CN217357051U

CN217357051U - Thermodynamic balance adjusting instrument based on out-of-schedule relative consistency geometric imbalance method

Info

Publication number: CN217357051U
Application number: CN202220015746.XU
Authority: CN
Inventors: 郑煜; 李蕾
Original assignee: Inner Mongolia Smart Heating Network Technology Co ltd; Beijing Shouzhan Technology Co ltd
Current assignee: Inner Mongolia Smart Heating Network Technology Co ltd; Beijing Shouzhan Technology Co ltd
Priority date: 2022-01-06
Filing date: 2022-01-06
Publication date: 2022-09-02
Anticipated expiration: 2032-01-06

Abstract

The utility model discloses a thermal balance adjustment appearance based on out-of-schedule relatively unanimous geometric proportion imbalance method, including adjusting end, unfavorable loop acquisition end, public network relay end, LAN relay end, cloud ware and mobile client, the quantity of public network relay end and LAN relay end is two sets of. The utility model discloses a thermal balance adjustment appearance based on out-of-schedule relatively unanimous geometric proportion imbalance method, through distinguish in the software and select the building nature of adjusting, terminal form, intranet form, with thermal property, with the rate of heat and carry out nimble meticulous regulation, solve in the mixed heating power station courtyard pipe network of polymorphic type user, adopt in the past to adjust method and instrument and equipment and only can reach the hydraulic balance operating mode, can't reach the problem of preferred thermal balance operating mode, the hot user room temperature of different grade type is more unanimous relatively after the regulation, energy-conserving effect is more apparent; the equipment is simple in structure, convenient to operate and capable of bringing better use prospects.

Description

Thermodynamic balance adjusting instrument based on out-of-schedule relative consistency geometric imbalance method

Technical Field

The utility model relates to a city heating and pipe network thermodynamic balance field thereof, in particular to thermodynamic balance adjustment appearance based on out-of-schedule relatively uniform geometric imbalance method.

Background

Urban heating and pipe network thermal balance adjusting instrument equipment thereof, concretely relates to possess flow measurement and have communication and analysis calculation function, portable thermal balance adjusting instrument, mainly used adjusts the hydraulic balance from heating power station to the courtyard pipe network between the heat consumer, but current heating pipe network hydraulic balance adjusting equipment can't satisfy people's demand.

The existing hydraulic balance adjusting device based on the 'descheduling consistency and geometric imbalance' method only adjusts the hydraulic power descheduling of each building to be consistent (for example, the descheduling is adjusted to be 1.0), the single-position flat meter flow of each heat-using building has certain defects according to the same coefficient value, although the hydraulic working condition of consistency and geometric imbalance can be quickly established, the hydraulic balance adjusting device is only limited to the properties of buildings adjusted in the courtyard pipe network, and the existing hydraulic balance adjusting device of the heat-supplying pipe network causes uneven cooling and heating of users in a town heating system, the flow of users in the heat-supplying station courtyard pipe network cannot meet the requirements, the flow of users at the front end exceeds the requirements, the small temperature difference of the courtyard pipe network of the heat-supplying system and the large-flow heating of the large-flow-quantity causes great waste of energy consumption Under the working conditions that the tail end form, the internal network form, the heat consumption property and the heat consumption rate are completely the same, such as the courtyard pipe network with one or more complex working conditions with differences, the heat consumption of various types of users is different, the adjustment cannot be performed by adopting a uniform equal ratio method, otherwise, the problem that the final indoor temperature difference of the users is large due to different actual heat consumption and required unit square meter flow rate of different types of users is caused although the dispatching adjustment is uniform, the thermodynamic equilibrium working condition cannot be completely achieved, so that an energy-saving space for fine adjustment exists, the traditional courtyard pipe network working conditions which are mixed in various types are not adapted any more is solved, in the prior art, a portable hydraulic balance adjusting device and a hydraulic balance adjusting instrument for a heating station pipe network are described, in the aspect of communication, the traditional hydraulic balance adjusting instrument mostly adopts a VPN based on a 4G \5G public network or a mode of directly establishing connection through cloud services to perform communication between devices, the device can be normally used under the condition of better coverage of mobile phone network signals, but when a well room trench is longer, a valve pipeline is arranged on the inner side of the longer trench, or no 4G or 5G network signals are covered on an interlayer of high-rise building equipment and the like, the adjustment instrument equipment cannot be connected to a cloud server to cause communication interruption, so that normal use is influenced 5G network) to solve the problem that the conventional portable balance adjusting instrument based on 4G and 5G network connection cloud service cannot be connected with a cloud server to influence normal adjustment and use under the condition that no mobile phone network signal exists between an underground garage and an interlayer storage room of a high-rise building.

