Multifunctional container type acidic electrolyzed oxidizing water generator

Abstract

The invention discloses a multifunctional container type acidic electrolyzed oxidizing water generator. The device comprises an electrolyzed water preparation system used for preparing acidic electrolyzed oxidizing water, a temperature control system used for adjusting temperature, a fire alarm system used for fire detection and alarm, an anti-theft alarm system used for anti-theft alarm, and a container used for loading the electrolyzed water preparation system, the temperature control system, the fire alarm system and the anti-theft alarm system. The field control center is used for controlling the operation of the systems on site, the remote control center is used for remotely controlling the operation of the systems, the potential water preparation system, the temperature control system, the fire alarm system and the anti-theft alarm system are all electrically connected with the field control center, and the field control center is wirelessly connected with the remote control center. The invention has the advantages that multiple functions of automatically adjusting temperature, automatically detecting fire, automatically extinguishing fire, preventing burglary and the like are considered, and the use is safer and more reliable; and the acidic electrolyzed oxidizing water with enough dosage can be prepared by operating once.

Description

Technical Field

[0001] The invention relates to the technical field of electric potential water preparation, in particular to a multifunctional container-type acidic oxidation electric potential water generator. Background Art

[0002] At present, most of the common acidic oxidation potential water generators on the market are cabinet-type and have a single function. They can only be used to prepare acidic oxidation potential water, but do not have other functions, such as temperature control, fire extinguishing, alarm, anti-theft, etc. Secondly, the volume of acidic oxidation potential water that can be produced in one operation is relatively limited, which is far from meeting the use needs of some application scenarios with a large demand for acidic oxidation potential water. Summary of the invention

[0003] The object of the present invention is to provide a multifunctional container-type acidic oxidation potential water generator to solve the technical problems existing in the background technology.

[0004] To achieve the above purpose, the technical solution adopted by the present invention is as follows:

[0005] A multifunctional container-type acidic oxidation potential water generator comprises a potential water preparation system for preparing acidic oxidation potential water, a temperature control system for adjusting temperature, a fire alarm system for fire detection and alarm, an anti-theft alarm system for anti-theft alarm, a container for loading the potential water preparation system, the temperature control system, the fire alarm system and the anti-theft alarm system, an on-site control center for on-site control of the operation of the potential water preparation system, the temperature control system, the fire alarm system and the anti-theft alarm system, and a remote control center for remote control of the operation of the potential water preparation system, the temperature control system, the fire alarm system and the anti-theft alarm system, wherein the potential water preparation system, the temperature control system, the fire alarm system and the anti-theft alarm system are all electrically connected to the on-site control center, and the on-site control center is wirelessly connected to the remote control center.

[0006] Furthermore, the acidic oxidation potential water preparation system includes a raw water tank, a water purification module, a pure water tank, a salt barrel, a brine tank, a potential water making module, an alkaline water tank and an acid water tank, the raw water tank is connected to the water purification module, the water purification module is connected to the pure water tank, the pure water tank is connected to the salt barrel and the potential water making module, the salt barrel is connected to the brine tank, the brine tank is connected to the potential water making module, and the potential water making module is connected to the alkaline water tank and the acid water tank.

[0007] Furthermore, the water purification module includes a raw water tank solenoid valve, a raw water pump, a precision filter, a quartz sand filter tank, an activated carbon filter tank, a resin tank, a booster pump and an RO membrane filter, the input end of the raw water tank solenoid valve is connected to the raw water tank, and the output end is connected to the raw water pump, the raw water pump is connected to the precision filter, the precision filter is connected to the quartz sand filter tank, the quartz sand filter tank is connected to the activated carbon filter tank, the activated carbon filter tank is connected to the resin tank, the resin tank is connected to the booster pump, the booster pump is connected to the RO membrane filter, and the raw water tank solenoid valve, raw water pump and booster pump are all electrically connected to the on-site control center.

[0008] Furthermore, the potential water production module comprises a first electrolytic cell, a second electrolytic cell, an alkaline water barrel solenoid valve, an acid water barrel solenoid valve, an alkaline water pump A, an acid water pump A, an alkaline water barrel and an acid water barrel, the first electrolytic cell and the second electrolytic cell each comprising two water inlets and two water outlets, one of the water inlets of the first electrolytic cell and the second electrolytic cell is connected to the pure water tank through a pure water pump and a pure water tank solenoid valve in sequence, and the other water inlet is connected to the brine tank through a brine pump and a brine tank solenoid valve in sequence; one of the water outlets of the first electrolytic cell and the second electrolytic cell is connected to the alkaline water barrel solenoid valve in sequence The magnetic valve and alkaline water pump A are connected to the alkaline water bucket, and the other water outlet is connected to the acid water bucket through the acid water bucket solenoid valve and acid water pump A in sequence. The alkaline water bucket is connected to the input end of the alkaline water tank, and the acid water bucket is connected to the input end of the acid water tank. The output end of the alkaline water tank is provided with an alkaline water tank solenoid valve and an alkaline water pump B, and the output end of the acid water tank is provided with an acid water tank solenoid valve and an acid water pump B. The alkaline water bucket solenoid valve, the acid water bucket solenoid valve, the alkaline water pump A, the acid water pump A, the alkaline water tank solenoid valve, the alkaline water pump B, the acid water tank solenoid valve and the acid water pump B are all electrically connected to the on-site control center.

