CN115047828A - Big data management control system - Google Patents

Abstract

The invention discloses a big data management control system, which comprises a detection module, a management module and a control module, the detection module is electrically connected with the management module, the detection module is electrically connected with the control module, the detection module is used for detecting dishes washed by the kitchen, the management module is used for managing and analyzing information data, the control module is used for controlling the drainage pipeline, the detection module comprises an acquisition module, a matching module, a metering module and an identification module, the acquisition module is electrically connected with the acquisition module, the acquisition module is electrically connected with the matching module, the acquisition module is electrically connected with the identification module, the acquisition module is electrically connected with the metering module and is used for acquiring order information of city residents. The invention has the characteristic of recycling kitchen water for urban residents.

Description

A big data management control system

technical field

The invention relates to the technical field of management and control, in particular to a management and control system for big data.

Background technique

With the development of the world economy, the population continues to grow, the number of cities increases and expands, and the water consumption in various places continues to increase. According to United Nations estimates, Asia consumes the most water at 3.2 trillion cubic meters per year, followed by North America, Europe, and South America. About 1.5 billion people in 80 countries and regions, which account for about 40% of the world's total population, have insufficient fresh water, and about 300 million people in 26 countries are extremely short of water. What is even more frightening is that it is estimated that by 2025, 3 billion people in the world will face water shortages, and 40 countries and regions are seriously short of fresh water.

China's total water resources are less than Brazil, Russia, Canada, the United States and Indonesia. If measured by the indicator of per capita water resources, it only accounts for 1/4 of the world average level, ranking after the 110th. Water scarcity is widespread in China and is on the rise. In about 670 cities across the country, more than half of them have different degrees of water shortage, of which more than 110 are seriously short of water. In urban households' water consumption, kitchen water consumption occupies a large proportion, and many of the kitchen water can be recycled, but a lot of water resources are wasted because there is no corresponding treatment system. Therefore, it is necessary to design a big data management control system that can recycle urban household kitchen water.

SUMMARY OF THE INVENTION

The purpose of the present invention is to provide a management and control system for big data to solve the problems raised in the above background art.

In order to solve the above technical problems, the present invention provides the following technical solutions: a management and control system for big data, comprising a detection module, a management module and a control module, the detection module is electrically connected to the management module, and the detection module is electrically connected to the management module The detection module is electrically connected to the control module, the detection module is used to detect the dishes washed in the kitchen, the management module is used to manage and analyze the information data, and the control module is used to control the drainage pipeline .

According to the above technical solution, the detection module includes an acquisition module, an acquisition module, a matching module, a measurement module and an identification module, the acquisition module is electrically connected with the acquisition module, the acquisition module is electrically connected with the matching module, and the acquisition module is electrically connected with the acquisition module. The identification module is electrically connected, the acquisition module is electrically connected to the metering module, the acquisition module is used to acquire order information of urban households, the acquisition module is used to acquire image information, and the acquisition module includes an acquisition sub-module The first and the second collection sub-module, the first and second collection sub-modules are used to collect image information for different items, the matching module is used to match the image information, and the measurement module is used to Information is measured, the metering module includes a timing sub-module and a measurement sub-module, the timing sub-module is electrically connected with the measurement sub-module, the timing sub-module is used to time the time, and the measurement sub-module is used to measure the speed. Measurement is performed, and the identification sub-module is used to identify the image information.

According to the above technical solution, the management module includes a data receiving module, an analysis module and a judgment module, the data receiving module is electrically connected with the analysis module, the data receiving module is electrically connected with the judgment module, and the data receiving module is used for The data information is received, the analysis module is used for calculating and analyzing the data, and the judging module is used for judging the relevant water use.

According to the above technical solution, the control module includes a switch module, and the switch module is used to control the valve switch of each drainage pipeline.

