, when executed on a computer, causes the computer to perform any of the methods described in the embodiments of the intelligent layer hen drinking water purification control and detection method.

[0043] The fifth aspect of the present invention provides an electronic device, the electronic device comprising: a processor and a memory; wherein the memory is used to store a computer program, and the processor is used to execute the computer program stored in the memory, so that the electronic device performs the steps of the intelligent drinking water purification control and detection method for laying hens as described in any of the preceding claims.

[0044] The terms “component,” “module,” “system,” etc., used in this specification are used to refer to computer-related entities, hardware, firmware, combinations of hardware and software, software, or software in execution. For example, a component can be, but is not limited to, a process running on a processor, a processor, an object, an executable file, an execution thread, a program, and / or a computer. As illustrated, applications running on computing devices and computing devices can both be components. One or more components may reside in a process and / or an execution thread, and components may be located on a single computer and / or distributed among two or more computers. Furthermore, these components can be executed from various computer-readable media on which various data structures are stored. Components can communicate, for example, via local and / or remote processes based on signals having one or more data packets (e.g., data from two components interacting with another component between a local system, a distributed system, and / or a network, such as the Internet interacting with other systems via signals).

[0045] Those skilled in the art will recognize that the various illustrative logical blocks and steps described in conjunction with the embodiments disclosed herein can be implemented in electronic hardware, or a combination of computer software and electronic hardware. Whether these functions are implemented in hardware or software depends on the specific application and design constraints of the technical solution. Those skilled in the art can use different methods to implement the described functions for each specific application, but such implementations should not be considered beyond the scope of this invention.

[0046] Those skilled in the art will understand that, for the sake of convenience and brevity, the specific working processes of the systems, devices, and units described above can be referred to the corresponding processes in the foregoing method embodiments, and will not be repeated here.

[0047] In the embodiments provided by this invention, it should be understood that the disclosed systems, apparatuses, and methods can be implemented in other ways. For example, the apparatus embodiments described above are merely illustrative; for instance, the division of units is only a logical functional division, and in actual implementation, there may be other division methods. For example, multiple units or components may be combined or integrated into another system, or some features may be ignored or not executed. Furthermore, the coupling or direct coupling or communication connection shown or discussed may be through some interfaces; the indirect coupling or communication connection between apparatuses or units may be electrical, mechanical, or other forms.

[0048] The units described as separate components may or may not be physically separate. The components shown as units may or may not be physical units; that is, they may be located in one place or distributed across multiple network units. Some or all of the units can be selected to achieve the purpose of this embodiment, depending on actual needs.

[0049] In addition, the functional units in the various embodiments of the present invention can be integrated into one processing unit, or each unit can exist physically separately, or two or more units can be integrated into one unit.

[0050] In the above embodiments, the functions of each functional unit can be implemented entirely or partially through software, hardware, firmware, or any combination thereof. When implemented using software, it can be implemented entirely or partially in the form of a computer program product. A computer program product includes one or more computer instructions (programs). When the computer program instructions (programs) are loaded and executed on a computer, all or part of the flow or function according to the embodiments of the present invention is generated. The computer can be a general-purpose computer, a special-purpose computer, a computer network, or other programmable device. The computer instructions can be stored in a computer-readable storage medium or transmitted from one computer-readable storage medium to another. For example, computer instructions can be transmitted from one website, computer, server, or data center to another website, computer, server, or data center via wired (e.g., coaxial cable, fiber optic, digital subscriber line (DSL)) or wireless (e.g., infrared, wireless, microwave, etc.) means. The computer-readable storage medium can be any available medium that a computer can access or a data storage device such as a server or data center that integrates one or more available media. The available media can be magnetic media (e.g., floppy disks, hard disks, magnetic tapes), optical media (e.g., high-density digital video discs (DVDs), or semiconductor media (e.g., solid-state disks (SSDs)).

[0051] The above embodiments are merely illustrative of the principles and effects of the present invention and are not intended to limit the invention. Any person skilled in the art can modify or alter the above embodiments without departing from the spirit and scope of the present invention. Therefore, all equivalent modifications or alterations made by those skilled in the art without departing from the spirit and technical concept disclosed in the present invention should still be covered by the claims of the present invention.