[0009] Furthermore, the electric potential water production module also includes a first alkaline water flow meter, a second alkaline water flow meter, a first acid water flow meter, a second acid water flow meter, a pH value monitor and an ORP value detector, the first alkaline water flow meter is connected to the alkaline water outlet of the first electrolytic cell, the second alkaline water flow meter is connected to the alkaline water outlet of the second electrolytic cell, the first acid water flow meter is connected to the acid water outlet of the first electrolytic cell, the second acid water flow meter is connected to the acid water outlet of the second electrolytic cell, the pH value monitor and the ORP value detector are both connected to the acid water bucket, and the first alkaline water flow meter, the second alkaline water flow meter, the first acid water flow meter, the second acid water flow meter, the pH value monitor and the ORP value detector are all electrically connected to the on-site control center.

[0010] Furthermore, the raw water tank is provided with a raw water tank level gauge, the pure water tank is provided with a pure water tank level gauge, the brine tank is provided with a brine tank level gauge, the alkaline water tank is provided with an alkaline water tank level gauge, and the acid water tank is provided with an acid water tank level gauge. The raw water tank level gauge, the pure water tank level gauge, the brine tank level gauge, the alkaline water tank level gauge and the acid water tank level gauge are all electrically connected to the on-site control center.

[0011] Furthermore, the temperature control system includes a temperature sensor, a temperature controller and a temperature control execution device. There are multiple temperature sensors distributed on the inner top wall and / or inner side wall of the container, and are all electrically connected to the temperature controller. The temperature controller is integrated with the on-site control center and is electrically connected to the temperature control execution device and the on-site control center respectively. The temperature sensor is used to detect the ambient temperature in the container. The temperature controller is responsible for receiving and processing the detection signal from the temperature sensor, and controlling the temperature control execution device to perform corresponding actions. The temperature control execution device is used to take corresponding actions according to the control signal sent by the temperature controller.

[0012] Furthermore, the fire alarm system includes fire detectors, fire sound and light alarms, a fire alarm controller and a fire linkage controller. There are multiple fire detectors distributed on the inner top wall of the container, and all are electrically connected to the fire alarm controller. The fire sound and light alarms are arranged on the inner wall of the container and are electrically connected to the fire alarm controller. The fire alarm controller and the fire linkage controller are integrated with the on-site control center, and the fire alarm controller is electrically connected to the fire linkage controller and the on-site control center respectively. The fire linkage controller is electrically connected to a fire water pump and an exhaust fan. The fire water pump is connected to a fire water tank and a fire pipe. A plurality of sprinkler heads are connected to the fire pipe, and the exhaust fan is connected to the exhaust pipe.

[0013] Furthermore, the anti-theft alarm system includes a front-end detector and an alarm controller, the front-end detector is arranged at the front end of the container and is electrically connected to the alarm controller, the alarm controller is integrated with the on-site control center and is electrically connected to the on-site control center, the front-end detector is used to detect external signals that illegally intrude into the container prevention area, and the alarm controller is responsible for receiving and processing external signals from the front-end detector, and analyzing and determining whether to issue an alarm message; a container door is also provided at the front end of the container, and one end of the container door is hinged to the container by a hinge, and the other end is locked to the container by a container lock.

[0014] Furthermore, the field control center includes a field controller, a wireless communication module and a control cabinet. The field controller and the wireless communication module are both arranged inside the control cabinet, and the input end of the field controller is electrically connected to the electric potential water preparation system, the temperature control system, the fire alarm system and the anti-theft alarm system respectively, and the output end is wirelessly connected to the remote control center through the wireless communication module.

[0015] Compared with the prior art, the advantages of the present invention are as follows:

[0016] (1) It has multiple functions including automatic temperature adjustment, automatic fire detection and automatic fire extinguishing, anti-theft, etc., making it safer and more reliable to use.

[0017] (2) A sufficient amount of acidic oxidizing potential water can be prepared by running it once.

[0018] (3) It has two control modes, on-site control and remote control, which are flexible to use. The remote control mode provided here helps users to remotely control the on-site operation of the multifunctional container-type acidic oxidation potential water generator of the present invention, and to view the operating status of the multifunctional container-type acidic oxidation potential water generator of the present invention in real time, so as to predict some faults, dangerous situations, alarms, etc. in advance, which helps to carry out timely maintenance, reduce the risk of using the device, and improve the safety of using the device. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] In order to more clearly illustrate the technical solution in this embodiment, the following is a brief introduction to the drawings required for use in the description of the embodiment. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0020] Figure 1 This is a principle block diagram of the multifunctional container-type acidic oxidation potential water generator of the present invention;

[0021] Figure 2 It is the schematic diagram of the electric potential water preparation system;

[0022] Figure 3 This is the schematic diagram of the water purification module;

