CN115010218A

CN115010218A - Remote control method, system and storage medium for preparing alkaline electrolytic ionized water

Info

Publication number: CN115010218A
Application number: CN202210409050.XA
Authority: CN
Inventors: 朴雪峰; 朴华成; 肖蝶
Original assignee: Zhonglingshuijing Technology Shenzhen Co ltd
Current assignee: Zhonglingshuijing Technology Shenzhen Co ltd
Priority date: 2022-04-19
Filing date: 2022-04-19
Publication date: 2022-09-06

Abstract

The invention discloses a remote control method, a system and a storage medium for preparing alkaline electrolytic ionized water, wherein the method comprises the following steps: the client side obtains working state parameters of the ionized water electrolysis device; the client performs daily inspection on the water electrolysis device through an inspection method; and the master station server acquires the state signal and monitors and protects the electrolytic ion water device by a master control method. The remote control system is provided with various network interfaces such as IEEE, WiFi, Bluetooth and the like, has strong compatibility and high response speed, and can monitor the working conditions of the ionic water electrolysis devices in various places in real time by the staff of a switchboard.

Description

Remote control method, system and storage medium for preparing alkaline electrolytic ionized water

Technical Field

The invention relates to the technical field of intelligent terminals, in particular to a remote control method, a remote control system and a storage medium for preparing alkaline electrolytic ionized water.

Background

The alkaline electrolytic ionized water is high-activity alkaline water without chemical corrosion, which is different from strong alkaline solution, and has the characteristics of environmental protection, strong decontamination, sterilization, corrosion prevention and the like. The method has wide application in the daily life fields of sterilization, disinfection, degreasing, household cleaning, pesticide residue removal of fresh fruits, vegetables, fresh keeping and the like, and also has great significance in the industrial and agricultural fields.

In industrial terms, the product can be used to formulate chemical formulations.

In agriculture, the product can be used for preparing pesticides, and the proportion of heavy metal components in the pesticides is reduced under the condition of not influencing the effect. In addition, the alkaline electrolytic ionized water also has the characteristics of safety, environmental protection and no toxic or side effect.

The preparation system of present alkaline electrolysis ionized water is traditional chemical reaction device, need be equipped with special person on duty in process of production, and the production in-process trouble is more, needs to spend the manpower to carry out the troubleshooting, can lead to the emergence of incident even in the untimely condition of troubleshooting. Meanwhile, if the attendant cannot monitor the production process on site in the production process, the production process has to be suspended for safety.

In view of the above problems, there is a need for a remote control system for remotely monitoring and controlling the production process of electrolyzed ionic water, and the system should have a complete warning and preventing mechanism so that the workers can timely monitor the on-site situation and make emergency measures whenever and wherever possible.

Disclosure of Invention

The invention discloses a remote control method, a system and a storage medium for preparing alkaline electrolytic ionized water, which comprises the following steps:

the client side obtains working state parameters of the ionized water electrolysis device;

the client performs daily inspection on the water electrolysis device through an inspection method;

and the master station server acquires the state signal and monitors and protects the electrolytic ion water device by a master control method.

Further, the working state parameters comprise a voltage value, a current value, a water pressure value, a temperature, a flow and a pH value when the electrolytic ion water device works; the state signals include an alarm start signal, a network attack start signal and a disassembly start signal.

Preferably, the inspection method comprises the following steps:

the client receives the working state parameters obtained by the acquisition unit;

the client performs inspection of the first stage on the electrolyzed ionic water device through an alarm algorithm;

the client performs second-stage inspection on the electrolytic ionized water device through a reverse input signal detection algorithm;

and the client performs inspection of the third stage on the electrolytic ionized water device through a disassembly detection algorithm.

Further, the alert algorithm comprises the steps of:

judging whether the water pressure value of the electrolytic ion water device exceeds 10L/min or not, if so, turning off an alarm and sending an alarm signal to a master server;

judging whether the voltage value in the electrolytic bath solution of the electrolytic ion water device exceeds 30V, if so, turning off the alarm by sound and sending an alarm signal, and sending an alarm starting signal to a master server;

judging whether the current value in the electrolytic bath solution of the electrolytic ion water device exceeds 0.5A, if so, sending an alarm signal by an audible and visual alarm, and sending an alarm starting signal to a master server;

judging whether the temperature of a power supply module of the electrolytic ion water device is between 0 and 80 ℃, if the temperature is not between 0 and 80 ℃, sending an alarm signal by an audible and visual alarm, and sending an alarm starting signal to a central office server;

and judging whether the temperature of the electrolytic ionized water device is between 0 and 60 ℃, if the temperature value is not between 0 and 60 ℃, sending an alarm signal by the audible and visual alarm, and sending an alarm starting signal to a master server.

