Intelligent control platform of five-constant system

Abstract

The invention discloses an intelligent control platform for a five-constant system. The intelligent control platform comprises a central control server, an equipment general control remote controller, an air source heat pump host, a capillary network, a radiation heating / cooling tail end mechanism and an air purification system, the equipment general control remote controller is used for directly controlling the output air volume of the radiation heating / cooling tail end mechanism and controlling the start-stop operation of the air source heat pump main machine through a remote control instruction; the temperature control response processing module is used for monitoring the time segment to which the current moment belongs in real time, detecting the real-time temperature data of the current moment, and detecting whether the real-time temperature data of the current moment exceeds the normal range of the corresponding time segment in the time segment temperature preference setting instruction; the temperature control response processing module automatically gives out early warning and directly adjusts and controls the air source heat pump host to adjust the output frequency to control the control temperature output to the indoor at the current moment; the platform has the technical advantages of intelligent control, intelligent energy-saving optimization and the like.

Description

Technical Field

[0001] The present invention relates to the field of HVAC control, and in particular to an intelligent control platform for a five-constant system. Background Art

[0002] Today, with the rapid development of home electrification, people have developed the "Five Constant Systems". In order to maintain comfortable indoor temperature, comfortable humidity and healthy air quality, and to keep the indoor air fresh, a treatment system consisting of constant temperature, constant humidity, constant oxygen, constant cleanliness and constant quietness has been proposed. Therefore, it is called the Five Constant Systems.

[0003] Research has found that the current five-constant control system involves a large number of controlled devices of different types, especially when implementing management and control, it cannot achieve linkage control and energy-saving control. In order to achieve the corresponding technical goals, the energy consumption of the entire five-constant system is often large, and intelligent power saving and intelligent energy saving cannot be achieved. This will also affect the widespread technical promotion and implementation of the five-constant control system. Summary of the invention

[0004] The object of the present invention is to provide a five-constant system intelligent control platform, including: a central control server, a device master control remote controller, an air source heat pump host, a capillary network and a radiation heating / cooling terminal mechanism and an air purification system;

[0005] The equipment master control remote controller is used to directly control the output air volume of the radiant heating / cooling terminal mechanism and control the start and stop operation of the air source heat pump host through remote control commands; the equipment master control remote controller is also used to directly control the working action of the air purification system through remote control commands;

[0006] The central control server includes a temperature control response processing module and an APP application module; the temperature control response processing module is used to send a time-divided temperature preference setting request to the user; the APP application module is used to receive a time-divided temperature preference setting instruction sent by the user through the APP application module loaded by the smart terminal; the time-divided temperature preference setting instruction includes a temperature preference range of 8-10 am, a temperature preference range of 10 am to 6 pm, and a temperature preference range of 6 pm to 10 pm; the temperature control response processing module parses the time-divided temperature preference setting instruction;

[0007] The temperature control response processing module is used to monitor the time period to which the current moment belongs in real time, detect the real-time temperature data at the current moment, and detect whether the real-time temperature data at the current moment exceeds the normal range of the corresponding time period in the time period temperature preference setting instruction; if the real-time temperature data at the current moment exceeds the corresponding time period in the time period temperature preference setting instruction, the temperature control response processing module automatically issues an early warning and directly adjusts the control air source heat pump host to adjust the output frequency to control the control temperature output to the indoor room at the current moment.

[0008] Preferably, as an implementable solution, the radiant heating / cooling terminal mechanism includes a radiant panel; the radiant panel serves as a radiant terminal for heating / cooling, and is installed on a wall, the ground or the ceiling; the surface of the radiant panel is coated with a radiant coating; the radiant coating is used to improve the radiation efficiency of the surface of the radiant panel.

[0009] Preferably, as an implementable solution, the surface of the radiation plate is wavy, and the radiation plate is a double-layer composite structure layer; microchannels are arranged in the inner layer of the radiation plate, and the outer layer is an insulating layer coated with the radiation coating.