According to the above technical solution, the operation method of the big data management control system mainly includes the following steps:

Step S1: the urban resident turns on the faucet of the kitchen to clean the dishes to be cooked, and activates the detection module through the electrical signal;

Step S2: the detection module obtains the order information of the dishes purchased by the mobile phone of the urban household within one week through the network signal, and collects and confirms the current dishes washed by the faucet and the potted plants in the house;

Step S3: the management module determines the recycling status of the water after washing the dishes according to the conditions of the dishes to be washed;

Step S4: The control module controls the drainage pipe through which the water passes according to the determined condition of the water used for washing vegetables.

According to the above technical solution, the step S2 further includes the following steps:

Step S21: the acquisition module acquires the order information of the dishes purchased by the user's mobile phone through the network signal, and activates the acquisition module through the electrical signal;

Step S22: the acquisition sub-module 1 collects image information of the dishes currently being rinsed by the faucet next to the kitchen washing pool, and activates the matching module through an electrical signal after the image information collection is completed;

Step S23: The matching module matches the image information collected by the collection module with the image information of the ordered dishes obtained by the obtaining module on the mobile terminal, and determines the type of dishes.

According to the above technical solution, the step S3 further includes the following steps:

Step S31: when the matching module successfully matches the image information and determines that the type of vegetable is non-vegetable, the switch module is activated to open the valve of the sewage pipeline, and the water for flushing the non-vegetable type is discharged through the sewage pipeline;

Step S32: when the matching module successfully matches the image information and determines that the type of vegetable is a vegetable, the switch module is enabled to open the valve of the potted plant watering pipeline, and the water is discharged and stored for watering the potted plants in the house;

Step S33: When the matching module fails to match the image information, the switch module is activated to open the valve of the toilet flushing pipeline, and the water is discharged and stored for flushing the toilet in the toilet.

According to the above technical solution, the step S32 further includes the following steps:

Step S321: After determining that the type of vegetable is vegetable, firstly enable the switch module to open the valve of the sewage pipeline, and enable the second acquisition sub-module to collect image information of the potted plants in the house, and enable the identification module through electrical signals;

Step S322: the identification module identifies the collected image information of potted plants in the house, and identifies and selects the potted plants with the smallest height from the top of the potted plants in the house to the top of the flowerpot;

Step S323: the measurement sub-module measures the potted plant with the smallest height, and measures the green part at the top and below, and obtains its height as L;

Step S324: the measurement sub-module simultaneously measures the current water flow speed of the faucet for washing vegetables, and obtains that the current water flow speed of the faucet is V;

Step S325: the data receiving module receives the above-mentioned data, and enables the analysis module through the electrical signal;

Step S326: the analysis module obtains the data received by the data receiving module, and the time required to open the sewage pipeline valve is obtained by analysis and calculation as T;

Step S327: The switch module opens the sewage pipe valve, and after the timing sub-module reaches T, closes the sewage pipe valve and opens the potted plant watering pipe valve to discharge and store the water for watering the potted plants in the house.

According to the above technical solution, the calculation formula of the required opening time T of the sewage pipeline valve in the step S325 is as follows:

Among them, T is the time required to open the valve of the sewage pipeline, L is the height of the minimum potted plant, V is the water flow speed of the faucet to wash the vegetables, and K is the time conversion coefficient. It can be seen from the formula that the water flow that washes the vegetables first contains residual pesticides , directly used to water immature potted plants will cause damage to them, but with continued flushing, the concentration of residual pesticides in the water flow will gradually decrease, which can be reserved for watering immature potted plants; the growth of potted plants means that potted plants grow longer. , the potted plant's ability to withstand residual pesticides becomes stronger, and the opening time of the sewage pipe valve is gradually shorter than the last time.

According to the above technical solution, the step S33 further includes the following steps:

Step S331: when the image information matching is unsuccessful, the judgment module is activated through an electrical signal;

Step S332: The judgment module judges that the faucet is flushing tableware items, and the water flow for flushing tableware contains detergent, and then enables to open the valve of the toilet flushing pipeline to store for subsequent flushing of the toilet.