Further, the inverse input signal detection algorithm includes the following steps:

the client judges whether the login failure times of the target ip address are more than 5, and if so, the next step is carried out;

the client side judges whether the login failure time of the target IP address is longer than half an hour, if so, the target IP account is locked, and login is limited within three hours;

the client judges whether the flow of the IP data packet of the target IP address is larger than 300GB/S, if so, the client system is automatically restarted, and a network attack starting signal is sent to a server of the central office.

Further, the disassembly detection algorithm comprises the following steps:

the client side judges whether an artificial disassembly action exists or not by monitoring the electrolytic ionized water device;

if the manual disassembly behavior exists, the client sends a disassembly signal to a switchboard server, returns inquiry information to an electronic touch screen of the electrolytic ionized water device, wherein the inquiry information comprises an input user contact number option, and returns the server of the switchboard after the input of a user;

the client side continuously detects whether the electrolytic ionized water device has disassembly behavior within half an hour, and simultaneously checks whether a confirmation signal of a head office server is received;

and if the client side continuously detects that the electrolytic ionized water device has the disassembly behavior within half an hour and does not receive the confirmation signal of the head office server all the time, stopping the operation of the water pump through a network signal to stop the electrolytic ionized water device.

Further, the general control method comprises the following steps:

the switchboard server sends the received alarm starting signal, the network attack starting signal and the disassembly signal to a switchboard worker;

after receiving the disassembling signal, the switchboard staff checks whether the switchboard server receives the telephone number, the fax number, the micro-signal, the Facebook number and the Line number of the disassembling staff or not;

if receiving the telephone number, the fax number, the micro signal, the Facebook number and the Line number, the switchboard staff contact the disassembler through the telephone number, the fax number, the micro signal, the Facebook number and the Line number and automatically determine whether to send a confirmation signal to the client;

if the telephone number or the fax number, the micro signal, the Facebook number and the Line number are not received; after the dismantling personnel are contacted and the abnormality is found, the switchboard staff automatically determines whether to start the self-destruction program of the client side to enable the electrolytic ion water device to be self-destroyed.

On the other hand, the invention adopts another technical scheme that: providing a remote control system for producing alkaline electrolyzed ionic water, the system comprising:

an ionized water electrolysis device: a generator for ionic water electrolysis;

a temperature sensor: the temperature detection device is used for detecting the temperatures of the electrolyzed ionic water device and the power supply module;

a client: the system is used for monitoring and controlling the work of the electrolytic ionized water device and simultaneously carrying out data interaction with a master station server;

electronic touch screen: displaying prompt information for users or disassembly personnel of the electrolytic ion water device, and returning a contact number to a switchboard server;

audible and visual alarm: sending out alarm signals by repeated warning sounds and flickering light;

a main station server: the system is used for monitoring and controlling the work of the electrolytic ionized water and simultaneously carrying out data interaction with the client.

Further, the present invention also includes a computer readable storage medium storing a computer program and applied to a client, the computer program implementing the steps of the above method when executed by a processor.

Compared with the prior art, the invention has the following advantages and positive effects:

1. because the invention adopts the remote control design, once the electrolytic ionized water device is abnormal in operation, the workers can know the abnormality at the first time, and the occurrence of accidents is avoided.

2. The remote control system adopted by the invention adopts a data interaction mode based on the high-speed wireless Internet, and has the advantage of high response speed.

3. Compared with the traditional ionic water electrolysis device, the device has the advantages of easy monitoring and maintenance due to the addition of the remote control system.

4. Compared with the traditional ionic water electrolysis device, the invention has the advantages of labor saving and high safety factor due to the addition of the remote control system and the self-destruction program.