[0010] Preferably, as an implementable embodiment; the central control server includes an air purification response processing module; the air purification response processing module is used to collect outdoor environmental CO2 concentration historical data and converter valve opening characteristics, current time division characteristics using environmental sensors, and predict the CO2 concentration load demand label in the future short-term period according to the outdoor environmental CO2 concentration historical data, historical time division characteristics and converter valve opening characteristics corresponding to the historical time division characteristics; the time division characteristics include daytime or night; the converter valve opening characteristics include low flow opening, medium flow opening and high flow opening;

[0011] The air purification system is regulated and controlled according to the CO2 concentration load demand tag, and if the predicted current CO2 concentration load demand tag is a high CO2 concentration load, the active additional electronically controlled filter of the air purification system is controlled; if the predicted current CO2 concentration load demand tag is a medium CO2 concentration load and a low CO2 concentration load, the active additional electronically controlled filter of the air purification system is controlled not to be started;

[0012] The CO2 concentration load demand labels include a high CO2 concentration load, a medium CO2 concentration load, and a low CO2 concentration load.

[0013] Preferably, as an implementable embodiment, it also includes a heat recovery device; the heat recovery device is installed on the inner side of the air source heat pump host; the heat recovery device is used to preheat the fresh air inhaled by the air purification system with the heat discharged from the compressor of the air source heat pump host.

[0014] Preferably, as an implementable embodiment; the air purification system includes an active additional electronically controlled filter and a passive air purifier; the active additional electronically controlled filter includes a fan and multiple groups of filter panels; the multiple groups of filter panels include HEPA filter panels;

[0015] The passive air purifier is an ionization electrostatic adsorption purifier.

[0016] Preferably, as an implementable solution, the air purification system further comprises an ultraviolet sterilization device, which is installed at the fresh air intake of the air purification system. Explanation: The ultraviolet sterilization device is used to sterilize bacteria and viruses in the fresh air to ensure indoor air hygiene.

[0017] Preferably, as an implementable embodiment, it also includes a fault log recording module; the fault log recording module is used to record the operating fault information of the central control server, the air source heat pump host and the air purification system, and record the operating fault information as a fault log and send it to the APP application module.

[0018] Since the five-constant system is far more complex than ordinary air conditioners and ordinary integrated air conditioners, the fault log recording module can record fault information in real time and can share remote intelligent information, which is convenient for maintenance personnel to diagnose and analyze and for users to understand equipment operation information.

[0019] Preferably, as an implementable embodiment, it also includes an energy consumption recording module; the energy consumption recording module is used to record the time-divided operating energy consumption information of the central control server, the air source heat pump host and the air purification system, and send the operating energy consumption information to the APP application module.

[0020] Preferably, as an implementable solution, the central control server establishes communication connections with the equipment master control remote controller, the air source heat pump host, the capillary network and the air purification system through the communication module; the communication module is a ModBus communication module or a ZigBee communication module;

[0021] Compared with the prior art, the embodiments of the present invention have at least the following technical advantages:

[0022] By analyzing the specific solution of the above-mentioned five-constant system intelligent control platform provided by the present invention, it can be known that in specific applications;

[0023] The temperature control response processing module sends a time-division temperature preference setting request to the user; the APP application module receives the time-division temperature preference setting instruction sent by the user through the APP application module loaded by the smart terminal; the time-division temperature preference setting instruction includes a temperature preference range of 8-10 a.m., a temperature preference range of 10 a.m. to 6 p.m., and a temperature preference range of 6 p.m. to 10 p.m.; the temperature control response processing module parses the time-division temperature preference setting instruction;

[0024] The temperature control response processing module monitors the time period to which the current moment belongs in real time, detects the real-time temperature data at the current moment, and detects whether the real-time temperature data at the current moment exceeds the normal range of the corresponding time period in the time period temperature preference setting instruction; if the real-time temperature data at the current moment exceeds the corresponding time period in the time period temperature preference setting instruction, the temperature control response processing module automatically issues an early warning and directly adjusts the control air source heat pump host to adjust the output frequency to control the control temperature output to the room at the current moment;

[0025] The above-mentioned five-constant system intelligent control platform realizes personalized temperature control. By allowing users to set temperature preference ranges for different time periods on the mobile phone APP, the system can monitor in real time whether the indoor temperature exceeds this range. If it exceeds this range, it will automatically adjust the output temperature of the air source heat pump to meet the user's personalized temperature needs at different time periods.