[0023] Figure 4 This is the schematic diagram of the electric potential water making module;

[0024] Figure 5 It is the schematic diagram of the temperature control system;

[0025] Figure 6 It is the schematic diagram of the fire alarm system;

[0026] Figure 7 It is the schematic diagram of the anti-theft alarm system;

[0027] Figure 8 This is a schematic diagram of an embodiment of the multifunctional container-type acidic oxidation potential water generator of the present invention. Figure 1 ;

[0028] Fig. 9 This is a schematic diagram of an embodiment of the multifunctional container-type acidic oxidation potential water generator of the present invention. Figure 2 ;

[0029] Description of reference numerals: 1. container; 2. container door; 3. electric potential water preparation system; 301. raw water tank; 302. water purification module; 302a. raw water tank solenoid valve; 302b. raw water pump; 302c. precision filter; 302e. quartz sand filter tank; 302f. activated carbon filter tank; 302d. resin tank; 302g. booster pump; 302h. RO membrane filter; 303. pure water tank; 304. salt barrel; 305. brine tank; 306. electric potential water preparation system module; 306a, first electrolytic cell; 306b, second electrolytic cell; 306c, solenoid valve of alkaline water bucket; 306d, solenoid valve of acid water bucket; 306e, alkaline water pump A; 306f, acid water pump A; 306g, alkaline water bucket; 306h, acid water bucket; 306i, first alkaline water flow meter; 306j, second alkaline water flow meter; 306k, first acid water flow meter; 306l, second acid water flow meter; 306m, pH value monitor; 306n, ORP value detector; 3 07, alkali water tank; 308, acid water tank; 309, pure water tank solenoid valve; 310, pure water pump; 311, brine tank solenoid valve; 312, brine pump; 313, alkali water tank solenoid valve; 314, alkali water pump B; 315, acid water tank solenoid valve; 316, acid water pump B; 317, raw water tank level gauge; 318, pure water tank level gauge; 319, brine tank level gauge; 320, alkali water tank level gauge; 321, acid water tank level gauge; 4, temperature control system; 401, temperature sensor; 402. Temperature controller; 403. Temperature control execution equipment; 5. Fire alarm system; 501. Fire detector; 502. Fire sound and light alarm; 503. Fire alarm controller; 504. Fire linkage controller; 505. Fire water pump; 506. Exhaust fan; 507. Fire water tank; 508. Fire pipe; 509. Sprinkler head; 6. Anti-theft alarm system; 601. Front-end detector; 602. Alarm controller; 7. On-site control center; 8. Remote control center. DETAILED DESCRIPTION

[0030] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the following further describes how the present invention is implemented in conjunction with the accompanying drawings and specific implementation methods.

[0031] See also Figure 1The present invention provides a multifunctional container-type acidic oxidation potential water generator, comprising a potential water preparation system 3 for preparing acidic oxidation potential water, a temperature control system 4 for adjusting temperature, a fire alarm system 5 for fire detection and alarm, an anti-theft alarm system 6 for anti-theft alarm, a container 1 for loading the potential water preparation system 3, the temperature control system 4, the fire alarm system 5 and the anti-theft alarm system 6, an on-site control center 7 for on-site control of the operation of the potential water preparation system 3, the temperature control system 4, the fire alarm system 5 and the anti-theft alarm system 6, and a remote control center 8 for remotely controlling the operation of the potential water preparation system 3, the temperature control system 4, the fire alarm system 5 and the anti-theft alarm system 6, the potential water preparation system 3, the temperature control system 4, the fire alarm system 5 and the anti-theft alarm system 6 are all electrically connected to the on-site control center 7, and the on-site control center 7 is wirelessly connected to the remote control center 8.

[0032] See also Figure 2 As a preferred embodiment of the present invention: the acidic oxidation potential water preparation system 3 includes a raw water tank 301, a water purification module 302, a pure water tank 303, a salt barrel 304, a brine tank 305, a potential water production module 306, an alkaline water tank 307 and an acid water tank 308; wherein the raw water tank 301 is connected to the water purification module 302, the water purification module 302 is connected to the pure water tank 303, the pure water tank 303 is connected to the salt barrel 304 and the potential water production module 305, the salt barrel 304 is connected to the brine tank 305, the brine tank 305 is connected to the potential water production module 306, and the potential water production module 306 is connected to the alkaline water tank 307 and the acid water tank 308.

[0033] See also Figure 3 As a preferred embodiment of the present invention, the water purification module 302 includes a raw water tank solenoid valve 302a, a raw water pump 302b, a precision filter 302c, a quartz sand filter tank 302d, an activated carbon filter tank 302e, a resin tank 302f, a booster pump 302g and an RO membrane filter 302h. The input end of the raw water tank solenoid valve 302a is connected to the raw water tank 301, and the output end is connected to the raw water pump 302b. The raw water pump 302b is connected to the precision filter 302c is connected, the precision filter 302c is connected to the quartz sand filter tank 302d, the quartz sand filter tank 302d is connected to the activated carbon filter tank 302e, the activated carbon filter tank 302e is connected to the resin tank 302f, the resin tank 302f is connected to the booster pump 302g, the booster pump 302g is connected to the RO membrane filter 302h, the raw water tank solenoid valve 302a, the raw water pump 302b, and the booster pump 302g are all electrically connected to the field control center 7.