Drawings

In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings needed to be used in the description of the embodiments are briefly introduced below, it is obvious that the drawings in the following description are only some embodiments of the present invention, and other drawings can be obtained by those skilled in the art without inventive efforts, wherein:

FIG. 1 is a schematic flow diagram of a remote control method for producing alkaline electrolyzed ionic water according to an embodiment of the present invention;

fig. 2 is a schematic flow chart of a polling method according to another embodiment of the present invention;

FIG. 3 is a schematic flow chart of a general control method according to another embodiment of the present invention;

fig. 4 is a schematic structural diagram of a remote control system for preparing alkaline electrolyzed ionic water according to another embodiment of the present invention.

Detailed Description

The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be obtained by a person skilled in the art without any inventive step based on the embodiments of the present invention, are within the scope of the present invention.

Example one

Fig. 1 is a schematic flow chart of a remote control method for preparing alkaline electrolyzed ionic water according to an embodiment of the present invention. The method comprises the following steps:

s1, the client side obtains the working state parameters of the ionized water electrolysis device;

s2, the client performs daily inspection on the water electrolysis device through an inspection method;

and S3, the master station server acquires the state signal and monitors and protects the electrolytic ion water device by a master control method.

Example two

Fig. 2 is a schematic flow chart of a polling method according to another embodiment of the present invention, which includes the following steps:

s20: the client side performs inspection of the first stage on the electrolytic ion water device through an alarm algorithm;

s21: the client side carries out second-stage inspection on the electrolytic ion water device through a reverse input signal detection algorithm;

s22: the client side implements inspection of the third stage on the electrolyzed ionic water device through a disassembly detection algorithm;

the alarm algorithm in the embodiment includes the following steps:

judging whether the water pressure value of the electrolytic ion water device exceeds 10L/min or not, if so, sending an alarm signal by an audible and visual alarm, and sending an alarm starting signal to a master server;

judging whether the voltage value in the electrolytic bath solution of the electrolytic ion water device exceeds 30V, if so, sending an alarm signal by an audible and visual alarm, and sending an alarm starting signal to a master station server;

The sound-light alarm, called sound-light alarm number, is an alarm signal device which is used in dangerous places and can give out alarm signal to people by means of sound and various lights. The audible and visual alarm can be used together with fire alarm controllers of any manufacturers at home and abroad, when an accident or fire and other emergency situations occur in a production field, a control signal sent by the fire alarm controller starts an audible and visual alarm circuit to send out audible and visual alarm signals, so that the alarm purpose is fulfilled. The audible and visual alarm can also be matched with a manual alarm button for use, so that the aim of simple audible and visual alarm is fulfilled.

Besides monitoring the abnormality of the ionic water electrolysis device in the operation process, the network attack to the client side in the operation process needs to be prevented, and the network attack is generally divided into brute force cracking attack and distributed denial of service attack.

Brute force cracking is an attack tool, and in web attacks, authentication information of an application system is generally acquired by using the attack tool. The process is to use a large amount of authentication information to perform login attempt at the authentication interface until a correct result is obtained. Brute force cracking typically uses tools with dictionaries for automation to improve efficiency. Theoretically, most systems can be cracked violently, and as long as an attacker has enough computing power and time, the condition of judging whether a system has a brute-force cracking vulnerability is not absolute. The fact that a system has brute force vulnerability generally means that the system does not adopt or adopts a weak authentication security strategy, so that the possibility of brute force vulnerability is high.

On the other hand, distributed denial of service attack, DDoS for short, refers to that multiple attackers at different positions simultaneously launch attacks to one or multiple targets, or that an attacker controls multiple machines at different positions and uses the machines to attack victims simultaneously. Since the points of attack launch are distributed in different places, this type of attack is known as a distributed denial of service attack, in which there may be multiple attackers.