[0026] At the same time, the platform used in this embodiment improves energy efficiency: compared with simply relying on the remote control to manually adjust the temperature, this system can automatically adjust according to the user's preferences, avoiding unnecessary frequent adjustments and energy waste. At the same time, user preferences are given priority, and the manual settings of the remote control are executed only when this is met, further improving energy efficiency.

[0027] The above-mentioned five-constant system intelligent control platform realizes intelligent control. Its system integrates temperature sensors, can monitor indoor temperature in real time, and conduct intelligent analysis and control adjustments based on the temperature preferences set by users. Users can set temperature preferences remotely through the mobile phone APP without frequent manual adjustments, which improves the convenience and comfort of use.

[0028] In summary, the core value of this five-constant system intelligent control platform is to achieve personalized intelligent temperature control, improve energy efficiency and user experience, and reflect the application of intelligent technology in the home field. Therefore, the five-constant system intelligent control platform adopted in the embodiment of the present invention overcomes the technical defects of the traditional processing method pointed out in the prior art. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] In order to more clearly illustrate the specific implementation methods of the present invention or the technical solutions in the prior art, the drawings required for use in the specific implementation methods or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are some implementation methods of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0030] Figure 1 A schematic diagram of the principle structure of a five-constant system intelligent control platform provided by an embodiment of the present invention;

[0031] Figure 2 A schematic diagram of the principle structure of a central control server in a five-constant system intelligent control platform provided in an embodiment of the present invention.

[0032] Labels: central control server 10, equipment master control remote control 20, air source heat pump host 30, capillary network 40, radiation heating / cooling terminal mechanism 50, air purification system 60, temperature control response processing module 110, APP application module 120, air purification response processing module 130. DETAILED DESCRIPTION

[0033] The technical solution of the present invention will be described clearly and completely below in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0034] The present invention is further described in detail below through specific implementation examples in conjunction with the accompanying drawings.

[0035] See also Figure 1 The present invention provides a five-constant system intelligent control platform, including: a central control server 10, a device master control remote controller 20, an air source heat pump host 30, a capillary network 40, a radiation heating / cooling terminal mechanism 50 and an air purification system 60;

[0036] The equipment master control remote controller 20 is used to directly control the output air volume of the radiant heating / cooling terminal mechanism and control the start and stop operation of the air source heat pump host through remote control commands; the equipment master control remote controller 20 is also used to directly control the working action of the air purification system through remote control commands;

[0037] The central control server 10 includes a temperature control response processing module 110 and an APP application module 120; the temperature control response processing module 110 is used to send a time-divided temperature preference setting request to the user; the APP application module 120 is used to receive a time-divided temperature preference setting instruction sent by the user through the APP application module loaded by the smart terminal; the time-divided temperature preference setting instruction includes a temperature preference range of 8-10 am, a temperature preference range of 10 am to 6 pm, and a temperature preference range of 6 pm to 10 pm; the temperature control response processing module parses the time-divided temperature preference setting instruction;

[0038] The temperature control response processing module 110 is used to monitor the time period to which the current moment belongs in real time, detect the real-time temperature data at the current moment, and detect whether the real-time temperature data at the current moment exceeds the normal range of the corresponding time period in the time period temperature preference setting instruction; if the real-time temperature data at the current moment exceeds the corresponding time period in the time period temperature preference setting instruction, the temperature control response processing module automatically issues an early warning and directly adjusts the control air source heat pump host to adjust the output frequency to control the control temperature output to the indoor room at the current moment.