[0034] Specifically, the working principle of the water purification module 302 is as follows: first, the raw water (i.e., unpurified water) in the raw water tank 301 is pumped into the precision filter 302c through the raw water tank solenoid valve 302a and the raw water pump 302b, and then filtered through the quartz sand filter tank 302d and the activated carbon filter tank 302e and softened by the resin tank 302f in turn, and then pumped into the RO membrane filter 302h through the booster pump 302g, and then filtered through the RO membrane filter 302n and enter the pure water tank 303. In the pure water tank 303, the water level change in the pure water tank 302 is monitored in real time by the pure water tank liquid level meter 308. When the water level reaches a high level, the water purification module 302 stops working, and when the water level reaches a low level, the water purification module 302 starts working.

[0035] See also Figure 4 As a preferred embodiment of the present invention, the potential water making module 306 includes a first electrolytic cell 306a, a second electrolytic cell 306b, an alkaline water bucket solenoid valve 306c, an acid water bucket solenoid valve 306d, an alkaline water pump A306e, an acid water pump A306f, an alkaline water bucket 306g and an acid water bucket 306h, the first electrolytic cell 306a and the second electrolytic cell 306b each include two water inlets and two water outlets, one of the water inlets of the first electrolytic cell 306a and the second electrolytic cell 306b is connected to the pure water tank 303 through the pure water pump 310 and the pure water tank solenoid valve 309 in sequence, and the other water inlet is connected to the brine tank 304 through the brine pump 312 and the brine tank solenoid valve 311 in sequence; one of the water outlets of the first electrolytic cell 306a and the second electrolytic cell 306b is connected to the brine tank 304 through the alkaline water pump 310 and the pure water tank solenoid valve 309 in sequence; Bucket solenoid valve 306c and alkaline water pump A306e are connected with alkaline water bucket 306g, and another water outlet is connected with acid water bucket 306h through acid water bucket solenoid valve 306d and acid water pump A306f in sequence, alkaline water bucket 306g is connected with the input end of alkaline water tank 307, and acid water bucket 306h is connected with the input end of acid water tank 308, and the output end of alkaline water tank 307 is provided with alkaline water tank solenoid valve 313 and alkaline water pump B314, and the output end of acid water tank 308 is provided with acid water tank solenoid valve 315 and acid water pump B316, and alkaline water bucket solenoid valve 306c, acid water bucket solenoid valve 306d, alkaline water pump A306e, acid water pump A306f, alkaline water tank solenoid valve 313, alkaline water pump B314, acid water tank solenoid valve 315 and acid water pump B316 are all electrically connected with the field control center 7.

[0036] See also Figure 4As a preferred embodiment of the present invention, the electric potential water production module 306 further includes a first alkaline water flow meter 306i, a second alkaline water flow meter 306j, a first acid water flow meter 306k, a second acid water flow meter 306l, a pH value monitor 306m and an ORP value detector 306n, the first alkaline water flow meter 306i is connected to the alkaline water outlet of the first electrolytic cell 306a, the second alkaline water flow meter 306j is connected to the alkaline water outlet of the second electrolytic cell 306b, and the first acid water flow meter 306i is connected to the alkaline water outlet of the first electrolytic cell 306a. 6k is connected to the acid water outlet of the first electrolytic cell 306a, the second acid water flowmeter 306l is connected to the acid water outlet of the second electrolytic cell 306b, the pH value monitor 306m and the ORP value detector 306n are both connected to the acid water bucket 306h, the first alkaline water flowmeter 306i, the second alkaline water flowmeter 306j, the first acid water flowmeter 306k, the second acid water flowmeter 306l, the pH value monitor 306m and the ORP value detector 306n are all electrically connected to the field control center 7.

[0037] Specifically, the working principle of the potential water making module 306 is as follows: first, the pure water in the pure water tank 303 is pumped into the first electrolytic cell 306a and the second electrolytic cell 306b through the pure water pump 310 through the pure water tank solenoid valve 309; at the same time, the brine in the brine tank 305 is pumped into the first electrolytic cell 306a and the second electrolytic cell 306b through the brine tank solenoid valve 311 by the brine pump 312; then, the pumped pure water and brine are electrolyzed by the first electrolytic cell 306a and the second electrolytic cell 306b to separate into acidic oxidizing potential water and alkaline reducing potential water (hereinafter, acidic oxidizing potential water is referred to as acid water, and alkaline reducing potential water is referred to as alkaline water); then, the alkaline water separated from the first electrolytic cell 306a and the second electrolytic cell 306b is transported to the alkaline water bucket solenoid valve 306c and the alkaline water pump A306e. In the alkaline water bucket 306g, the separated acid water is transported to the acid water bucket 306h through the acid water bucket solenoid valve 306d and the acid water pump A306h; when the water level in the acid water bucket 306h reaches a high level, the first electrolytic cell 306a and the second electrolytic cell 306b stop electrolyzing water, and transport the acid water in the acid water bucket 306h to the acid water tank 308; when the water level in the acid water bucket 306h reaches a low level, the first electrolytic cell 306a and the second electrolytic cell 306b start electrolyzing water; similarly, when the water level in the alkaline water bucket 306g reaches a high level, the first electrolytic cell 306a and the second electrolytic cell 306b stop electrolyzing water, and transport the alkaline water in the alkaline water bucket 306g to the alkaline water tank 307, and when the water level in the alkaline water bucket 306g reaches a low level, the first electrolytic cell 306a and the second electrolytic cell 306b start electrolyzing water.