A complete DDoS attack system consists of an attacker, a main control end, an agent end and an attack target. The main control end and the agent end are respectively used for controlling and actually launching the attack, wherein the main control end only issues commands without participating in the actual attack, and the agent end sends out actual attack packets of the DDoS. The computer at the main control end and the agent end has control right or partial control right, and the attacker can hide the computer from others by various means in the attack process. Once the real attacker transmits the attack command to the host, the attacker can close or leave the network, and the host issues the command to each proxy. So that the attacker can evade tracing. Each attack proxy host sends a large number of service request data packets to the target host, the data packets are disguised and the source of the data packets cannot be identified, and the service requested by the data packets usually consumes a large amount of system resources, so that the target host cannot provide normal service for users. And even cause a system crash. In a typical DDOS attack, the packet traffic for the attack may range from three hundred Gbps to thousands Gbps, or even 1-2 Tbps. In order to prevent the two network attacks, a reverse input signal detection algorithm is required to be introduced, so that the attack behavior of the abnormal IP can be screened out at the initial stage of the attack, the staff of the central office server can know the attack behavior in time, and serious consequences such as system paralysis are prevented. The algorithm comprises the following steps:

Besides the electronic attack to the system, the physical damage to the ionic water electrolysis device is also prevented. Meanwhile, in order to distinguish physical damage such as violent disassembly from normal maintenance, a detection mechanism is required to judge whether the behavior implemented by the user is normal maintenance or violent disassembly. Therefore, it is desirable to introduce a disassembly detection algorithm that includes the steps of:

and if the client continuously detects that the electrolytic ionized water device has the disassembly behavior within half an hour and does not receive the confirmation signal of the head office server all the time, stopping the operation of the water pump through a network signal to stop the electrolytic ionized water device.

EXAMPLE III

Fig. 3 is a schematic flow chart of a general control method according to another embodiment of the present invention, where the method includes the following steps:

s30: the switchboard server sends the received alarm starting signal, the network attack starting signal and the disassembly signal to a switchboard worker;

s31: after receiving the disassembling signal, the switchboard staff checks whether the switchboard server receives the telephone number, the fax number, the micro signal, the Facebook number and the Line number of the disassembling staff;

s32: if receiving the telephone number or the fax number, the micro signal, the Facebook number and the Line number, the switchboard staff contact the disassembler through the telephone number or the fax number, the micro signal, the Facebook number and the Line number and automatically determine whether to send a confirmation signal to the client;

s33: if the telephone number or the fax number, the micro signal, the Facebook number and the Line number are not received; after the dismantling personnel are contacted and the abnormality is found, the switchboard staff automatically determines whether to start the self-destruction program of the client side to enable the electrolytic ion water device to be self-destroyed.

Example four

Fig. 4 is a schematic structural diagram of a remote control system for preparing alkaline electrolyzed ionic water according to another embodiment of the present invention. The system comprises an electrolytic ionized water device 100, a temperature sensor 200, an audible and visual alarm 300, an electronic touch screen 400, a client 500 and a total station server 600. Wherein the electrolytic ion water device 100 is a generating device for ion water electrolysis, which enables cations in an anode chamber of the ion water electrolysis device to enter a cathode chamber through an ion exchange membrane under the action of real-time voltage and combine with hydroxyl anions to generate alkaline electrolytic ion water; the temperature sensor 200 is used for monitoring the real-time temperature of the electrolytic ion water device 100 and the power module thereof, and transmitting the temperature value to the client 500; the audible and visual alarm 300 receives the alarm signal of the client 500 and emits an audible and visual alarm signal in the form of repeated warning sound and flickering light; the electronic touch screen 400 displays contact number inquiry information to an end user of the electrolytic ion water device 100, and transmits the contact number input by the end user to the central office server 600. The client 500 detects whether there is a network attack in the operation process of the electrolytic ion water device 100 through the reverse input signal detection program, and if there is a network attack, the client 500 locks an IP account of an attack source and sends an attack situation log to the central office server 600. The central office server 600 receives the signal of the abnormal operation of the electrolytic ionized water apparatus 100, the network attack condition log and the telephone number input by the end user when the electrolytic ionized water apparatus 100 is disassembled, which are sent by the client 500, and finally, the staff of the central office server 600 determines whether to start the self-destruction program of the electrolytic ionized water apparatus 100.

The above description is only an embodiment of the present invention, and not intended to limit the scope of the present invention, and all modifications of equivalent structures and equivalent processes performed by the present specification and drawings, or directly or indirectly applied to other related technical fields, are included in the scope of the present invention.

Claims

1. The remote control method for preparing the alkaline electrolytic ionized water is characterized by comprising the following steps:

s1: the client side obtains working state parameters of the ionized water electrolysis device;

s2: the client performs daily inspection on the water electrolysis device through an inspection method;

s3: and the master station server acquires the state signal and monitors and protects the electrolytic ion water device by a master control method.