[0039] The temperature control response processing module and APP application module are one of the intelligent control modules; they receive the time-divided temperature preference setting instructions set by the user, analyze and resolve the time-divided temperature preference setting instructions of the user, and understand their preferences, such as the requirements for temperature setting in different activity time periods. At the same time, this system integrates environmental monitoring sensors to monitor the indoor temperature in real time.

[0040] The time period temperature preference setting instruction actually sets the temperature threshold (temperature satisfaction threshold) for different time periods. When the detected data exceeds the normal range, the system automatically issues an early warning and takes preset countermeasures, thereby realizing personalized intelligent temperature control. At the same time, the control priority of the above control method is greater than the ordinary intelligent adjustment of the operating frequency of the compressor set by the remote control, but its priority is lower than the pure manual control mode on the remote control. In this way, its intelligent temperature control avoids the energy waste of the pure manual control mode and ensures the simultaneous improvement of temperature control.

[0041] Therefore, the mobile phone APP application module is a way of remote operating system, which can realize start and stop, temperature control, etc. It can also intelligently set system operation parameters and personalize the operation response mode parameters according to usage habits.

[0042] Preferably, as an implementable solution, the radiant heating / cooling terminal mechanism includes a radiant panel; the radiant panel serves as a radiant terminal for heating / cooling, and is installed on a wall, the ground or the ceiling; the surface of the radiant panel is coated with a radiant coating; the radiant coating is used to improve the radiation efficiency of the surface of the radiant panel.

[0043] It needs to be explained that the above-mentioned radiation heating / cooling terminal mechanism is mainly a radiation panel, which or a capillary network serves as a radiation terminal for heating / cooling and is installed on a wall, floor or ceiling.

[0044] For example, when the radiation panel is performing cooling radiation, it uses the top radiation method to continuously radiate cold air from the ceiling. This cooling method is gentler and more uniform, greatly improving the human comfort.

[0045] The technical solution adopted in the embodiment of the present invention can not only achieve energy-saving control to the greatest extent through structural design and hardware system, but also achieve energy-saving control at the software level through temperature control response processing module and APP application module, thereby saving energy consumption to the greatest extent while ensuring demand.

[0046] Preferably, as an implementable solution, the surface of the radiation plate is wavy, and the radiation plate is a double-layer composite structure layer; microchannels are arranged in the inner layer of the radiation plate, and the outer layer is an insulating layer coated with the radiation coating.

[0047] The radiation panel adopts an optimized structural design to improve the radiation efficiency, thereby improving the energy-saving efficiency of the entire system and improving the energy efficiency utilization rate from the structural design level;

[0048] In the specific technical solution, the radiation plate optimizes the shape and structure of the radiation plate, that is, a wavy double-layer composite plate structure is adopted to increase the effective radiation area; microchannels are set in the radiation plate to improve the rapid transfer of heat in the plate; a double-layer composite radiation plate structure is adopted to improve the overall heat transfer efficiency and indirectly achieve energy-saving effects.

[0049] Preferably, as an implementable embodiment; the central control server 10 includes an air purification response processing module 130; the air purification response processing module 130 is used to collect outdoor environmental CO2 concentration historical data and converter valve opening characteristics, current time division characteristics using environmental sensors, and predict the CO2 concentration load demand label in the future short-term period according to the outdoor environmental CO2 concentration historical data, historical time division characteristics and converter valve opening characteristics corresponding to the historical time division characteristics; the time division characteristics include daytime or night; the converter valve opening characteristics include low flow opening, medium flow opening and high flow opening;

[0050] The air purification system is regulated and controlled according to the CO2 concentration load demand tag, and if the predicted current CO2 concentration load demand tag is a high CO2 concentration load, the active additional electronically controlled filter of the air purification system is controlled; if the predicted current CO2 concentration load demand tag is a medium CO2 concentration load and a low CO2 concentration load, the active additional electronically controlled filter of the air purification system is controlled not to be started;

[0051] The CO2 concentration load demand labels include a high CO2 concentration load, a medium CO2 concentration load, and a low CO2 concentration load.