Compared with the prior art, the beneficial effects achieved by the present invention are: the present invention, by being provided with a detection module, a management module and a control module, can recycle the kitchen water of urban households, save water resources and reduce unnecessary waste.

Description of drawings

The accompanying drawings are used to provide a further understanding of the present invention, and constitute a part of the specification, and are used to explain the present invention together with the embodiments of the present invention, and do not constitute a limitation to the present invention. In the attached image:

FIG. 1 is a schematic diagram of the composition of the system modules of the present invention.

Detailed ways

The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, but not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

Referring to FIG. 1, the present invention provides a technical solution: a management and control system for big data, including a detection module, a management module and a control module, the detection module is electrically connected to the management module, the detection module is electrically connected to the management module, and the detection module is connected to the control module. The modules are electrically connected, the detection module is used to detect the dishes washed in the kitchen, the management module is used to manage and analyze the information data, and the control module is used to control the drainage pipeline. Recycle the water used in the kitchen of urban households, save water resources and reduce unnecessary waste.

The detection module includes an acquisition module, an acquisition module, a matching module, a measurement module and an identification module. The acquisition module is electrically connected to the acquisition module, the acquisition module is electrically connected to the matching module, the acquisition module is electrically connected to the identification module, and the acquisition module is electrically connected to the measurement module. The acquisition module is used to acquire the order information of urban households, and the acquisition module is used to acquire image information. The acquisition module includes acquisition sub-module 1 and acquisition sub-module The image information of the items is collected, the matching module is used to match the image information, and the measurement module is used to measure the relevant information. The measurement module includes a timing sub-module and a measurement sub-module. The module is used to time the time, the measurement sub-module is used to measure the speed, and the recognition sub-module is used to recognize the image information. By setting the acquisition module, the acquisition module and the recognition module, the dishes currently being washed by the faucet can be accurately detected. The identification and analysis provide a reliable basis for subsequent water recycling.

The management module includes a data receiving module, an analysis module and a judgment module, the data receiving module is electrically connected with the analysis module, the data receiving module is electrically connected with the judgment module, the data receiving module is used for receiving data information, and the analysis module is used for calculating the data The analysis and judgment module is used to judge the relevant water consumption. By setting the analysis module and the judgment module, the opening time of the sewage pipe when washing vegetables can be determined according to the size of the potted plants, so as to prevent the potted plants from being damaged by excessive pesticides in the water.

The control module includes a switch module, and the switch module is used to control the valve switch of each drainage pipeline.

A method for operating a big data management control system mainly includes the following steps:

Step S1: the urban resident turns on the faucet of the kitchen to clean the dishes to be cooked, and activates the detection module through the electrical signal;

Step S2: the detection module obtains the order information of the dishes purchased by the mobile phone of the urban household within one week through the network signal, and collects and confirms the current dishes washed by the faucet and the potted plants in the house;

Step S3: the management module determines the recycling status of the water after washing the dishes according to the conditions of the dishes to be washed;

Step S4: The control module controls the drainage pipe through which the water passes according to the determined condition of the water used for washing vegetables.

Step S2 further includes the following steps:

Step S21: the acquisition module acquires the order information of the dishes purchased by the user's mobile phone through the network signal, and activates the acquisition module through the electrical signal;

Step S22: the acquisition sub-module 1 collects image information of the dishes currently being rinsed by the faucet next to the kitchen washing pool, and activates the matching module through an electrical signal after the image information collection is completed;

Step S23: The matching module matches the image information collected by the collection module with the image information of the ordered dishes obtained by the obtaining module on the mobile terminal, and determines the type of dishes.

