Coupling partition air conditioner control method

Abstract

The invention discloses a coupling partition air conditioner control method. The method comprises the following steps that a controller is used for selecting a coupling operation mode of the coupling partition air conditioning system; the air treatment unit is used for carrying out heat and humidity treatment on the air; coupling and performance of air conditioner loops of different coupling partitions are achieved and adjusted by adjusting opening, closing and opening degrees of the air valves and the water valves. Based on the coupling mode of the coupled partition air conditioning system selected by the controller and heat and humidity treatment of the air treatment unit on the air, the working state is adjusted through the power unit, so that the airflow organization form, the flowing speed and the temperature and humidity of the air in an air loop composed of the air supply tail end and the air return tail end are changed, and multi-working-condition operation is achieved. The time for indoor air to reach the human body can be shortened, the comfort requirement of the human body is improved, energy consumption can be reduced, and energy is saved.

Description

Technical Field

[0001] This invention relates to the field of air conditioning technology, and more specifically to a coupled zone air conditioning control method. Background Technology

[0002] Currently, all-air conditioning systems are mainly divided into comfort air conditioning and process air conditioning. While these systems can meet the requirements for indoor temperature, humidity, and air cleanliness, the high air velocity requirements of comfort and process air conditioning (5-8 m / s for main ducts, 3-6 m / s for branch ducts, and 2-5 m / s for terminal ducts with vents) result in high external static pressure, high fan speeds, and high noise levels. Furthermore, when changing the airflow at the air supply terminals, the opening of the airflow regulating valve needs to be adjusted for matching, which is difficult for non-professionals to do. Therefore, this not only affects human thermal comfort but also easily leads to energy waste. Summary of the Invention

[0003] To address the aforementioned shortcomings in the prior art, the present invention provides a coupled zoned air conditioning control method and apparatus.

[0004] To achieve the above-mentioned objectives, the technical solution adopted by this invention is as follows: A coupled zone air conditioning control method includes the following steps: The controller is used to select the coupled operation mode of the coupled zone air conditioning system; The air is treated with heat and humidity using an air handling unit; By adjusting the opening and closing degree of the air valve and water valve, the coupling and performance of the air conditioning loops in different coupling zones can be realized and adjusted. Based on the coupling mode of the coupled zone air conditioning system selected by the controller and the heat and humidity treatment of the air by the air handling unit, the working state is adjusted by the power unit to change the airflow organization, flow speed and temperature and humidity of the air in the indoor air loop composed of the supply air terminal and the return air terminal.

[0005] Furthermore, the air supply terminal adopts an integrated VAV terminal, which is installed at the top of the room to supply air; the return air terminal adopts a side-top return air inlet, or a combination of a side-top return air inlet and a floor return air inlet, or a floor return air inlet.

[0006] Furthermore, the air supply terminal adopts a swirl air outlet; the return air terminal adopts a side-top return air outlet, or a combination of a side-top return air outlet and a floor return air outlet, or a floor return air outlet.

[0007] Furthermore, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts one of the following methods: Side upper return air vent; The return air inlet of the ground-mounted fan-powered terminal unit itself; Floor return air vents, and the secondary return air in the floor return air plenum can be selectively activated; The combination of the side upper return air vent and the floor return air vent allows for the selective use of the floor return air vent for all or part of the near-end secondary return air. The combination of the return air inlet of the ground-mounted fan-powered terminal unit and the floor return air inlet; The combination of the return air inlet and the upper side return air inlet of the ground-mounted fan-powered terminal unit; The combination of the ground-mounted fan-powered terminal unit's own return air inlet, floor return air inlet, and side upper return air inlet.

[0008] Furthermore, the air supply terminal adopts a combination of an integrated VAV terminal and a swirl air outlet; the return air terminal adopts a combination of a side-top return air outlet, a side-top return air outlet and a floor return air outlet, or a floor return air outlet.

[0009] Furthermore, the supply air terminal adopts a combination of an integrated VAV terminal and a ground-mounted fan-powered terminal device; the return air terminal adopts one of the following methods: Side upper return air vent; The return air inlet of the ground-mounted fan-powered terminal unit itself; Floor return air vent; A combination of a side-mounted return air vent and a floor return air vent; The combination of the return air inlet of the ground-mounted fan-powered terminal unit and the floor return air inlet; The combination of the return air inlet and the upper side return air inlet of the ground-mounted fan-powered terminal unit; The combination of the ground-mounted fan-powered terminal unit's own return air inlet, floor return air inlet, and side upper return air inlet.

[0010] Furthermore, the air supply terminal adopts a combination of a ground-mounted fan-powered terminal device and a swirl diffuser; the return air terminal adopts one of the following methods: Side upper return air vent; A combination of a side-mounted return air vent and a floor return air vent; The combination of the ground-mounted fan-powered terminal unit's own return air inlet, floor return air inlet, and side upper return air inlet; Floor return air vent; The combination of the return air inlet and the upper side return air inlet of the ground-mounted fan-powered terminal unit; The return air inlet of the ground-mounted fan-powered terminal unit itself; The combination of the return air inlet of the ground-mounted fan-powered terminal unit and the floor return air inlet.