[0052] The air purification system is a fresh air system or a fresh air fan; the fresh air system inhales fresh air from outdoor through the air inlet and transports it indoors, but while achieving air convection, it may also cause some CO2 concentrations in the room to rise. Even if the fresh air system is equipped with an air filter, it may still be affected. Therefore, it is very important to maintain the CO2 concentration in the room while achieving fresh air exchange. The intelligent control method adopted in the embodiment of the present application intelligently controls the opening of the exchange valve of the fresh air system.

[0053] This can effectively replace and renew the polluted air in the room and improve the indoor air quality.

[0054] Since historical data on carbon dioxide concentrations are collected, prediction results can be obtained based on information such as the current outdoor environment at the current time; based on the prediction results (i.e., there may generally be three types of prediction results, high CO2 concentration load, medium CO2 concentration load, and low CO2 concentration load), the operating status of each system equipment is adjusted in advance to actively meet the upcoming load demand (if the predicted current CO2 concentration load demand label is a high CO2 concentration load, the active additional electronic control filter of the air purification system is controlled; if the predicted current CO2 concentration load demand label is a medium CO2 concentration load and a low CO2 concentration load, the active additional electronic control filter of the air purification system is controlled not to be started to achieve energy-saving control); through the above-mentioned demand response mechanism, the operating power of each system equipment is dynamically coordinated to avoid oversupply of the air purification system and reduce the overall system energy consumption.

[0055] The embodiment of the present invention believes that people who are in a poor indoor air quality environment for a long time are prone to various health problems. The processing method adopted in this embodiment aims to improve the air quality of the indoor environment through intelligent detection, prediction and active regulation of indoor air quality. The most important thing is to achieve a balance between improving air quality and energy consumption, and realize the most intelligent energy-saving control.

[0056] Preferably, as an implementable embodiment, it also includes a heat recovery device; the heat recovery device is installed on the inner side of the air source heat pump host; the heat recovery device is used to preheat the fresh air inhaled by the air purification system with the heat discharged from the compressor of the air source heat pump host.

[0057] The heat recovery device can absorb the heat discharged by the compressor of the air source heat pump host, and then introduce it into the pipeline of the air purification system through a water pipeline to preheat the inhaled fresh air and improve the system efficiency.

[0058] Preferably, as an implementable embodiment; the air purification system includes an active additional electronically controlled filter and a passive air purifier; the active additional electronically controlled filter includes a fan and multiple groups of filter panels; the multiple groups of filter panels include HEPA filter panels;

[0059] The passive air purifier is an ionization electrostatic adsorption purifier.

[0060] Explanation: The air purification system includes two forms: active additional electric control filter and passive air purifier. The active additional electric control filter is the main purification control device controlled by the motor to ensure the cleanliness of the fresh air. The ionization electrostatic adsorption purifier is an ionization discharge purification, and its energy efficiency is very low. Therefore, this embodiment uses a large number of ionization electrostatic adsorption purifiers to ensure air purification while also ensuring the lowest energy consumption.

[0061] Preferably, as an implementable solution, the air purification system further comprises an ultraviolet sterilization device, which is installed at the fresh air intake of the air purification system. Explanation: The ultraviolet sterilization device is used to sterilize bacteria and viruses in the fresh air to ensure indoor air hygiene.

[0062] Preferably, as an implementable embodiment, it also includes a fault log recording module; the fault log recording module is used to record the operating fault information of the central control server, the air source heat pump host and the air purification system, and record the operating fault information as a fault log and send it to the APP application module.