[0038] See also Figure 3As a preferred embodiment of the present invention, a raw water tank level gauge 317 is provided on the raw water tank 301, a pure water tank level gauge 318 is provided on the pure water tank 303, a brine tank level gauge 319 is provided on the brine tank 304, an alkaline water tank level gauge 320 is provided on the alkaline water tank 307, and an acid water tank level gauge 321 is provided on the acid water tank 308. The raw water tank level gauge 317, the pure water tank level gauge 318, the brine tank level gauge 319, the alkaline water tank level gauge 320 and the acid water tank level gauge 321 are all electrically connected to the field control center 7. In the figure, the raw water tank level gauge 317 is used to monitor the water level changes in the raw water tank 301; the pure water tank level gauge 318 is used to monitor the water level changes in the pure water tank 303; the brine tank level gauge 319 is used to monitor the water level changes in the brine tank 305; the alkaline water tank level gauge 320 is used to monitor the water level changes in the alkaline water tank 307; and the acid water tank level gauge 321 is used to monitor the water level changes in the acid water tank 308.

[0039] See also Figure 5 As a preferred embodiment of the present invention, the temperature control system 4 includes a temperature sensor 401, a temperature controller 402 and a temperature control execution device 403. There are multiple temperature sensors 401 distributed on the inner top wall and / or the inner side wall of the container 1, and are all electrically connected to the temperature controller 402. The temperature controller 402 is integrated with the field control center 7, and is electrically connected to the temperature control execution device 403 and the field control center 7 respectively. The temperature sensor 401 is used to detect the ambient temperature in the container 1. The temperature controller 402 is responsible for receiving and processing the detection signal from the temperature sensor 401, and controlling the temperature control execution device 403 to perform corresponding actions. The temperature control execution device 403 is used to take corresponding heating or cooling actions according to the control signal sent by the temperature controller 402.

[0040] Specifically, the temperature control execution device 403 is preferably an air conditioning device.

[0041] Specifically, the working principle of the temperature control system 4 is as follows: when in use, the ambient temperature value in the container 1 is measured in real time by the temperature sensor 401, and the ambient temperature value is converted into an electrical signal and sent to the temperature controller 402. The temperature controller 402 determines whether the ambient temperature value in the container 1 reaches the preset temperature value based on the received electrical signal; if the preset temperature value is not reached, a corresponding start control signal is sent to the temperature control execution device 403, and the temperature control execution device 403 is started to heat up or cool down until the temperature sensor 401 measures that the ambient temperature value in the container 1 reaches the preset temperature value; if the preset temperature value is reached, a corresponding pause control signal is sent to the temperature control execution device 403, and the temperature control execution device 403 pauses operation.

[0042] See also Figure 6As a preferred embodiment of the present invention: the fire alarm system 5 includes a fire detector 501, a fire sound and light alarm 502, a fire alarm controller 503 and a fire linkage controller 504. There are multiple fire detectors 501 and they are distributed on the inner top wall of the container 1, and are all electrically connected to the fire alarm controller 503. The fire sound and light alarm 502 is set on the inner wall of the container 1 and is electrically connected to the fire alarm controller 503. The fire alarm controller 503 and the fire linkage controller 504 are integrated with the on-site control center 7, and the fire alarm controller 503 is electrically connected to the fire linkage controller 504 and the on-site control center 7 respectively. The fire linkage controller 504 is electrically connected to a fire water pump 505 and an exhaust fan 506. The fire water pump 505 is connected to a fire water tank 507 and a fire pipe 508. A plurality of sprinkler heads 509 are connected to the fire pipe 508, and the exhaust fan 506 is connected to an exhaust pipe 510. When the fire detector 501 detects a fire, the fire pump 505 is started under the control of the fire linkage controller 504 to pump the fire water in the fire water tank 507 into the fire pipe 508, and then spray it out through the sprinkler head 509 on the fire pipe 508 to achieve automatic fire extinguishing. The exhaust fan 506 is used to exhaust the smoke in the container 1 in time when a fire occurs in the container 1.

[0043] Specifically, as a preferred embodiment of the present invention: a fire pump 505 and a fire water tank 507 are specifically arranged inside the control cabinet 703 of the on-site control center 700; a fire pipe 508 is suspended on the inner top wall of the container 1 through a bracket; a sprinkler head 509 is located at the bottom of the fire pipe 508; the exhaust fan 506 is arranged on the side wall of the container 1; an exhaust duct 510 is suspended on the inner top wall of the container 1 through a bracket, and a plurality of ventilation holes 511 are also opened at the bottom of the exhaust duct 510.