[0011] Furthermore, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a floor return air outlet or a side-mounted return air outlet.

[0012] Furthermore, the supply air terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts one of the following methods: The ground-mounted fan-powered terminal unit has its own return air inlet, and the air handling unit mainly or only supplies fresh air; A combination of a side-mounted return air vent and a floor return air vent; The combination of the return air inlet of the ground-mounted fan-powered terminal device and the side upper return air inlet, and the return air inlet of the ground-mounted fan-powered terminal device includes the fan start-up and the fan non-start-up functions; The combination of the return air inlet of the ground-mounted fan-powered terminal unit and the floor return air inlet, and the return air inlet of the ground-mounted fan-powered terminal unit includes starting the fan or not starting the fan, and the floor return air inlet can be selectively used for all near-end secondary return air or part of near-end secondary return air.

[0013] Furthermore, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the ground-mounted fan-powered terminal device's own return air outlet, floor return air outlet, and side upper return air outlet.

[0014] The present invention has the following beneficial effects: This invention utilizes a controller to select the coupling mode of a coupled zoned air conditioning system, employs an air handling unit to process the flowing air, and incorporates heat and humidity control and filtration modules within the air handling unit. Based on the coupling mode selected by the controller and the air processed by the air handling unit, the coupling of the zoned air conditioning system is achieved through the opening and closing of air valves. The performance of the coupled zoned air conditioning system is adjusted by controlling the opening degree of air and water valves. Finally, based on the coupling mode selected by the controller and the heat and humidity control modules within the air handling unit, the operating status is adjusted through ground-mounted powered terminal air outlets, primary return air outlets, secondary return air outlets, floor return air vents, integrated VAV terminals, swirl air outlets, displacement air outlets, louvered return air outlets, and the power unit. This alters the airflow velocity and temperature and humidity within the coupled zoned air conditioning system to meet indoor parameter requirements. This process shortens the time it takes for indoor air to reach the human body, resulting in a more uniform indoor temperature and velocity field, improving human comfort. Near-end secondary return air reduces initial investment, minimizes pipe friction and temperature rise (fall), and reduces noise, while also lowering energy consumption and saving energy. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of a coupled zoned air conditioning control method; Figure 2 This is a schematic diagram of the first pathway of the present invention; Figure 3 This is a schematic diagram of the second pathway of the present invention; Figure 4 This is a schematic diagram of the third pathway of the present invention; Figure 5 This is a schematic diagram of the fourth pathway of the present invention; Figure 6 This is a schematic diagram of the fifth pathway of the present invention; Figure 7 This is a schematic diagram of the sixth pathway of the present invention; Figure 8 This is a schematic diagram of the seventh pathway of the present invention; Figure 9 This is a schematic diagram of the eighth pathway of the present invention; Figure 10 This is a schematic diagram of the ninth pathway of the present invention; Figure 11 This is a schematic diagram of the tenth pathway of the present invention; Figure 12 This is a schematic diagram of the eleventh pathway of the present invention; Figure 13 This is a schematic diagram of the twelfth pathway of the present invention; Figure 14 This is a schematic diagram of the thirteenth pathway of the present invention; Figure 15 This is a schematic diagram of the fourteenth pathway of the present invention; Figure 16 This is a schematic diagram of the fifteenth pathway of the present invention; Figure 17 This is a schematic diagram of the sixteenth pathway of the present invention; Figure 18 This is a schematic diagram of the seventeenth pathway of the present invention; Figure 19 This is a schematic diagram of the eighteenth pathway of the present invention; Figure 20 This is a schematic diagram of the nineteenth pathway of the present invention; Figure 21 This is a schematic diagram of the twentieth pathway of the present invention; Figure 22 This is a schematic diagram of the twenty-first pathway of the present invention; Figure 23 This is a schematic diagram of the twenty-second pathway of the present invention; Figure 24 This is a schematic diagram of the twenty-third pathway of the present invention; Figure 25 This is a schematic diagram of the twenty-fourth pathway of the present invention; Figure 26 This is a schematic diagram of the twenty-fifth pathway of the present invention; Figure 27 This is a schematic diagram of the twenty-sixth pathway of the present invention; Figure 28 This is a schematic diagram of the twenty-seventh pathway of the present invention; Figure 29 This is a schematic diagram of the twenty-eighth pathway of the present invention; Figure 30 This is a schematic diagram of the twenty-ninth pathway of the present invention; Figure 31 This is a schematic diagram of the thirtieth pathway of the present invention; Figure 32 This is a schematic diagram of the thirty-first pathway of the present invention; Figure 33 This is a schematic diagram of the thirty-second pathway of the present invention; Figure 34 This is a schematic diagram of the thirty-third pathway of the present invention; Figure 35 This is a schematic diagram of the thirty-fourth pathway of the present invention; Figure 36 This is a schematic diagram of the thirty-fifth pathway of the present invention; Figure 37 This is a schematic diagram of the thirty-sixth pathway of the present invention; Figure 38 This is a schematic diagram of the thirty-seventh pathway of the present invention; Figure 39 This is a schematic diagram of the thirty-eighth pathway of the present invention; Figure 40 This is a schematic diagram of the thirty-ninth pathway of the present invention; Figure 41 This is a schematic diagram of the fortieth pathway of the present invention; Figure 42 This is a schematic diagram of the forty-first pathway of the present invention; Figure 43 This is a schematic diagram of the forty-second pathway of the present invention; Figure 44 This is a schematic diagram of the forty-third pathway of the present invention; Figure 45 This is a schematic diagram of the forty-fourth pathway of the present invention. Detailed Implementation