2. The method as claimed in claim 1, wherein the operation state parameters in step S1 include voltage, current, water pressure, temperature, flow rate, and pH value of the electrolyzed ionic water apparatus.

3. The method according to claim 1, wherein the status signals of step S3 include alarm on signal, cyber attack on signal and dismantling on signal.

4. The method for routing inspection according to claim 1, wherein the step of S2 is characterized by comprising the following steps:

s21: the client performs second-stage inspection on the electrolytic ionized water device through a reverse input signal detection algorithm;

s22: and the client performs inspection of the third stage on the electrolytic ionized water device through a disassembly detection algorithm.

5. The method according to claim 4, the alert algorithm of step S20, comprising the steps of:

s200: judging whether the water pressure value of the electrolytic ion water device exceeds 10L/min or not, if so, sending an alarm signal by an audible and visual alarm, and sending an alarm starting signal to a master server;

s201: judging whether the voltage value in the electrolytic bath solution of the electrolytic ion water device exceeds 30V, if so, sending an alarm signal by an audible and visual alarm, and sending an alarm starting signal to a master station server;

s202: judging whether the current value in the electrolytic bath solution of the electrolytic ion water device exceeds 0.5A, if so, sending an alarm signal by an audible and visual alarm, and sending an alarm starting signal to a master server;

s203: judging whether the temperature of a power supply module of the electrolytic ion water device is between 0 and 80 ℃, if the temperature is not between 0 and 80 ℃, sending an alarm signal by an audible and visual alarm, and sending an alarm starting signal to a central office server;

s204: and judging whether the temperature of the electrolytic ionized water device is between 0 and 60 ℃, if the temperature value is not between 0 and 60 ℃, sending an alarm signal by the audible and visual alarm, and sending an alarm starting signal to a master server.

6. The method of claim 4, wherein the inverse input signal detection algorithm of step S21, comprises the steps of:

s210: the client judges whether the login failure times of the target ip address are more than 5, and if so, the next step is carried out;

s211: the client side judges whether the login failure time of the target IP address is longer than half an hour, if so, the target IP account is locked, and login is limited within three hours;

s212: the client judges whether the flow of the IP data packet of the target IP address is greater than 300 GB/S; if the rate is larger than 300GB/S, the client system automatically restarts and sends a network attack starting signal to a server of the central office.

7. The method of claim 4, the disassembly detection algorithm of step S22, comprising the steps of:

s220: the client side judges whether artificial disassembly action exists or not by monitoring the electrolytic ionized water device;

s221: if the manual disassembly behavior exists, the client sends a disassembly signal to a switchboard server, returns inquiry information to an electronic touch screen of the electrolytic ionized water device, wherein the inquiry information comprises an input user contact number option, and returns the server of the switchboard after the input of a user;

s222: the client side continuously detects whether the electrolytic ionized water device has disassembly behavior within half an hour, and simultaneously checks whether a confirmation signal of a head office server is received;

s223: and if the client continuously detects that the electrolytic ionized water device has the disassembly behavior within half an hour and does not receive the confirmation signal of the head office server all the time, stopping the electrolytic ionized water device through the network signal.

8. The method as claimed in claim 1, the step S3 of the overall control method, comprising the steps of:

s31: after receiving the disassembling signal, the switchboard staff checks whether the switchboard server receives the telephone number, the fax number, the micro-signal, the Facebook number and the Line number of the disassembling staff or not;

s32: if receiving the telephone number, the fax number, the micro signal, the Facebook number and the Line number, the switchboard staff contact the dismantling staff through the telephone number or the fax number, the micro signal, the Facebook number and the Line number, and simultaneously automatically determine whether to send a confirmation signal to the client;

9. A remote control system for producing alkaline electrolyzed ionic water comprising:

an ionized water electrolysis device: a generator for ionic water electrolysis;

electronic touch screen: displaying prompt information for users or dismantling personnel of the electrolyzed water device, and returning a contact number to a master station server;

10. A computer-readable storage medium, in which a computer program is stored and which is applied to a client, characterized in that the computer program, when being executed by a processor, carries out the steps of the method according to any one of claims 1 to 8.