Step S3 further includes the following steps:

Step S31: when the matching module successfully matches the image information and determines that the type of vegetable is non-vegetable, the switch module is activated to open the valve of the sewage pipeline, and the water for flushing the non-vegetable type is discharged through the sewage pipeline;

Step S32: when the matching module successfully matches the image information and determines that the type of vegetable is a vegetable, the switch module is enabled to open the valve of the potted plant watering pipeline, and the water is discharged and stored for watering the potted plants in the house;

Step S33: When the matching module fails to match the image information, the switch module is activated to open the valve of the toilet flushing pipeline, and the water is discharged and stored for flushing the toilet in the toilet.

Step S32 further includes the following steps:

Step S321: After determining that the type of vegetable is vegetable, firstly enable the switch module to open the valve of the sewage pipeline, and enable the second acquisition sub-module to collect image information of the potted plants in the house, and enable the identification module through electrical signals;

Step S322: the identification module identifies the collected image information of potted plants in the house, and identifies and selects the potted plants with the smallest height from the top of the potted plants in the house to the top of the flowerpot;

Step S323: the measurement sub-module measures the potted plant with the smallest height, and measures the green part at the top and below, and obtains its height as L;

Step S324: the measurement sub-module simultaneously measures the current water flow speed of the faucet for washing vegetables, and obtains that the current water flow speed of the faucet is V;

Step S325: the data receiving module receives the above-mentioned data, and enables the analysis module through the electrical signal;

Step S326: the analysis module obtains the data received by the data receiving module, and the time required to open the sewage pipeline valve is obtained by analysis and calculation as T;

Step S327: The switch module opens the sewage pipe valve, and after the timing sub-module reaches T, closes the sewage pipe valve and opens the potted plant watering pipe valve to discharge and store the water for watering the potted plants in the house.

The calculation formula of the required opening time T of the sewage pipeline valve in step S325 is as follows:

Among them, T is the time required to open the valve of the sewage pipeline, L is the height of the minimum potted plant, V is the water flow speed of the faucet to wash the vegetables, and K is the time conversion coefficient. It can be seen from the formula that the water flow that washes the vegetables first contains residual pesticides , directly used to water immature potted plants will cause damage to them, but with continued flushing, the concentration of residual pesticides in the water flow will gradually decrease, which can be reserved for watering immature potted plants; the growth of potted plants means that potted plants grow longer. , the potted plant's ability to withstand residual pesticides becomes stronger, and the opening time of the sewage pipe valve is gradually shorter than the last time.

Step S33 further includes the following steps:

Step S331: when the image information matching is unsuccessful, the judgment module is activated through an electrical signal;

Step S332: The judgment module judges that the faucet is flushing tableware items, and the water flow for flushing tableware contains detergent, and then enables to open the valve of the toilet flushing pipeline to store for subsequent flushing of the toilet.

Example 1: As soon as an urban resident turns on the faucet in the kitchen to clean the dishes for cooking, the detection module obtains the order information of the dishes purchased by the urban resident's mobile phone within a week through the network signal, and after determining that the type of the dishes is vegetables, the switch module is turned on first. The sewage pipe valve, and the water flow velocity of the faucet to wash vegetables is measured by the measurement sub-module as V=20cm/s. The acquisition sub-module 2 collects the image information of the potted plants in the house, and measures the potted plants with the smallest height. The height is L= 5cm, because the water flow that first washes the vegetables contains residual pesticides, it will cause damage to the immature potted plants directly when used to water them. Irrigation of immature potted plants, and the time conversion coefficient K=6.4×10 ⁶ , the time required to open the valve of the sewage pipeline is