Claims

1. An intelligent method for controlling and detecting drinking water purification in laying hens, characterized in that, Includes the following steps: Obtain the laying hen population data input by the user, which includes laying hens in the brooding period, laying hens in the growing period, and laying hens in the laying period; Based on the aforementioned laying hen population data, different drinking water purification detection mechanisms are adaptively implemented, wherein... During the brooding period, the laying hens implement a first mechanism, which includes acquiring the detected drinking water flow rate, drinking water temperature, pH value, and concentration of a first compound; controlling and outputting a preset flow meter operation process based on the drinking water flow rate; controlling and outputting a preset heat exchanger operation process based on the drinking water temperature; controlling and outputting the acidifying agent dosage based on the pH value; and controlling and outputting whether to start the ultrafiltration device based on the concentration of the first compound, wherein the concentration of the first compound includes the concentration of chlorine dioxide. The rearing hens implement a second mechanism, which includes obtaining the detected concentration of a second compound, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of the acidifying agent dosage based on the pH value, and controlling whether to start the water softener based on the concentration of the second compound, wherein the concentration of the second compound includes the calcium carbonate concentration. During the laying period, the laying hen executes a third mechanism, which includes acquiring the detected metal concentration, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of acidifying agent dosage based on the pH value, and performing a threshold judgment based on the metal concentration to control whether to change the drinking water, wherein the metal concentration includes copper and zinc concentration.

2. The intelligent drinking water purification control and detection method for laying hens according to claim 1, characterized in that, The first mechanism includes acquiring the detected drinking water flow rate, drinking water temperature, pH value, and first compound concentration; controlling and outputting a preset flow meter operation process based on the drinking water flow rate; controlling and outputting a preset heat exchanger operation process based on the drinking water temperature; controlling and outputting the acidifying agent dosage based on the pH value; and controlling and outputting whether to start the ultrafiltration device based on the first compound concentration. Specifically, it includes: The flow meter nipple includes a first nipple, which includes a first-sized steel ball or cone valve type nipple; The threshold is determined based on the drinking water flow rate and the first flow rate. If the first flow rate is not within the first flow rate threshold range, the operation process is to adjust the drinking water flow rate based on the first nipple control output. Based on the drinking water temperature and the first temperature, a threshold judgment is made. If the first temperature is not within the first temperature threshold range, the operation process of adjusting the drinking water temperature is based on the heat exchanger control output. A threshold judgment is made based on the pH value and the target pH value during the brooding period. If the pH value is less than the target pH value during the brooding period, the control output prohibits the use of the acidifier. A threshold judgment is made based on the concentration of the first compound and the concentration of the brooding period compound. If the concentration of the first compound is greater than the concentration of the brooding period compound, the control output is used to start the ultrafiltration device.

3. The intelligent drinking water purification control and detection method for laying hens according to claim 2, characterized in that, The second mechanism includes acquiring the detected concentration of the second compound, controlling and outputting a preset flow meter operation process based on the drinking water flow rate, controlling and outputting a preset heat exchanger operation process based on the drinking water temperature, controlling and outputting the acidifying agent dosage based on the pH value, and controlling and outputting whether to start the water softener based on the concentration of the second compound. Specifically, it includes: The flow meter nipple also includes a second nipple, the second nipple including a steel ball of a second size; The process involves determining a threshold based on the drinking water flow rate and the second flow rate. If the second flow rate is not within the second flow rate threshold range, the process involves adjusting the drinking water flow rate based on the second nipple control output. Based on the drinking water temperature and the second temperature, a threshold judgment is made. If the second temperature is not within the second temperature threshold range, the operation process of adjusting the drinking water temperature is based on the heat exchanger control output. A threshold judgment is made based on the pH value and the pH target value during the growth period. If the pH value is less than the pH target value during the growth period, the control output prohibits the use of the acidifier. A threshold judgment is made based on the concentration of the second compound and the concentration of the compound during the growth period. If the concentration of the second compound is greater than the concentration of the compound during the growth period, the water softener is activated by the control output.

4. The intelligent drinking water purification control and detection method for laying hens according to claim 3, characterized in that, The third mechanism includes acquiring the detected metal concentration, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of acidifying agent dosage based on the pH value, and performing a threshold judgment based on the metal concentration to control whether to replace the drinking water. Specifically, it includes: The flow meter nipple also includes a third nipple, which includes a steel ball of a third size; The threshold is determined based on the drinking water flow rate and the third flow rate. If the third flow rate is not within the third flow rate threshold range, the operation process is to adjust the drinking water flow rate based on the third nipple control output. Based on the drinking water temperature and a third temperature, a threshold judgment is made. If the third temperature is not within the third temperature threshold range, the operation process of adjusting the drinking water temperature is based on the heat exchanger control output. A threshold judgment is made based on the pH value and the target pH value during the egg-laying period. If the pH value is less than the target pH value during the egg-laying period, the control output prohibits the use of the acidifier. A threshold judgment is made based on the metal concentration and the metal concentration during the egg-laying period. If the metal concentration is greater than the metal concentration during the egg-laying period, the control output changes the valve type.