[0044] Specifically, the fire detector 501 can be any one of a smoke fire detector, a temperature fire detector, a light fire detector, a combustible gas detector or a composite fire detector.

[0045] Specifically, the working principle of the fire alarm system 5 is as follows: when in use, the fire condition in the container 1 is monitored in real time by the fire detector 401, and the detection signal is sent to the fire alarm controller 503. When the fire detector 401 detects a fire, the fire alarm controller 503 sends corresponding control signals to the fire sound and light alarm 502 and the fire linkage controller 504 respectively, so that the fire sound and light alarm 502 is started, and the sound and light alarm prompt light and sound are emitted, so that the fire linkage controller 504 starts the fire pump 505 and the exhaust fan 506 to work, and the fire water in the fire water tank 407 is pumped into the fire pipe 408 by the fire pump 505, and then sprayed out through the sprinkler head 409 on the fire pipe 408 to realize automatic fire extinguishing, and the smoke generated by the fire in the container 1 is discharged to the outside of the container 1 through the exhaust pipe 510 by the exhaust fan 506.

[0046] See also Figure 7 As a preferred embodiment of the present invention: the anti-theft alarm system 6 includes a front-end detector 601 and an alarm controller 602. The front-end detector 601 is arranged at the front end of the container 1 and is electrically connected to the alarm controller 602. The alarm controller 602 is integrated with the on-site control center 7 and is electrically connected to the on-site control center 7; the front-end detector 601 is used to detect external signals that illegally invade the prevention area of ​​the container 1, and the alarm controller 602 is responsible for receiving and processing external signals from the front-end detector 601, and analyzing and judging whether to issue an alarm message; a container door 2 is also arranged at the front end of the container 1, and one end of the container door 2 is hinged to the container 1 by a hinge, and the other end is locked to the container 1 by a container lock.

[0047] Specifically, the front detector 601 is preferably an infrared detector, which is arranged at the front end of the container 1 and above the container door 2 .

[0048] Specifically, the working principle of the anti-theft alarm system 6 is: when in use, the front-end detector 601 monitors the defense area around the container 1 in real time. When an illegal intrusion by an outsider is detected, the front-end detector 601 immediately sends a detection signal to the alarm controller 602, and the alarm controller 602 immediately alarms and notifies the user.

[0049] See also Figure 1 As a preferred embodiment of the present invention: the field control center 7 includes a field controller 701, a wireless communication module 702 and a control cabinet 703. The field controller 701 and the wireless communication module 702 are both arranged inside the control cabinet 703, and the input end of the field controller 701 is electrically connected to the potential water preparation system 3, the temperature control system 4, the fire alarm system 5 and the anti-theft alarm system 6 respectively, and the output end is wirelessly connected to the remote control center 8 through the wireless communication module 702.

[0050] Specifically, the field controller 701 is preferably a PLC programmable controller.

[0051] Specifically, the remote control center 8 is provided with a corresponding remote controller (not shown in the figure) and a monitoring device (not shown in the figure), wherein the remote controller facilitates the remote control of the operation of the on-site controller 701, and the monitoring device facilitates real-time viewing of the operating status of the existing system equipment, so as to predict some equipment failures, dangerous situations (fires), and alarm situations (illegal intrusions) in advance, facilitate timely maintenance of the equipment, and improve the safety of use of the device (i.e., the multifunctional container-type acidic oxidizing potential water generator).

[0052] See also Figure 8 and Fig. 9 As a preferred embodiment of the present invention: the electric potential water preparation system 3 is centrally arranged at the center of the container 1; the temperature control system 4 and the fire alarm system 5 are centrally arranged at the top of the container 1; the anti-theft alarm system 6 is centrally arranged on one side of the container 1 close to the container door 2; the on-site control center 7 is arranged at one end of the electric potential water preparation system 3 close to the container door 2.

[0053] The multifunctional container-type acidic oxidation potential water generator provided by the present invention can be controlled on site or remotely when in use.

[0054] When on-site control is adopted, the operation of the corresponding system modules can be controlled by operating the on-site controller 701, for example: when it is necessary to prepare electric potential water, the electric potential water preparation system 3 can be started by pressing the corresponding electric potential water start button on the on-site controller 701; when it is not necessary to prepare electric potential water, the operation of the electric potential water preparation system 3 can be paused by pressing the corresponding electric potential water stop button on the on-site controller 701; when it is necessary to adjust the ambient temperature in the container 1, the temperature control system 4 can be started by pressing the corresponding temperature control start button on the on-site controller 701; when it is not necessary to adjust the ambient temperature in the container 1, the temperature control system 4 can be paused by pressing the corresponding temperature control stop button on the on-site controller 701; by the same token, the operation of the fire alarm system 5 and the anti-theft alarm system 6 can be controlled by adjusting the corresponding buttons as needed.