Example 2: Urban resident 2 turns on the faucet in the kitchen to clean the dishes for cooking. The detection module obtains the order information of the dishes purchased by the urban resident's mobile phone within a week through the network signal, and after determining that the type of the dishes is vegetables, first enable the switch module to turn on Sewage pipe valve, and measure the water flow velocity of the faucet to wash vegetables through the measurement sub-module, V=40cm/s, the acquisition sub-module 2 collects image information for the potted plants in the house, and measures the potted plants with the smallest height, and obtains its height as L= 4cm, because the water flow that first washes vegetables contains residual pesticides, it will cause damage to the immature potted plants directly when used to water them. Irrigation of immature potted plants, and the time conversion coefficient K=6.4×10 ⁶ , the time required to open the valve of the sewage pipeline is

Example 3: Urban resident 2 turns on the faucet in the kitchen to clean the dishes for cooking. The detection module obtains the order information of the dishes purchased by the urban resident's mobile phone within a week through the network signal, and after determining that the type of the dishes is vegetables, first enable the switch module to turn on Sewage pipe valve, and measure the water flow velocity of the faucet to wash vegetables through the measurement sub-module, V=30cm/s, the acquisition sub-module 2 collects image information for the potted plants in the house, and measures the potted plants with the smallest height, and obtains its height as L= 4cm, because the water flow that first washes vegetables contains residual pesticides, it will cause damage to the immature potted plants directly when used to water them. Irrigation of immature potted plants, and the time conversion coefficient K=6.4×10 ⁶ , the time required to open the valve of the sewage pipeline is

It should be noted that, in this document, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any relationship between these entities or operations. any such actual relationship or sequence exists. Moreover, the terms "comprising", "comprising" or any other variation thereof are intended to encompass a non-exclusive inclusion such that a process, method, article or device that includes a list of elements includes not only those elements, but also includes not explicitly listed or other elements inherent to such a process, method, article or apparatus.

Finally, it should be noted that the above descriptions are only preferred embodiments of the present invention, and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, for those skilled in the art, the The technical solutions described in the foregoing embodiments may be modified, or some technical features thereof may be equivalently replaced. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims (10)

1. The utility model provides a management control system of big data, includes detection module, management module and control module, its characterized in that: the kitchen washing device comprises a detection module, a management module, a control module and a control module, wherein the detection module is electrically connected with the management module, the detection module is used for detecting dishes washed by a kitchen, the management module is used for managing and analyzing information data, and the control module is used for controlling a drainage pipeline.

2. The big data management control system according to claim 1, wherein: the detection module comprises an acquisition module, a matching module, a metering module and an identification module, wherein the acquisition module is electrically connected with the acquisition module, the acquisition module is electrically connected with the matching module, the acquisition module is electrically connected with the identification module, the acquisition module is electrically connected with the metering module, the acquisition module is used for acquiring order information of urban residents, the acquisition module is used for acquiring image information, the acquisition module comprises an acquisition submodule I and an acquisition submodule II, the acquisition submodule I and the acquisition submodule II are respectively used for acquiring image information of different articles, the matching module is used for matching the image information, the metering module is used for metering related information, the metering module comprises a timing submodule and a measuring submodule, and the timing submodule is electrically connected with the measuring submodule, the timing submodule is used for timing time, the measuring submodule is used for measuring speed, and the identifying submodule is used for identifying image information.

3. The big data management control system according to claim 2, wherein: the management module comprises a data receiving module, an analysis module and a judgment module, wherein the data receiving module is electrically connected with the analysis module, the data receiving module is electrically connected with the judgment module, the data receiving module is used for receiving data information, the analysis module is used for calculating and analyzing data, and the judgment module is used for judging related water consumption.

4. The big data management control system according to claim 3, wherein: the control module comprises a switch module, and the switch module is used for controlling the valve switches of the drainage pipelines.

5. The big data management and control system according to claim 4, wherein: the operation method of the big data management control system mainly comprises the following steps:

step S1: the city householder opens a water tap in a kitchen to clean dishes to be eaten, and starts the detection module through an electric signal;

step S2: the detection module acquires order information of dishes purchased by a mobile phone end of an urban resident within one week through network signals, and collects and confirms the dishes washed by a current faucet and potted plants in a house;

step S3: the management module determines the recycling condition of water after washing dishes according to the condition of the washed dishes;

step S4: the control module controls a drainage pipeline through which the water passes according to the determined condition of the vegetable washing water.