SUMMERY OF THE UTILITY MODEL

The utility model discloses a main aim at provides the thermal balance adjustment appearance based on the relatively unanimous geometric proportion imbalance method of dispatch of losing, can effectively solve the problem in the background art.

In order to achieve the above purpose, the utility model adopts the technical proposal that:

the thermal balance regulator based on the out-of-schedule relative-consistency equal-proportion imbalance method comprises a regulating end, an adverse loop collecting end, a public network relay end, a local area network relay end, a cloud server and a mobile client, wherein the number of the public network relay end and the local area network relay end is two, an ultrasonic flowmeter mainboard, an internet of things cloud box, a lithium battery and a DC 12V-to-DC 24V boosting module are arranged inside an equipment shell, the internet of things cloud box is positioned on one side of the ultrasonic flowmeter mainboard, the lithium battery is positioned on the other side of the ultrasonic flowmeter mainboard, the DC 12V-to-DC 24 boosting module is positioned below the ultrasonic flowmeter mainboard, a downstream probe interface, an upstream probe interface and a DTU communication module are arranged on the outer surface of the upper end of the ultrasonic flowmeter mainboard, the downstream probe interface is positioned on one side of the upstream probe interface, and the DTU communication module is positioned on the other side of the upstream probe interface 24V, the ultrasonic flow meter comprises an ultrasonic flow meter main board, a cloud box, a lithium battery, a public network ZigBee communication module, an antenna connecting end, a public network ZigBee communication module, a cloud box shell, a relay end switch, a first connecting end and a second connecting end, wherein the area network ZigBee communication module is arranged on the outer surface of the lower end of the ultrasonic flow meter main board, the public network ZigBee communication module and the antenna connecting end are arranged on the outer surface of the upper end of the cloud box, the cloud box shell is arranged on the outer surface of the lower end of the cloud box of the Internet of things, the relay end switch is arranged on the outer surface of the upper end of the lithium battery, the first connecting end and the second connecting end are arranged on the upper surface of the DC 12V-DC 24V boosting module, the second connecting end is arranged on one side of the first connecting end, a shell switch, a first flow meter interface, a second flow meter interface and an antenna interface are arranged on one side of the shell switch, the outer surface of the upper end of the downstream probe of the ultrasonic flowmeter is provided with the downstream probe of the ultrasonic flowmeter, and the outer surface of the upper end of the second flowmeter connector is provided with the upstream probe of the ultrasonic flowmeter.

Preferably, the ultrasonic flowmeter mainboard is detachably connected with the equipment shell, the internet of things cloud box is detachably connected with the equipment shell, and the DC 12V-to-DC 24V boosting module is detachably connected with the equipment shell.

Preferably, the ultrasonic flowmeter mainboard is detachably connected with the thing allies oneself with cloud box through DTU communication module and public network zigBee communication module, the thing allies oneself with the cloud box and passes through the antenna connection end and can dismantle with antenna interface and be connected.

Preferably, the ultrasonic flowmeter mainboard passes through downstream probe interface and can dismantle the connection with a flowmeter interface, a flowmeter interface can dismantle with ultrasonic flowmeter downstream probe and be connected, the ultrasonic flowmeter mainboard passes through upstream probe interface and can dismantle the connection with No. two flowmeter interfaces, the ultrasonic flowmeter mainboard can dismantle with ultrasonic flowmeter upstream probe and be connected.

Preferably, the lithium battery is detachably connected with the shell switch through the relay terminal switch.

Preferably, the ultrasonic flowmeter main board is detachably connected with the DC 12V-to-DC 24V boosting module through a regional network ZigBee communication module and a second connecting end, and the Internet of things cloud box is detachably connected with the DC 12V-to-DC 24V boosting module through a cloud box shell and the second connecting end.