[0063] Since the five-constant system is far more complex than ordinary air conditioners and ordinary integrated air conditioners, the fault log recording module can record fault information in real time and can share remote intelligent information, which is convenient for maintenance personnel to diagnose and analyze and for users to understand equipment operation information.

[0064] Preferably, as an implementable embodiment, it also includes an energy consumption recording module; the energy consumption recording module is used to record the time-divided operating energy consumption information of the central control server, the air source heat pump host and the air purification system, and send the operating energy consumption information to the APP application module.

[0065] The energy consumption recording module is used to record the time-phased operating energy consumption information of the central control server, air source heat pump host and air purification system, and send the operating energy consumption information to the APP application module, thereby providing energy information sharing function information to help users analyze and optimize energy consumption. These intelligent control and remote monitoring functions can enhance the intelligence of the system. Most importantly, they ensure the sharing of energy consumption and remind users to implement energy-saving control adjustment messages to the greatest extent.

[0066] In the specific technical solution of this embodiment, the air source heat pump host is the core equipment for heating and cooling, and can achieve efficient heating and cooling through compression cycle. Fresh air system: provides fresh and clean air, and realizes energy recovery through heat exchange. Central dehumidifier: controls indoor humidity to avoid over-dryness or over-humidity. Temperature and humidity sensors are arranged in each room to monitor temperature and humidity conditions in real time.

[0067] The central server integrates temperature and humidity detection, heating and cooling, and fresh air ventilation control functions to achieve comprehensive temperature and humidity environment control. The capillary network includes refrigerant pipelines, water supply pipelines, and drainage pipelines, etc., connecting various devices to form a complete system. The intelligent control terminal is a mobile terminal, which can remotely control and set the system through the mobile phone APP application module. The above equipment works in coordination and together constitutes the core component of the five-constant system, ensuring highly automated control of the indoor temperature environment.

[0068] Preferably, as an implementable solution, the central control server establishes communication connections with the equipment master control remote controller, the air source heat pump host, the capillary network and the air purification system through the communication module; the communication module is a ModBus communication module or a ZigBee communication module;

[0069] It should be noted that the central control server is connected to the equipment master control remote control, air source heat pump host, capillary network and air purification system through the communication module, and the data interaction and remote transmission are connected through the ModBus communication module or ZigBee communication module.

[0070] In summary, the technical solution of the five-constant system intelligent control platform proposed in the example of the present invention adopts time-sharing personalized control, and according to the actual situation and the automatic control strategy of the preset time periods, it effectively avoids unnecessary heating / cooling and saves more than 40% of energy consumption.

[0071] At the same time, energy management optimization has been achieved through hardware upgrades and software optimization. The remote monitoring system can monitor various energy consumption indicators in real time, analyze historical data and make optimization suggestions, such as adjusting equipment parameters, to help users formulate targeted energy-saving measures, which is expected to save more than 15% of energy consumption.

[0072] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. A person skilled in the art may modify the technical solutions described in the above embodiments, or replace part or all of the technical features therein with equivalents. However, these modifications or replacements do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. A five-constant system intelligent control platform, characterized in that: include: Central control server, equipment master control remote controller, air source heat pump host, capillary network and radiation heating / cooling terminal mechanism and air purification system; The equipment master control remote controller is used to directly control the output air volume of the radiant heating / cooling terminal mechanism and control the start and stop operation of the air source heat pump host through remote control commands; the equipment master control remote controller is also used to directly control the working action of the air purification system through remote control commands; The central control server includes a temperature control response processing module and an APP application module; the temperature control response processing module is used to send a time-divided temperature preference setting request to the user; the APP application module is used to receive a time-divided temperature preference setting instruction sent by the user through the APP application module loaded by the smart terminal; the time-divided temperature preference setting instruction includes a temperature preference range of 8-10 am, a temperature preference range of 10 am to 6 pm, and a temperature preference range of 6 pm to 10 pm; the temperature control response processing module parses the time-divided temperature preference setting instruction; The temperature control response processing module is used to monitor the time period to which the current moment belongs in real time, detect the real-time temperature data at the current moment, and detect whether the real-time temperature data at the current moment exceeds the normal range of the corresponding time period in the time period temperature preference setting instruction; if the real-time temperature data at the current moment exceeds the corresponding time period in the time period temperature preference setting instruction, the temperature control response processing module automatically issues an early warning and directly adjusts the control air source heat pump host to adjust the output frequency to control the control temperature output to the indoor room at the current moment.