6. The big data management and control system according to claim 5, wherein: the step S2 further includes the steps of:

step S21: the acquisition module acquires order information of dishes purchased by a user mobile phone end through a network signal and starts the acquisition module through an electric signal;

step S22: the acquisition submodule I acquires image information of dishes currently washed by the faucet beside the kitchen washing pool, and starts the matching module through an electric signal after the image information is acquired;

step S23: the matching module matches the image information acquired by the acquisition module with the image information of the order dishes of the mobile phone terminal acquired by the acquisition module, and determines the type of the dishes.

7. The big data management and control system according to claim 6, wherein: the step S3 further includes the steps of:

step S31: the matching module successfully matches the image information, and when the type of the dish is determined to be non-vegetable, the switch module is started to open the sewage pipeline valve, and the water for flushing the non-vegetable is discharged through the sewage pipeline;

step S32: the matching module successfully matches the image information, and when the vegetable type is determined to be vegetable, the switch module is started to open a watering pipeline valve of the potted plant, and the water is discharged and stored for watering the potted plant in the house;

step S33: and when the image information is not matched successfully, the matching module starts the switch module to open the valve of the toilet flushing pipeline, and the water is discharged and stored for flushing the toilet in the toilet.

8. The big data management and control system according to claim 7, wherein: the step S32 further includes the steps of:

step S321: after the vegetable type is determined to be vegetable, starting the switch module to open the sewage pipeline valve, starting the acquisition submodule II to acquire image information of potted plants in the house, and starting the identification module through an electric signal;

step S322: the identification module identifies the collected image information of the potted plants in the house and identifies and screens the potted plants with the smallest height from the top of the potted plants in the house to the top of the flowerpot;

step S323: the measurement submodule measures the potted plant with the minimum height and measures the green part at the top and below the top of the potted plant to obtain the height L of the potted plant;

step S324: the measuring submodule simultaneously measures the current water flow speed of the current faucet for washing the vegetables to obtain the current water flow speed of the current faucet as V;

step S325: the data receiving module receives the data and starts the analysis module through an electric signal;

step S326: the analysis module acquires the data received by the data receiving module, and the time required for opening the sewage pipeline valve is T through analysis and calculation;

step S327: the switch module opens the sewage pipeline valve, and after the timing time of the timing submodule reaches T, the sewage pipeline valve is closed and the potted plant watering pipeline valve is opened to discharge and store the water, so that the potted plant in the house is watered.

9. The big data management control system according to claim 8, wherein: the calculation formula of the opening time T required for the sewage pipeline valve in the step S325 is as follows:

the method comprises the following steps that T is the time required by a sewage pipeline valve to be opened, L is the minimum height of a potted plant, V is the water flow speed of a faucet for washing vegetables, and K is a time conversion coefficient, so that the water flow for washing the vegetables firstly contains residual pesticides, the vegetables can be directly used for irrigating the potted plant which is not ripe to cause damage to the potted plant, but the concentration of the residual pesticides contained in the water flow is gradually reduced along with the continuous washing, and the vegetables can be reserved for irrigating the potted plant which is not ripe; the growth of potted plant, i.e. the branches and leaves of potted plant become long, the ability of potted plant to bear residual pesticide becomes strong, and then the opening time of sewage pipeline valve becomes shorter gradually than last time.

10. The big data management control system according to claim 9, wherein: the step S33 further includes the steps of:

step S331: when the image information matching is unsuccessful, starting a judging module through an electric signal;

step S332: the judging module judges that the water faucet is washing tableware, and the water flow for washing the tableware contains detergent, and then the valve of the toilet flushing pipeline is started to be opened for storing the subsequent flushing of the toilet in the toilet.

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