Compared with the prior art, the utility model discloses following beneficial effect has: compared with the existing hydraulic balance adjusting equipment, the method of 'designing misdispatching with different flow difference and equal ratio misadjustment' can be used for misdispatching of users of the same type or distributing differential flow with relatively consistent unit per square meter according to different properties, tail end forms, internal network forms, heat consumption properties and heat consumption rates of the adjusted buildings, the thermodynamic balance is achieved on the premise of solving the hydraulic misadjustment, the energy saving effect is more remarkable, the courtyard pipe network under complex working conditions can be quickly and efficiently adjusted, 2 and W public network communication modules are placed at places with mobile phone network signals and connected to a cloud server in a 4G and 5G communication mode, and the adjusting end and the unfavorable loop acquisition end equipment are connected with a relay end of a local area network through ZigBee, so that the problem of the remote communication distance between the adjusting end and the unfavorable loop acquisition end can be solved, and the ZigBee communication module can be used for prolonging the distance between the tens of meters adjusting end and the unfavorable loop acquisition end to the public network communication module through ZigBee, the problem of well room trench is longer, adjust instrument equipment and put the normal use under the environment that does not have 4G, 5G network signal coverage in the trench depths is solved, whole thermal balance adjustment appearance based on the relatively unanimous geometric proportion imbalance method of descheduling simple structure, convenient operation, the effect of using is better for traditional mode.

Drawings

Fig. 1 is a schematic diagram of the overall structure of the thermodynamic equilibrium regulator based on the misdispatching relative-consistency equal-proportion imbalance method of the present invention;

FIG. 2 is a block diagram of the overall structure of the thermodynamic equilibrium adjusting instrument based on the misdispatching relative consistency equal ratio imbalance method of the present invention;

FIG. 3 is a schematic diagram of the misdispatching relatively uniform imbalance method of the thermal balance adjusting instrument flow differentiation based on the misdispatching relatively uniform imbalance method of the present invention;

fig. 4 is the working principle diagram of the thermodynamic balance regulator based on the misdispatching relative-consistency equal-proportion imbalance method.

Fig. 5 is the utility model discloses unfavorable loop acquisition end structure sketch of thermal balance adjustment appearance based on out-of-dispatch relatively uniform geometric imbalance method.

In the figure: 1. an ultrasonic flowmeter motherboard; 2. an internet of things cloud box; 3. a lithium battery; 4. a DC12V to DC24V boost module; 5. an equipment enclosure; 6. a housing switch; 7. a relay end switch; 8. a first connecting end; 9. a second connecting end; 10. a ZigBee communication module of a regional network; 11. a downstream probe interface; 12. a first flow meter interface; 13. a downstream probe of the ultrasonic flow meter; 14. an upstream probe interface; 15. a second flowmeter interface; 16. an ultrasonic flow meter upstream probe; 17. a DTU communication module; 18. a public network ZigBee communication module; 19. a cloud box housing; 20. an antenna connection end; 21. an antenna interface.

Detailed Description

In order to make the technical means, creation features, achievement purposes and functions of the present invention easy to understand, the present invention is further described below with reference to the following embodiments.

In the description of the present invention, it should be noted that the terms "upper", "lower", "inner", "outer", "front", "rear", "both ends", "one end", "the other end", and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the drawings, and are only for convenience of description and simplification of the description, but do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and thus, should not be construed as limiting the present invention. Furthermore, the terms "first," "second," and the like are used for descriptive purposes only and are not to be construed as indicating or implying relative importance.

In the description of the present invention, it is to be noted that, unless otherwise explicitly specified or limited, the terms "mounted," "disposed," "connected," and the like are to be construed broadly, and for example, "connected" may be either fixedly connected or detachably connected, or integrally connected; can be mechanically or electrically connected; they may be connected directly or indirectly through intervening media, or they may be interconnected between two elements. The specific meaning of the above terms in the present invention can be understood in specific cases to those skilled in the art.

The technical solutions in the embodiments of the present invention will be described clearly and completely with reference to the accompanying drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments in the present invention, all other embodiments obtained by a person skilled in the art without creative work belong to the protection scope of the present invention.