[0016] The specific embodiments of the present invention are described below to enable those skilled in the art to understand the present invention. However, it should be understood that the present invention is not limited to the scope of the specific embodiments. For those skilled in the art, various changes are obvious as long as they are within the spirit and scope of the present invention as defined and determined by the appended claims. All inventions utilizing the concept of the present invention are protected.

[0017] like Figure 1 As shown, a coupled zone air conditioning control method includes steps S1-S4, as detailed below: S1. Use the controller to select the coupled operation mode of the coupled zone air conditioning system.

[0018] In an optional embodiment of the present invention, the controller is used to receive power start / stop signals and adjust the operating state of the power unit fan / liquid pump to change the flow speed of air / liquid on the surface of the surface cooler / heater or in the liquid loop formed by the surface cooler / heater water tank through the pipe, thereby changing the amount of heat exchange flowing through the surface cooler / heater and changing the temperature of the air supplied to the space of the coupled zone air conditioning system.

[0019] S2. Use an air handling unit to perform heat and humidity treatment on the air.

[0020] In an optional embodiment of the present invention, the present invention utilizes an air handling unit (AHU) to process the flowing air, and provides heat, humidity treatment and filtration modules in the air handling unit.

[0021] The coils and humidification section within the air handling unit are connected via water pipes. The air handling unit is used to process the fresh, return, and exhaust air of the coupled zoned air conditioning system. The various functional sections of the air handling unit are used in the gas loop, while the pipes connected to the surface cooler / heater outside the unit are used in the liquid loop.

[0022] S3. By adjusting the opening and closing degree of the air valve and water valve, the coupling and performance of the air conditioning loops in different coupling zones can be realized and adjusted.

[0023] S4. Based on the coupling mode of the coupled zone air conditioning system selected by the controller and the heat and humidity treatment of the air by the air handling unit, the working state is adjusted by the power unit to change the airflow organization, flow speed and temperature and humidity of the air in the indoor air loop composed of the supply air terminal and the return air terminal.

[0024] In an optional embodiment of the present invention, the air supply terminal is an integrated VAV terminal, which is installed at the top of the room to supply air; the return air terminal is a side-top return air inlet, or a combination of a side-top return air inlet and a floor return air inlet, or a floor return air inlet.

[0025] like Figure 2As shown, the air supply terminal adopts an integrated VAV terminal, which is installed at the top of the room for air supply; the return air terminal adopts a side-mounted return air vent. In this invention, after the air is heated, humidified and filtered by the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, the air is supplied to the inner area through the air supply S2 branch, and then sent to the coupled zone air-conditioned room through the air duct and the S(3-1) integrated VAV terminal. Each air vent is an independent temperature control area, with a built-in mode conversion thermostat, cooling and heating thermostat, actuator and regulating air valve. The air volume can be adjusted according to the set temperature. The opening degree of the regulating air valve is adjusted by the mode thermostat on the air vent. The air returns to the air handling unit through the H(3-2) louvered return air vent and the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0026] like Figure 3 As shown, the air supply terminal adopts an integrated VAV terminal, which is set at the top of the room for air supply; the return air terminal adopts a combination of side return air inlet and floor return air inlet. In this invention, after the air is heated, humidified and filtered by the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, the air is supplied to the inner area through the air supply S2 branch, and then sent to the coupled zone air-conditioned room through the air duct and the integrated VAV terminal S(3-1). Each air outlet is an independent temperature control area, with built-in mode conversion thermostat, cooling and heating thermostat, actuator and regulating air valve. The air volume can be adjusted according to the set temperature. The opening degree of the regulating air valve is adjusted by the mode thermostat on the air outlet. The return air part enters the return air static pressure box through the open H(1-3) all-steel passage raised floor, and then merges with the return air from the H(3-2) louvered return air inlet through port H(3-4) and returns to the return air duct. Then it returns to the air handling unit through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0027] like Figure 4As shown, the air supply terminal adopts an integrated VAV terminal, which is installed at the top of the room for air supply; the return air terminal adopts a floor return air vent. This invention processes the air through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections for heat, humidity, and filtration. The air is then supplied to the inner zone via the S2 branch, and through the air duct and the S(3-1) integrated VAV terminal into the coupled zoned air-conditioned room. Each vent is an independent temperature control zone, with a built-in mode-conversion thermostat, heating / cooling thermostat, actuator, and regulating air valve. The airflow can be adjusted according to the set temperature. The opening degree of the regulating air valve is adjusted by the mode thermostat on the vent. The air enters the return air static pressure box through the perforated H(1-3) all-steel passageway, and returns to the air handling unit via H(3-4) and the primary and secondary return air passages, maintaining the set indoor temperature and meeting the comfort requirements of the human body and the process requirements of the indoor equipment. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0028] In an optional embodiment of the present invention, the air supply terminal adopts a swirl air outlet; the return air terminal adopts a side-top return air outlet, or a combination of a side-top return air outlet and a floor return air outlet, or a floor return air outlet.