[0055] When remote control is adopted, the remote controller in the remote control center 7 can send corresponding working instructions to the field controller 701, and then the field controller 701 controls the operation of the corresponding system modules.

[0056] Finally, it should be noted that the above description is only an embodiment of the present invention, and does not limit the patent scope of the present invention. Any equivalent structure or equivalent process transformation made using the contents of the present invention specification and drawings, or directly or indirectly used in other related technical fields, are also included in the patent protection scope of the present invention.

Claims

1. A multifunctional container-type acidic oxidizing potential water generator, characterized in that: The invention comprises a potential water preparation system (3) for preparing acidic oxidizing potential water, a temperature control system (4) for adjusting temperature, a fire alarm system (5) for fire detection and alarm, an anti-theft alarm system (6) for anti-theft alarm, a container (1) for loading the potential water preparation system (3), the temperature control system (4), the fire alarm system (5) and the anti-theft alarm system (6), an on-site control center (7) for on-site control of the operation of the potential water preparation system (3), the temperature control system (4), the fire alarm system (5) and the anti-theft alarm system (6), and a remote control center (8) for remotely controlling the operation of the potential water preparation system (3), the temperature control system (4), the fire alarm system (5) and the anti-theft alarm system (6), wherein the potential water preparation system (3), the temperature control system (4), the fire alarm system (5) and the anti-theft alarm system (6) are all electrically connected to the on-site control center (7), and the on-site control center (7) is wirelessly connected to the remote control center (8).

2. The multifunctional container-type acidic oxidation potential water generator according to claim 1 is characterized in that: The acidic oxidation potential water preparation system (3) comprises a raw water tank (301), a water purification module (302), a pure water tank (303), a salt barrel (304), a brine tank (305), a potential water production module (306), an alkaline water tank (307) and an acid water tank (308), wherein the raw water tank (301) is connected to the water purification module (302), the water purification module (302) is connected to the pure water tank (303), the pure water tank (303) is connected to the salt barrel (304) and the potential water production module (305), the salt barrel (304) is connected to the brine tank (305), the brine tank (305) is connected to the potential water production module (306), and the potential water production module (306) is connected to the alkaline water tank (307) and the acid water tank (308).

3. The multifunctional container-type acidic oxidizing potential water generator according to claim 2 is characterized in that: The water purification module (302) comprises a raw water tank solenoid valve (302a), a raw water pump (302b), a precision filter (302c), a quartz sand filter tank (302d), an activated carbon filter tank (302e), a resin tank (302f), a booster pump (302g) and an RO membrane filter (302h). The input end of the raw water tank solenoid valve (302a) is connected to the raw water tank (301), and the output end is connected to the raw water pump (302b). The raw water pump (302b) is connected to the precision filter (302c). The precision filter (302c) is connected to the quartz sand filter tank (302d), the quartz sand filter tank (302d) is connected to the activated carbon filter tank (302e), the activated carbon filter tank (302e) is connected to the resin tank (302f), the resin tank (302f) is connected to the booster pump (302g), the booster pump (302g) is connected to the RO membrane filter (302h), and the raw water tank solenoid valve (302a), the raw water pump (302b), and the booster pump (302g) are all electrically connected to the field control center (7).

4. The multifunctional container-type acidic oxidation potential water generator according to claim 2 is characterized in that: The potential water production module (306) comprises a first electrolytic cell (306a), a second electrolytic cell (306b), an alkaline water bucket solenoid valve (306c), an acid water bucket solenoid valve (306d), an alkaline water pump A (306e), an acid water pump A (306f), an alkaline water bucket (306g) and an acid water bucket (306h), wherein the first electrolytic cell (306a) and the second electrolytic cell (306b) each comprise two water inlets and two water outlets, and the first electrolytic cell (306a) and the second electrolytic cell (306b) each comprise two water inlets and two water outlets. One of the water inlets of the first electrolytic cell (306a) and the second electrolytic cell (306b) is connected to the pure water tank (303) through the pure water pump (310) and the pure water tank solenoid valve (309), and the other water inlet is connected to the brine tank (304) through the brine pump (312) and the brine tank solenoid valve (311); one of the water outlets of the first electrolytic cell (306a) and the second electrolytic cell (306b) is connected to the alkaline water bucket solenoid valve (306c) and the alkaline water tank solenoid valve (306d) in sequence. The water pump A (306e) is connected to the alkaline water bucket (306g), and the other water outlet is connected to the acid water bucket (306h) in sequence through the acid water bucket electromagnetic valve (306d) and the acid water pump A (306f). The alkaline water bucket (306g) is connected to the input end of the alkaline water tank (307), and the acid water bucket (306h) is connected to the input end of the acid water tank (308). The output end of the alkaline water tank (307) is provided with an alkaline water tank electromagnetic valve (313) and an alkaline water pump. B (314), the output end of the acid water tank (308) is provided with an acid water tank electromagnetic valve (315) and an acid water pump B (316), and the alkali water bucket electromagnetic valve (306c), the acid water bucket electromagnetic valve (306d), the alkali water pump A (306e), the acid water pump A (306f), the alkali water tank electromagnetic valve (313), the alkali water pump B (314), the acid water tank electromagnetic valve (315) and the acid water pump B (316) are all electrically connected to the field control center (7).