The first embodiment is as follows:

as shown in fig. 1, the thermodynamic balance adjuster based on the out-of-schedule relative consistency equal ratio imbalance method includes an adjusting end, an unfavorable loop acquisition end, a public network relay end, a local network relay end, a cloud server and a mobile client, and is characterized in that: the number of the public network relay terminals and the number of the local network relay terminals are two, an ultrasonic flowmeter main board 1, an internet of things cloud box 2, a lithium battery 3 and a DC 12V-to-DC 24V boosting module 4 are arranged in the equipment shell 5, the internet of things cloud box 2 is positioned on one side of the ultrasonic flowmeter main board 1, the lithium battery 3 is positioned on the other side of the ultrasonic flowmeter main board 1, the DC 12V-to-DC 24V boosting module 4 is positioned below the ultrasonic flowmeter main board 1, a downstream probe interface 11, an upstream probe interface 14 and a DTU communication module 17 are arranged on the outer surface of the upper end of the ultrasonic flowmeter main board 1, the downstream probe interface 11 is positioned on one side of the upstream probe interface 14, the DTU communication module 17 is positioned on the other side of the upstream probe interface 14, a local area ZigBee communication module 10 is arranged on the outer surface of the lower end of the ultrasonic flowmeter main board 1, a public network ZigBee communication module 18 and an antenna connection end 20 are arranged on the outer surface of the upper end of the internet of things cloud box 2, the public network ZigBee communication module 18 is positioned on one side of an antenna connecting end 20, a cloud box shell 19 is arranged on the outer surface of the lower end of the Internet of things cloud box 2, a relay end switch 7 is arranged on the outer surface of the upper end of the lithium battery 3, a first connecting end 8 and a second connecting end 9 are arranged on the upper end surface of the DC 12V-to-DC 24V boosting module 4, the second connecting end 9 is positioned on one side of the first connecting end 8, a shell switch 6, a first flowmeter interface 12, a second flowmeter interface 15 and an antenna interface 21 are arranged on the outer surface of the upper end of the equipment shell 5, the first flowmeter interface 12 is positioned on one side of the shell switch 6, the second flowmeter interface 15 is positioned on one side of the first flowmeter interface 12, the antenna interface 21 is positioned on one side of the second flowmeter interface 15, and an ultrasonic flowmeter downstream probe 13 is arranged on the outer surface of the upper end of the flowmeter downstream probe 13, an ultrasonic flowmeter upstream probe 16 is arranged on the outer surface of the upper end of the second flowmeter connector 15.

The second embodiment:

on the basis of embodiment one, as shown in fig. 1, the utility model discloses thermal balance adjustment appearance regulation end is mainly by ultrasonic flowmeter mainboard 1, thing allies oneself with cloud box 2, lithium cell 3, DC12V changes DC24V boost module 4, equipment housing 5 constitutes, lithium cell 3 charges through interface 23 that charges, and set up on-off control output DC12V and give the boost module power supply, simultaneously control boost module converts DC12V into DC24V and gives ultrasonic flowmeter mainboard 1, thing allies oneself with cloud box 2 power supply, ultrasonic flowmeter upstream probe 16 is connected with ultrasonic flowmeter mainboard 1's upstream probe interface 14 through installing the flowmeter interface on equipment housing 5, ultrasonic flowmeter downstream probe 13 is connected with ultrasonic flowmeter mainboard 1's downstream probe interface 11 through installing the flowmeter interface on equipment housing 5 shell, thing allies oneself with cloud box 2 and adopts zigBee communication mode, antenna 22 is even connected with the antenna connection end 20 of thing alliing oneself with cloud box 2 through installing antenna interface 21 on equipment housing 5 and antenna connection end 20 of antenna interface 21 on equipment housing 5 And then, an RS485 communication interface of the intelligent cloud platform is connected with an RS485 interface of the ultrasonic flowmeter mainboard 1, the flow collected by the ultrasonic flowmeter mainboard 1 is read, and data are sent to a cloud server through the IOT cloud box 2 through the local area network relay terminal and the public network relay terminal.