[0029] like Figure 5 As shown, the air supply terminal uses a swirl nozzle; the return air terminal uses a side-top return air inlet. In this invention, after the air undergoes heat, humidity, and filtration treatment through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, the air in the inner zone is supplied to the air supply static pressure box through the air supply branch port S(1-1), and then enters the coupled zone air-conditioned room through the swirl nozzle S(1-2). The return air returns to the air handling unit through the louvered return air inlet H(3-2) and the primary and secondary return air paths. The air in the outer zone is supplied to the coupled zone air-conditioned room through the air duct and the replacement air outlets S(5-1) and S(5-2) via the air supply branch S2, and returns to the air handling unit through the louvered return air inlet H(5-3) and the primary and secondary return air paths.

[0030] like Figure 6As shown, the air supply terminal adopts a swirl air outlet; the return air terminal adopts a combination of side upper return air outlet and floor return air outlet. In this invention, after the air is heated, humidified and filtered by the functional sections ① to ⑩ of the air handling device (air handling unit and energy recovery device), the air in the inner area is sent into the air supply static pressure box through the air supply branch port S (1-1). In the return air static pressure box, the near-end secondary return air electric valve H (2-4) mixes the air sent into the air supply static pressure box according to the indoor set temperature, and then sends it into the coupled zone air-conditioned room through the swirl air outlet S (1-2). It enters the return air static pressure box through 1) the all-steel passage floor with opening H (1-3), and then merges with 2) the louvered return air outlet H (3-2) through H (3-4) and then returns to the air handling device through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0031] like Figure 7 As shown, the air supply terminal uses a swirl nozzle; the return air terminal uses a floor return air inlet. In this invention, after the air undergoes heat, humidity, and filtration treatment through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, the air in the inner zone is sent into the air supply static pressure box through the air supply S1 branch port S(1-1). In the return air static pressure box, the near-end secondary return air electric valve H(2-4) mixes the air sent into the air supply static pressure box through S(1-1) according to the indoor set temperature, and then sends it into the coupled zone air-conditioned room through the swirl nozzle S(1-2). It then enters the return air static pressure box through the H(1-3) perforated all-steel access floor, and returns to the air handling unit through the H(3-4) return air port and then through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0032] In an optional embodiment of the present invention, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts one of the following methods: side-mounted return air inlet; return air inlet of the ground-mounted fan-powered terminal device itself; floor return air inlet, and the secondary return air in the floor plenum can be selectively activated; a combination of side-mounted return air inlet and floor return air inlet, and the floor return air inlet can be selectively activated as all or part of the secondary return air; a combination of return air inlet of the ground-mounted fan-powered terminal device itself and floor return air inlet; a combination of return air inlet of the ground-mounted fan-powered terminal device itself and side-mounted return air inlet; a combination of return air inlet of the ground-mounted fan-powered terminal device itself, floor return air inlet and side-mounted return air inlet.