5. The intelligent drinking water purification control and detection method for laying hens according to claim 4, characterized in that, The workflow for adjusting drinking water flow rate based on flow meter nipples specifically includes: If the aforementioned laying hen population data refers to brooding hens, then the water flow rate... Located within the first threshold range If the internal flow rate is not adjusted, the water flow rate will not be adjusted; otherwise, the control output will adjust the operating mechanism of the first nipple. Specifically, if the water flow rate... Then the control output adjusts the first nipple to a relaxed state, and the water flow rate... The control output adjusts the first nipple to a compressed state, wherein the amount of pressure adjustment of the first nipple (compression / compression) is exponentially related to the flow rate difference, and the diameter corresponding to the first nipple includes... ; If the aforementioned laying hen population data refers to rearing laying hens, then if the water flow rate... Located in the second threshold range If the internal flow rate is not adjusted, the drinking water flow rate will not be adjusted; otherwise, the control output will adjust the operating mechanism of the second nipple. Specifically, if the drinking water flow rate... Then, the control output adjusts the second nipple to a relaxed state, and the water flow rate... The control output adjusts the second nipple to a compressed state, wherein the amount of pressure adjustment of the second nipple (compression / compression) is exponentially related to the flow rate difference, and the diameter corresponding to the second nipple includes... ; If the aforementioned laying hen population data refers to laying hens, then if the water flow rate... Located in the third threshold range If the internal flow rate is not adjusted, the drinking water flow rate will not be adjusted; otherwise, the control output will adjust the operating mechanism of the third nipple. Specifically, if the drinking water flow rate... Then, the control output adjusts the third nipple to a relaxed state, and the water flow rate... Then, the control output adjusts the third nipple to a compressed state, wherein the amount of pressure adjustment of the third nipple is exponentially related to the flow rate difference, and the diameter corresponding to the third nipple includes... .

6. The intelligent drinking water purification control and detection method for laying hens according to claim 5, characterized in that, The workflow for adjusting drinking water temperature based on a heat exchanger specifically includes: The first temperature threshold range is The second temperature threshold range is The third temperature threshold is ; When the first temperature is not within the first temperature threshold range, or the second temperature is not within the second temperature threshold range, or the third temperature is not within the third temperature threshold range, the temperature difference is calculated, and the output temperature is adjusted by controlling the heat exchanger in combination with the temperature difference, wherein the adjusted temperature of the heat exchanger is linearly related to the temperature difference.

7. The intelligent drinking water purification control and detection method for laying hens according to claim 6, characterized in that, The target pH value during the brooding period includes The target pH value during the growth period includes The target pH value during the egg-laying period includes .

8. An intelligent drinking water purification control and detection system for laying hens, characterized in that, The system includes a memory and a processor. The memory contains a program for an intelligent method of controlling and detecting drinking water purification in laying hens. When the processor executes the program, the intelligent method of controlling and detecting drinking water purification in laying hens performs the following steps: Obtain the laying hen population data input by the user, which includes laying hens in the brooding period, laying hens in the growing period, and laying hens in the laying period; Based on the aforementioned laying hen population data, different drinking water purification detection mechanisms are adaptively implemented, wherein... During the brooding period, the laying hens implement a first mechanism, which includes acquiring the detected drinking water flow rate, drinking water temperature, pH value, and concentration of a first compound; controlling and outputting a preset flow meter operation process based on the drinking water flow rate; controlling and outputting a preset heat exchanger operation process based on the drinking water temperature; controlling and outputting the acidifying agent dosage based on the pH value; and controlling and outputting whether to start the ultrafiltration device based on the concentration of the first compound, wherein the concentration of the first compound includes the concentration of chlorine dioxide. The rearing hens implement a second mechanism, which includes obtaining the detected concentration of a second compound, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of the acidifying agent dosage based on the pH value, and controlling whether to start the water softener based on the concentration of the second compound, wherein the concentration of the second compound includes the calcium carbonate concentration. During the laying period, the laying hen executes a third mechanism, which includes acquiring the detected metal concentration, controlling the output of a preset flow meter operation process based on the drinking water flow rate, controlling the output of a preset heat exchanger operation process based on the drinking water temperature, controlling the output of acidifying agent dosage based on the pH value, and performing a threshold judgment based on the metal concentration to control whether to change the drinking water, wherein the metal concentration includes copper and zinc concentration.

9. A computer-readable storage medium, characterized in that, The computer-readable storage medium includes a program for an intelligent method of controlling and detecting drinking water purification in laying hens. When the program is executed by a processor, it implements the steps of an intelligent method of controlling and detecting drinking water purification in laying hens as described in any one of claims 1 to 7.

10. An electronic device, characterized in that, The electronic device includes a processor and a memory; wherein the memory is used to store a computer program, and the processor is used to execute the computer program stored in the memory, so that the electronic device performs the steps of the intelligent drinking water purification control and detection method for laying hens as described in any one of claims 1 to 7.

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