Example three:

on the basis of the first embodiment, as shown in fig. 2, the thermodynamic balance adjusting instrument is composed of an adjusting end, an adverse loop collecting end, a cloud server, two local area network relay ends, two public network relay ends and a mobile client (a mobile phone or a tablet personal computer), wherein the adjusting end, the adverse loop collecting end and the cloud server are connected through a thing connection cloud box, the local area network relay ends and the public network relay ends, the cloud server and the mobile client are connected through 4G/5G and are intercommunicated with each other and can simultaneously issue and upload data, an adjusting person installs the distributed adverse loop collecting end on the most adverse loop of a branch line of a yard pipe network, the adverse loop collecting end sends collected flow data to the cloud server through a wireless network, the data of the adjusting end and the collecting end are stored and calculated and analyzed in the cloud server, and an adjusting operator downloads APP through the mobile client (the mobile phone or the tablet personal computer) and utilizes the 4G to download the APP, The 5G mobile network accesses the cloud server, so that the adjustment end and the adverse loop acquisition end are set and read data, wherein the mobile client serves as a setting and access device only and does not have a flow measurement function, and main adjustment work is finished by the adjustment end.

Example four:

on the basis of the first embodiment, as shown in fig. 3, the thermodynamic equilibrium adjusting apparatus of the present invention measures the water supply or return water flow of other buildings or unit buildings from the worst loop to the thermodynamic station direction in sequence from the end to the front end, and performs equilibrium adjustment, if a branch is encountered in the middle, the same is performed from the end building to the front end in sequence from the branch, until the building at the front end of the thermodynamic station is adjusted, the adjusting process is finished, and the thermodynamic equilibrium condition can be established by only adjusting once in general.

Example five:

on the basis of the first embodiment, as shown in fig. 4, the thermodynamic balance regulator of the present invention is to install the unfavorable loop acquisition end in the most unfavorable loop building or unit building well of the branch line of the courtyard pipe network to acquire the water supply or return water flow, and at the same time, measure the water supply or return water flow of other buildings or unit buildings well one by one with the regulation end, connect the cloud server through the mobile client APP, read the worst loop misscheduling calculated from the flow data acquired by the unfavorable loop acquisition end, compare the misscheduling calculated from the flow data acquired by the regulation end, distribute the flow to the pipe network according to the principle of "mismatching of mismatching relative mismatching of design flow, and the regulation personnel can prompt the switch valve according to the mobile client APP software, and the regulation prompts are divided into" open valve "," close valve "," keep ", so that the mismatching of matching of both ends of the regulation end and the unfavorable loop acquisition end always achieve mismatching of mismatching, when the adjustment of one courtyard pipe network is completed once, all the buildings are out of schedule relatively uniformly and disproportionately.

Example six:

on the basis of the first embodiment and the third embodiment, as shown in fig. 5, the adverse loop acquisition end of the thermal balance regulator of the present invention has the same hardware composition and the same adjustment end, and the functions of both ends are defined in the software in the cloud server, and similarly, the acquisition end mainly comprises an ultrasonic flowmeter motherboard 1, an internet of things cloud box 2, a lithium battery 3, a DC 12V-to-DC 24V boost module 4, and an equipment housing 5, the lithium battery 3 is charged through a charging interface 23, and a switch is provided to control the output DC12V to supply power to the boost module, and at the same time, the boost module is controlled to convert the DC12V into a DC24V to supply power to the ultrasonic flowmeter motherboard 1 and the internet of things cloud box 2, an upstream probe 16 of the ultrasonic flowmeter is connected with an upstream probe interface 14 of the ultrasonic flowmeter motherboard 1 through a flowmeter interface installed on the equipment housing 5, a downstream probe 13 of the ultrasonic flowmeter is connected with a downstream probe interface 11 of the ultrasonic flowmeter motherboard 1 through a flowmeter interface installed on the equipment housing 5, thing allies oneself with cloud box 2 and adopts zigBee communication mode, antenna 22 is connected with thing allies oneself with antenna connection end 20 of cloud box 2 through installing antenna interface 21 on equipment shell 5, its RS485 communication interface and the RS485 interface connection of ultrasonic flowmeter mainboard 1 of taking certainly, read the flow that ultrasonic flowmeter mainboard 1 was gathered, send data to cloud ware through thing allies oneself with cloud box 2 through LAN relay end and public network relay end, regulation end and collection end carry out data exchange and calculate through cloud ware, the mobile client is issued to the result. The utility model relates to a thermal balance adjusting instrument based on the out-of-schedule relative consistency equal ratio imbalance method, before using, the thermal balance adjusting instrument is composed of an adjusting end, an unfavorable loop collecting end, two local area network modules, two public network module cloud servers and a mobile client, the adjusting end and the unfavorable loop collecting end are connected to the local area network communication module through the built-in internet of things cloud box 2 in the ZigBee communication mode, the local area network communication module is connected to the public network relay end through the ZigBee (the communication link between the local area network and the public network can be replaced by the Lora technology communication mode) through the 4G and 5G network, the adjusting end and the unfavorable loop collecting end transmit data through the cloud server, the mobile client APP (mobile phone or tablet computer) can access the adjusting end and the unfavorable loop collecting end through the configuration picture on the cloud server, setting parameters of equipment of an adjusting end and an adverse loop acquisition end, such as measured pipe diameter, wall thickness, sensor type, building area, unit square meter designed flow, adjusted building property, tail end form, internal network form, heat consumption property, heat consumption rate and the like, storing and calculating and analyzing data of the adjusting end and the acquisition end in a cloud server, selecting a plurality of mounting mode probes such as a bracket type probe and an external clamp type probe by an ultrasonic flowmeter sensor used by the adjusting end and the acquisition end, firstly mounting the acquisition end on the most adverse loop of a branch line by an adjuster, connecting the acquisition end with the ultrasonic flowmeter sensor probe and fixing the sensor, establishing equipment communication connection of the acquisition end and the adverse loop adjustment end by the acquisition end through a built-in internet of things cloud box 2, a local area network communication module, a public network communication module and a cloud server, setting the area of the building measured by the adverse loop acquisition end and the adjusting end at a mobile client APP, calculating the unit of m2 and the unit of square meter flow, calculating the unit of Kg/m2, automatically calculating and displaying the designed flow of the supplied building according to the input measured building area multiplied by the unit of square meter flow, calculating and displaying the hydraulic power failure schedule of the building, namely the ratio of the actual flow and the designed flow according to the measured actual flow and the designed flow ratio, wherein X is GS/Gg, the failure schedule calculation method is a general calculation formula of heating and ventilation engineering, and selecting according to the properties of the regulated buildings (energy-saving buildings/non-energy-saving buildings/energy-saving modified buildings/bungalow/villa), the tail end form (floor heating/wall heating), the intranet form (household/up-down supply), the heat utilization property (public buildings/civil buildings), the heat utilization rate (100% -70%, 70% -50% and below 50%), the method comprises the steps that system software automatically calculates the corresponding misdispatching schedule and the required actual flow of a building or a unit adjusted by an adjusting end according to the selected type according to a 'misdispatching schedule relative consistency equal proportion misadjustment method of design flow differentiation', adjusting personnel prompt to switch a valve according to the software to enable the valve to reach the required flow, a mobile client APP accesses data in an unfavorable loop acquisition end and an adjusting end through a wireless network through a cloud server, and accordingly the adjusting end and the unfavorable loop acquisition end are set and read, wherein the mobile client serves as setting and accessing equipment only and does not have a flow measurement function, main adjusting work is completed by the adjusting end, and the purpose is to increase the portability of the equipment and the flexibility of multi-person cooperative operation by distinguishing and selecting the adjusted building property, the tail end form, the intranet form, the heat utilization property, the internal network form and the like in the software, The heat rate is used for flexible and fine adjustment, the problems that in the conventional adjusting method and instruments and equipment, only hydraulic balance working conditions can be achieved and better thermal balance working conditions cannot be achieved in the heat station and yard pipe networks mixed by various types of users are solved, the room temperatures of the different types of heat users after adjustment tend to be relatively more consistent, the energy-saving effect is more remarkable, and the heat station and yard pipe network heat-balancing system is more practical.

The basic principles and the main features of the invention and the advantages of the invention have been shown and described above. It will be understood by those skilled in the art that the present invention is not limited to the above embodiments, and that the foregoing embodiments and descriptions are provided only to illustrate the principles of the present invention without departing from the spirit and scope of the present invention. The scope of the invention is defined by the appended claims and equivalents thereof.