[0033] like Figure 8As shown, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts a side-mounted return air inlet. In this invention, after the air undergoes heat, humidity, and filtration treatment through the functional sections ① to ⑩ of the air handling unit (air handling unit and energy recovery device), the air in the inner area is supplied to the air supply static pressure box via the air supply S1 branch port S(1-1). After passing through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal (with slight heating in winter), it is pressurized by the secondary fan and then supplied to the coupled zone air-conditioned room via S(2-2). After returning to the return air duct via the H(3-2) louvered return air inlet, it returns to the air handling unit through the primary and secondary return air passages, maintaining the set indoor temperature and meeting the comfort requirements of the human body and the process requirements of the indoor equipment. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0034] like Figure 9 As shown, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts the return air inlet of the ground-mounted fan-powered terminal device itself. In this invention, after the air undergoes heat, humidity, and filtration treatment through the functional sections ① to ⑩ of the air handling unit (air handling unit and energy recovery device), the air in the inner area is supplied to the air supply static pressure box via the air supply S1 branch port S (1-1). After passing through the primary return air passage S (2-1) of the ground-mounted fan-powered terminal, it mixes with the secondary return air inlet H (2-3) near the ground-mounted fan-powered terminal (with slight heating in winter). After being pressurized by the secondary fan, it is then supplied to the coupled zoned air-conditioned room via S (2-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. The air handling unit only supplies fresh air to the S1 branch. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0035] like Figure 10As shown, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts a floor return air inlet, and the near-end secondary return air in the floor plenum is activated. After the air is heated, humidified and filtered by the air handling device (air handling unit and energy recovery device) ①~⑩, the air in the inner area is sent into the air supply plenum through the air supply S1 branch port S (1-1). After mixing with the part of the air that returns to the air supply plenum through the open H (1-3) all-steel passage movable floor and is sent into the air supply plenum through the near-end secondary return air electric valve H (2-4) (adjustable) in the return air plenum, the air is then sent into the coupled zone air-conditioned room through the primary return air passage S (2-1) of the ground-mounted fan-powered terminal and then through S (2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. The return air, passing through the perforated H(1-3) all-steel access floor, returns to another portion of the return air within the return air plenum. After passing through port H(3-4), it returns to the return air duct and then to the air handling unit via the primary and secondary return air pathways. The outer zone air is supplied to the coupled zone air-conditioned room via the supply air branch S2 through air ducts and the S(5-1) and S(5-2) replacement air outlets. It then returns to the air handling unit via the H(5-3) louvered return air outlet and the primary and secondary return air pathways.

[0036] like Figure 11 As shown, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts a floor return air inlet, and the secondary return air in the floor plenum is closed. In this invention, after the air undergoes heat, humidity, and filtration treatment through the functional sections ① to ⑩ of the air handling unit (air handling unit and energy recovery device), the air in the inner area is supplied to the air supply plenum via the supply air branch port S(1-1). After passing through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal (with slight heating in winter), it is pressurized by the secondary fan and then sent to the coupled zone air-conditioned room via S(2-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. After returning to the return air plenum through the perforated H(1-3) all-steel access floor, it returns to the return air duct through port H(3-4), and then returns to the air handling unit through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0037] like Figure 12As shown, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of side-mounted return air inlet and floor return air inlet, and the return air returning to the return air plenum through the floor return air inlet is all near-end secondary return air. In this invention, after the air is heated, humidified and filtered by the air handling device (air handling unit and energy recovery device) ①~⑩ functional sections, the air in the inner area is sent into the air supply plenum through the air supply S1 branch port S (1-1), and after passing through the primary return air passage S (2-1) of the ground-mounted fan-powered terminal (which can be slightly heated in winter), it is mixed with the air sent into the air supply plenum by the near-end secondary return air electric valve H (2-4) in the return air plenum. After being pressurized by the secondary fan, it is sent into the coupled zone air-conditioned room by S (2-2); part of it is sent into the air supply plenum by the air supply S1 branch port S (1-1) of the air supply S1 branch port S (1-1), and then through the primary return air passage S (2-1) of the ground-mounted fan-powered terminal (which can be slightly heated in winter). After returning to the return air duct via the H(3-2) louvered return air inlet, the air returns to the air handling unit via the primary and secondary return air passages. Part of the air returns to the return air plenum via the open H(1-3) all-steel passage raised floor. All of the air is mixed with the air supplied to the supply air plenum via the near-end secondary return air electric valve H(2-4) in the return air plenum and then again via the primary return air passage of the ground-mounted fan-powered terminal, before being supplied to the coupled zone air-conditioned room via S(2-1) to maintain the set indoor temperature and meet the comfort requirements of the human body and the process requirements of the indoor equipment. The air from the outer zone is supplied to the coupled zone air-conditioned room via the supply air branch S2 through the air duct and the S(5-1) and S(5-2) replacement air outlets, and then returns to the air handling unit via the H(5-3) louvered return air inlet and the primary and secondary return air passages.

[0038] like Figure 13As shown, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of side-mounted return air inlet and floor return air inlet, and the return air returning to the return air plenum through the floor return air inlet is part of the near-end secondary return air. In this invention, after the air is heated, humidified and filtered by the air handling device (air handling unit and energy recovery device) ①~⑩ functional sections, the air in the inner area is sent into the air supply plenum through the air supply S1 branch port S (1-1). After mixing with part of the air that returns to the air supply plenum through the open H (1-3) all-steel passage movable floor and is sent into the air supply plenum through the near-end secondary return air electric valve H (2-4), the air is then pressurized by the secondary fan and sent into the coupled zone air-conditioned room through S (2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. Another portion of the return air, passing through the perforated H(1-3) all-steel access floor, returns to the return air plenum. This return air then merges with the return air from the H(3-2) louvered return air inlet at port H(3-4) and returns to the return air duct. Finally, it returns to the air handling unit via the primary and secondary return air pathways. The outer zone air is supplied to the coupled zone air-conditioned room via the S2 branch air supply line, through air ducts and the S(5-1) and S(5-2) replacement air outlets. The air then returns to the air handling unit via the H(5-3) louvered return air inlet and the primary and secondary return air pathways.