5. The multifunctional container-type acidic oxidation potential water generator according to claim 4 is characterized in that: The electric potential water production module (306) further comprises a first alkaline water flow meter (306i), a second alkaline water flow meter (306j), a first acid water flow meter (306k), a second acid water flow meter (306l), a pH value monitor (306m) and an ORP value detector (306n), wherein the first alkaline water flow meter (306i) is connected to the alkaline water outlet of the first electrolytic cell (306a), the second alkaline water flow meter (306j) is connected to the alkaline water outlet of the second electrolytic cell (306b), the first acid water flow meter (306k) is connected to the first The first alkaline water flowmeter (306i), the second alkaline water flowmeter (306j), the first acid water flowmeter (306k), the second acid water flowmeter (306l), the pH value monitor (306m) and the ORP value detector (306n) are all connected to the acid water bucket (306h), and the first alkaline water flowmeter (306i), the second alkaline water flowmeter (306j), the first acid water flowmeter (306k), the second acid water flowmeter (306l), the pH value monitor (306m) and the ORP value detector (306n) are all electrically connected to the on-site control center (7).

6. The multifunctional container-type acidic oxidation potential water generator according to claim 2 is characterized in that: The raw water tank (301) is provided with a raw water tank level gauge (317), the pure water tank (303) is provided with a pure water tank level gauge (318), the brine tank (304) is provided with a brine tank level gauge (319), the alkaline water tank (307) is provided with an alkaline water tank level gauge (320), and the acid water tank (308) is provided with an acid water tank level gauge (321). The raw water tank level gauge (317), the pure water tank level gauge (318), the brine tank level gauge (319), the alkaline water tank level gauge (320), and the acid water tank level gauge (321) are all electrically connected to the on-site control center (7).

7. The multifunctional container-type acidic oxidation potential water generator according to claim 1 is characterized in that: The temperature control system (4) comprises a temperature sensor (401), a temperature controller (402) and a temperature control execution device (403). There are multiple temperature sensors (401) distributed on the inner top wall and / or the inner side wall of the container (1), and all are electrically connected to the temperature controller (402). The temperature controller (402) is integrated with the field control center (7) and is electrically connected to the temperature control execution device (403) and the field control center (7) respectively. The temperature sensor (401) is used to detect the ambient temperature in the container (1). The temperature controller (402) is responsible for receiving and processing the detection signal from the temperature sensor (401) and controlling the temperature control execution device (403) to execute corresponding actions. The temperature control execution device (403) is used to take corresponding actions according to the control signal sent by the temperature controller (402).

8. The multifunctional container-type acidic oxidation potential water generator according to claim 1 is characterized in that: The fire alarm system (5) comprises a fire detector (501), a fire sound and light alarm (502), a fire alarm controller (503) and a fire linkage controller (504); the fire detectors (501) are in plurality and are distributed on the inner top wall of the container (1) and are all electrically connected to the fire alarm controller (503); the fire sound and light alarm (502) is arranged on the inner wall of the container (1) and is electrically connected to the fire alarm controller (503); the fire alarm controller (503) and the fire linkage controller (504) are connected to the fire alarm controller (503); The linkage controller (504) is integrated with the on-site control center (7), and the fire alarm controller (503) is electrically connected to the fire linkage controller (504) and the on-site control center (7), respectively. The fire linkage controller (504) is electrically connected to a fire pump (505) and an exhaust fan (506), the fire pump (505) is connected to a fire water tank (507) and a fire pipe (508), a plurality of sprinkler heads (509) are connected to the fire pipe (508), and the exhaust fan (506) is connected to an exhaust pipe (510).

9. The multifunctional container-type acidic oxidation potential water generator according to claim 1 is characterized in that: The anti-theft alarm system (6) comprises a front-end detector (601) and an alarm controller (602). The front-end detector (601) is arranged at the front end of the container (1) and is electrically connected to the alarm controller (602). The alarm controller (602) is integrated with the on-site control center (7) and is electrically connected to the on-site control center (7). The front-end detector (601) is used to detect external signals that illegally invade the prevention area of ​​the container (1). The alarm controller (602) is responsible for receiving and processing external signals from the front-end detector (601) and analyzing and judging whether to issue an alarm message. The front end of the container (1) is also provided with a container door (2), and one end of the container door (2) is hinged to the container (1) by a hinge, and the other end is locked to the container (1) by a container lock.

10. The multifunctional container-type acidic oxidation potential water generator according to claim 1 is characterized in that: The field control center (7) comprises a field controller (701), a wireless communication module (702) and a control cabinet (703); the field controller (701) and the wireless communication module (702) are both arranged inside the control cabinet (703); the input end of the field controller (701) is electrically connected to the electric potential water preparation system (3), the temperature control system (4), the fire alarm system (5) and the anti-theft alarm system (6), respectively; and the output end is wirelessly connected to the remote control center (8) through the wireless communication module (702).

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