Claims

1. The thermodynamic equilibrium regulator based on the out-of-schedule relative consistency geometric imbalance method comprises a regulating end, an unfavorable loop acquisition end, a public network relay end, a local area network relay end, a cloud server and a mobile client, and is characterized in that: the number of the public network relay end and the number of the local network relay end are two, an ultrasonic flow meter main board (1), an internet of things cloud box (2), a lithium battery (3) and a DC 12V-to-DC 24V boosting module (4) are arranged in an equipment shell (5), the internet of things cloud box (2) is located on one side of the ultrasonic flow meter main board (1), the lithium battery (3) is located on the other side of the ultrasonic flow meter main board (1), the DC 12V-to-DC 24V boosting module (4) is located below the ultrasonic flow meter main board (1), a downstream probe interface (11), an upstream probe interface (14) and a DTU communication module (17) are arranged on the outer surface of the upper end of the ultrasonic flow meter main board (1), the downstream probe interface (11) is located on one side of the upstream probe interface (14), and the DTU communication module (17) is located on the other side of the upstream probe interface (14), the ultrasonic flowmeter is characterized in that a regional network ZigBee communication module (10) is arranged on the outer surface of the lower end of the ultrasonic flowmeter main board (1), a public network ZigBee communication module (18) and an antenna connecting end (20) are arranged on the outer surface of the upper end of the Internet of things cloud box (2), the public network ZigBee communication module (18) is located on one side of the antenna connecting end (20), a cloud box shell (19) is arranged on the outer surface of the lower end of the Internet of things cloud box (2), a relay end switch (7) is arranged on the outer surface of the upper end of the lithium battery (3), a first connecting end (8) and a second connecting end (9) are arranged on the upper end surface of the DC 12V-to-DC 24V boosting module (4), the second connecting end (9) is located on one side of the first connecting end (8), a shell switch (6), a first flowmeter interface (12), a second flowmeter interface (15) and an antenna interface (21) are arranged on the outer surface of the upper end of the equipment shell (5), a flowmeter interface (12) is located one side of shell switch (6), No. two flowmeter interfaces (15) are located one side of a flowmeter interface (12), antenna interface (21) is located one side of No. two flowmeter interfaces (15), the upper end surface of ultrasonic flowmeter downstream probe (13) is provided with ultrasonic flowmeter downstream probe (13), the upper end surface of No. two flowmeter interfaces (15) is provided with ultrasonic flowmeter upstream probe (16).

2. The thermal balance regulator based on the unscheduled relatively consistent geometric imbalance method according to claim 1, wherein: ultrasonic flowmeter mainboard (1) and equipment shell (5) can be dismantled and be connected, thing allies oneself with cloud box (2) and equipment shell (5) can be dismantled and be connected, DC12V changes DC24V and steps up module (4) and equipment shell (5) can be dismantled and be connected.

3. The thermodynamic balance regulator based on the unscheduled relative consistent geometric imbalance method according to claim 1, wherein: the ultrasonic flowmeter is characterized in that the ultrasonic flowmeter main board (1) is detachably connected with the Internet of things cloud box (2) through a DTU communication module (17) and a public network ZigBee communication module (18), and the Internet of things cloud box (2) is detachably connected with an antenna interface (21) through an antenna connecting end (20).

4. The thermal balance regulator based on the unscheduled relatively consistent geometric imbalance method according to claim 1, wherein: ultrasonic flowmeter mainboard (1) can dismantle through low reaches probe interface (11) and a flowmeter interface (12) and be connected, a flowmeter interface (12) can dismantle with ultrasonic flowmeter low reaches probe (13) and be connected, ultrasonic flowmeter mainboard (1) can dismantle with No. two flowmeter interfaces (15) through upstream probe interface (14) and be connected, ultrasonic flowmeter mainboard (1) can dismantle with ultrasonic flowmeter upstream probe (16) and be connected.

5. The thermal balance regulator based on the unscheduled relatively consistent geometric imbalance method according to claim 1, wherein: the lithium battery (3) is detachably connected with the shell switch (6) through the relay end switch (7).

6. The thermodynamic balance regulator based on the unscheduled relative consistent geometric imbalance method according to claim 1, wherein: the ultrasonic flowmeter main board (1) is detachably connected with a DC 12V-to-DC 24V boosting module (4) through a regional network ZigBee communication module (10) and a second connecting end (9), and the Internet of things cloud box (2) is detachably connected with the DC 12V-to-DC 24V boosting module (4) through a cloud box shell (19) and the second connecting end (9).