[0039] like Figure 14As shown, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air inlet of the ground-mounted fan-powered terminal device and the floor return air inlet. During the transitional season, the air in the inner zone is heated, humidified, and filtered by the air handling unit (air handling unit and energy recovery unit) ①~⑩. After being sent into the air supply static pressure box through the air supply branch port S(1-1), the air near the secondary return air electric valve H(2-4) in the return air static pressure box is mixed with the air sent into the air supply static pressure box by S(1-1) according to the indoor set temperature. After being mixed with the primary return air of the ground fan powered terminal and the secondary return air near the ground fan powered terminal H(2-3) (which can be slightly heated in winter), the air is pressurized by the secondary fan and sent into the coupled zone air-conditioned room through S(2-2). Part of the return air returns to the return air static pressure box through the all-steel passage raised floor with the opening H(1-3), and part of it returns to the air duct through port H(3-4) and then returns to the air handling unit through the primary and secondary return air passages. Another portion of this air is mixed with the air supplied to the static pressure box via S(1-1) and then delivered into the room through the near-end secondary return air electric valve H(2-4) according to the set indoor temperature. This maintains the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. The air from the outer zone is delivered to the coupled zone air-conditioned room through the air duct and the replacement air outlets S(5-1) and S(5-2) via the branch air supply S2. After passing through the louvered return air outlet H(5-3), it merges with the return air that has returned to the return air duct and then returns to the air handling unit through the primary and secondary return air passages.

[0040] like Figure 15 As shown, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air inlet of the ground-mounted fan-powered terminal device itself and the side upper return air inlet. In this invention, after the air undergoes heat, humidity, and filtration treatment through the functional sections ① to ⑩ of the air handling unit (air handling unit and energy recovery device), the air in the inner area is supplied to the air supply static pressure box through the branch port S(1-1) of the air supply S1. After passing through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal, it mixes with the near-end secondary return air inlet H(2-3) of the ground-mounted fan-powered terminal (with slight heating in winter). After being pressurized by the secondary fan, it is then sent to the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. Part of the return air returns to the return air duct through the louvered return air inlet H(3-2), and then returns to the air handling unit through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0041] like Figure 16As shown, the air supply terminal adopts a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air inlet of the ground-mounted fan-powered terminal device itself, the floor return air inlet, and the side upper return air inlet. After the air is heated, humidified, and filtered by the air handling device (air handling unit and energy recovery device) ①~⑩, the air in the inner area is sent into the air supply static pressure box through the air supply S1 branch port S (1-1). After mixing with the air that returns to the air supply static pressure box through the open H (1-3) all-steel passage movable floor and is sent into the air supply static pressure box near the secondary return air electric valve H (2-4), the air is mixed with the air near the secondary return air inlet H (2-3) of the ground-mounted fan-powered terminal device through the primary return air passage S (2-1) (it can be slightly heated in winter). After being pressurized by the secondary fan, it is sent into the coupled zone air-conditioned room through S (2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. The return air, passing through the perforated H(1-3) all-steel access floor, returns to another portion of the return air within the return air plenum. This return air then merges with the return air from the H(3-2) louvered return air inlet at port H(3-4) and returns to the air handling unit via the primary and secondary return air pathways. The air from the outer zone is supplied to the coupled zone air-conditioned rooms via the S2 branch air supply line, through air ducts and the S(5-1) and S(5-2) replacement air outlets. It then returns to the air handling unit via the H(5-3) louvered return air inlet and the primary and secondary return air pathways.

[0042] In an optional embodiment of the present invention, the air supply terminal adopts a combination of an integrated VAV terminal and a swirl air outlet; the return air terminal adopts a side-top return air outlet, or a combination of a side-top return air outlet and a floor return air outlet, or a floor return air outlet.

[0043] like Figure 17 As shown, the air supply terminal adopts a combination of an integrated VAV terminal and a swirl air outlet; the return air terminal adopts a side-mounted return air outlet. In this invention, after the air undergoes heat, humidity, and filtration treatment through the functional sections ① to ⑩ of the air handling unit (air handling unit and energy recovery device), the air in the inner zone 1) is sent to the air supply static pressure box through the air supply S1 branch port S(1-1), and then sent to the coupled zone air-conditioned room through the swirl air outlet S(1-2); 2) is sent to the coupled zone air-conditioned room through the air supply S2 branch via the air duct and the integrated VAV terminal S(3-1), and then returns to the air handling unit through the louvered return air outlet H(3-2) and the primary and secondary return air paths. In the outer zone, the air supply S2 branch is sent to the coupled zone air-conditioned room through the air duct and the replacement air outlets S(5-1) and S(5-2), and then returns to the air handling unit through the louvered return air outlet H(5-3) and the primary and secondary return air paths.