2. A five-constant system intelligent control platform as claimed in claim 1, characterized in that: The radiation heating / cooling terminal mechanism includes a radiation panel; the radiation panel serves as a radiation terminal for heating / cooling and is installed on a wall, a floor or a ceiling; the surface of the radiation panel is coated with radiation paint; the radiation paint is used to improve the radiation efficiency of the surface of the radiation panel.

3. A five-constant system intelligent control platform as claimed in claim 2, characterized in that: The surface of the radiation plate is wavy, and the radiation plate is a double-layer composite structure layer; the inner layer of the radiation plate is provided with microchannels, and the outer layer is a heat-insulating layer coated with the radiation coating.

4. A five-constant system intelligent control platform as claimed in claim 3, characterized in that: The central control server includes an air purification response processing module; the air purification response processing module is used to collect outdoor environmental CO2 concentration historical data and converter valve opening characteristics, and current time division characteristics using environmental sensors, and predict the CO2 concentration load demand label in the future short-term period according to the outdoor environmental CO2 concentration historical data, historical time division characteristics, and converter valve opening characteristics corresponding to the historical time division characteristics; the time division characteristics include daytime or night; the converter valve opening characteristics include low flow opening, medium flow opening, and high flow opening; The air purification system is regulated and controlled according to the CO2 concentration load demand tag, and if the predicted current CO2 concentration load demand tag is a high CO2 concentration load, the active additional electronically controlled filter of the air purification system is controlled; if the predicted current CO2 concentration load demand tag is a medium CO2 concentration load and a low CO2 concentration load, the active additional electronically controlled filter of the air purification system is controlled not to be started; The CO2 concentration load demand labels include a high CO2 concentration load, a medium CO2 concentration load, and a low CO2 concentration load.

5. The five-constant system intelligent control platform as claimed in claim 1, characterized in that: It also includes a heat recovery device; the heat recovery device is installed on the inner side of the air source heat pump host; the heat recovery device is used to preheat the fresh air inhaled by the air purification system using the heat discharged from the compressor of the air source heat pump host.

6. The five-constant system intelligent control platform as claimed in claim 1, characterized in that: The air purification system includes an active additional electronically controlled filter and a passive air purifier; the active additional electronically controlled filter includes a fan and multiple groups of filter panels; the multiple groups of filter panels include HEPA filter panels; The passive air purifier is an ionization electrostatic adsorption purifier.

7. A five-constant system intelligent control platform as claimed in claim 6, characterized in that: The air purification system further comprises an ultraviolet sterilization device; the ultraviolet sterilization device is installed at the fresh air intake port of the air purification system.

8. A five-constant system intelligent control platform as claimed in claim 7, characterized in that: It also includes a fault log recording module; the fault log recording module is used to record the operating fault information of the central control server, the air source heat pump host and the air purification system, and record the operating fault information as a fault log and send it to the APP application module.

9. A five-constant system intelligent control platform as claimed in claim 8, characterized in that: It also includes an energy consumption recording module; the energy consumption recording module is used to record the time-divided operating energy consumption information of the central control server, the air source heat pump host and the air purification system, and send the operating energy consumption information to the APP application module.

10. The five-constant system intelligent control platform according to claim 1, characterized in that: The central control server establishes communication connections with the equipment master control remote controller, the air source heat pump host, the capillary network and the air purification system respectively through the communication module; the communication module is a ModBus communication module or a ZigBee communication module.

Images