[0044] like Figure 18As shown, the air supply terminal adopts a combination of an integrated VAV terminal and a swirl air outlet; the return air terminal adopts a combination of a side-top return air outlet and a floor return air outlet. This invention uses the air handling unit (air handling unit and energy recovery device) ①~⑩ to process the air with heat, humidity and filtration. The air in the inner area is sent to the coupled zone air-conditioned room through the air duct and the integrated VAV terminal of S (3-1) via the air supply S2 branch; 2) the air is sent to the air supply static pressure box through the air supply S1 branch port S (1-1). The air in the return air static pressure box is mixed with the air sent to the air supply static pressure box by the near-end secondary return air electric valve H (2-4) according to the indoor set temperature and then sent to the coupled zone air-conditioned room through the swirl air outlet S (1-2); part of the return air static pressure box under the all-steel passage of the opening H (1-3) is connected to the return air duct through port H (3-4) and then the return air returns to the air handling unit through the primary and secondary return air passages to maintain the indoor set temperature and meet the human comfort and indoor equipment process requirements. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0045] like Figure 19As shown, the air supply terminal adopts a combination of an integrated VAV terminal and a swirl air outlet; the return air terminal adopts a floor return air outlet. This invention, through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, heats, humidifies, and filters the air. The inner zone is supplied by the air supply from branch S2 through ductwork and the integrated VAV terminal S(3-1) into the coupled zoned air-conditioned room. Each air outlet is an independent temperature control zone, with a built-in mode-conversion thermostat, heating / cooling thermostat, actuator, and regulating air valve. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating air valve is adjusted through the mode thermostat on the air outlet; 2) through the air supply S1 branch... After the air is supplied to the supply air plenum via port S (1-1), the air in the return air plenum is mixed with the air supplied to the supply air plenum via the near-end secondary return air electric valve H (2-4) according to the indoor set temperature, and then sent to the coupled zone air-conditioned room through the swirl vent S (1-2). Part of the air returns to the return air plenum via the all-steel passage under the raised floor through the opening H (1-3), and then returns to the air handling unit via port H (3-4), maintaining the indoor set temperature and meeting the comfort level and process requirements of the indoor equipment. The other part is mixed with the air supplied to the supply air plenum via the near-end secondary return air electric valve H (2-4) according to the indoor set temperature, and then sent into the room. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply branch S2. The air then returns to the air handling unit via the H(5-3) louver return air outlet and the primary and secondary return air passages.

[0046] In an optional embodiment of the present invention, the air supply terminal adopts a combination of an integrated VAV terminal and a ground-mounted fan-powered terminal device; the return air terminal adopts one of the following methods: side-mounted return air inlet; return air inlet of the ground-mounted fan-powered terminal device itself; floor return air inlet; a combination of side-mounted return air inlet and floor return air inlet; a combination of return air inlet of the ground-mounted fan-powered terminal device itself and floor return air inlet; a combination of return air inlet of the ground-mounted fan-powered terminal device itself and side-mounted return air inlet; a combination of return air inlet of the ground-mounted fan-powered terminal device itself, floor return air inlet and side-mounted return air inlet.

[0047] like Figure 20As shown, the air supply terminal adopts a combination of an integrated VAV terminal and a ground-mounted fan-powered terminal device; the return air terminal adopts a side-mounted return air outlet. This invention processes the air through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections for heat, humidity, and filtration. A portion of the air in the inner zone is supplied to the coupled zone air-conditioned room via the air supply S2 branch through the air duct and the integrated VAV terminal S(3-1). Each air outlet is an independent temperature control zone, with a built-in mode-conversion thermostat, heating / cooling thermostat, actuator, and regulating air valve. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating air valve is adjusted via the mode thermostat on the air outlet. A portion of the air is supplied to the air supply static pressure box through the air supply S1 branch port S(1-1), and then through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal (which can be slightly heated in winter). After being pressurized by the secondary fan, it is then supplied to the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. The return air returns to the air handling unit via the H (3-2) louvered return air inlet and through the primary and secondary return air passages. The outer zone portion is supplied to the coupled zone air-conditioned room via the air duct and the S (5-1) and S (5-2) replacement air inlets through the air supply S2 branch. After passing through the H (5-3) louvered return air inlet, it merges with the return air that has returned to the return air duct and then returns to the air handling unit through the primary and secondary return air passages.

[0048] like Figure 21As shown, the air supply terminal adopts a combination of an integrated VAV terminal and a ground-mounted fan-powered terminal device; the return air terminal adopts the return air inlet of the ground-mounted fan-powered terminal device itself. During the transition season, after the air is heated, humidified, and filtered by the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, part of the air in the inner area is sent to the coupled zone air-conditioned room through the air duct and the integrated VAV terminal of S (3-1) via the air supply S2 branch. Each air outlet is an independent temperature control area with a built-in mode conversion thermostat, cooling and heating thermostat, actuator and regulating air valve. The air volume can be adjusted according to the set temperature, and the opening degree of the regulating air valve can be adjusted by the mode thermostat on the air outlet. Part of the air supply is sent to the air supply static pressure box through the air supply S1 branch port S (1-1), and then mixed with the ground fan power type terminal near the secondary return air port H (2-3) after passing through the primary return air passage S (2-1) of the ground fan power type terminal (which can be slightly heated). After being pressurized by the secondary fan, it is sent to the coupled zone air-conditioned room through S (2-2) to maintain the set indoor temperature and meet the human comfort and indoor equipment process requirements. The air handling unit provides fresh air to the room. The air from the outer zone is supplied to the coupled zone air-conditioned room through the air duct and the S(5-1) and S(5-2) replacement air outlets via the air supply S2 branch. After passing through the H(5-3) louvered return air outlet, it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0049] like Figure 22As shown, the air supply terminal adopts a combination of an integrated VAV terminal and a ground-mounted fan-powered terminal device; the return air terminal adopts a floor return air inlet. This invention, after heat, humidity, and filtration treatment of the air by the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, sends part of the air in the inner zone to the coupled zoned air-conditioned room via the air supply S2 branch through air ducts and the S(3-1) integrated VAV terminal. Each air outlet is an independent temperature control zone, with a built-in mode conversion thermostat, heating / cooling thermostat, actuator, and regulating air valve. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating air valve is adjusted by the mode thermostat on the air outlet; part of the air supply is supplied by the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections. After the supplied air is delivered into the supply air plenum via the supply air branch port S(1-1), it mixes with the air that returns to the return air plenum via the pre-exposed H(1-3) all-steel access floor and is then delivered into the supply air plenum via the near-end secondary return air electric valve H(2-4). The mixture then passes through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal (with slight heating in winter), is pressurized by the secondary fan, and then delivered to the coupled zoned air-conditioned room via S(2-2) to maintain the set indoor temperature and meet the comfort requirements of the human body and the process requirements of the indoor equipment. Another portion of the return air, returning to the return air plenum via the pre-exposed H(1-3) all-steel access floor, returns to the return air duct via port H(3-4) and then returns to the air handling unit via the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0050] like Figure 23As shown, the air supply terminal adopts a combination of an integrated VAV terminal and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of a side-mounted return air inlet and a floor return air inlet. This invention processes the air through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections for heat, humidity, and filtration. A portion of the air in the inner zone is supplied to the coupled zoned air-conditioned room via the air supply S2 branch through ducts and the integrated VAV terminal S(3-1). Each air outlet is an independent temperature control zone, with a built-in mode-conversion thermostat, heating / cooling thermostat, actuator, and regulating damper. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating damper is adjusted via the mode thermostat on the air outlet. A portion is supplied to the [unclear - possibly a specific location or system] through the air supply S1 branch port S(1-1). After the supply air plenum, the air supplied by the near-end secondary return air electric valve H (2-4) in the return air plenum, according to the set indoor temperature, mixes with the air supplied by S (1-1) into the supply air plenum. The mixture then passes through the primary return air passage S (2-1) of the ground-mounted fan-powered terminal (which can be slightly heated in winter), is pressurized by the secondary fan, and then sent to the coupled zone air-conditioned room via S (2-2). Part of the return air returns to the return air plenum through the all-steel passageway H (1-3) with openings. A portion of this return air returns to the duct via port H (3-4), and then returns to the air handling unit via the primary and secondary return air passages. The outer zone air is supplied to the coupled zone air-conditioned room via the supply air branch S2 through ductwork and the replacement air outlets S (5-1) and S (5-2). It then merges with the return air that has already returned to the return air duct via the louvered return air outlet H (5-3), and returns to the air handling unit via the primary and secondary return air passages.

[0051] like Figure 24As shown, the air supply terminal adopts a combination of an integrated VAV terminal and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of a ground-mounted fan-powered terminal device return air inlet and a floor return air inlet. During the transition season, after the air is heated, humidified and filtered by the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, part of the air in the inner area is sent to the coupled zone air-conditioned room through the air duct and the S (3-1) integrated VAV terminal via the air supply S2 branch. Each air outlet is an independent temperature control zone, with a built-in mode conversion thermostat, cooling and heating thermostat, actuator and regulating air valve. The air volume can be adjusted according to the set temperature, and the opening degree of the regulating air valve can be adjusted by the mode thermostat on the air outlet; part of the air is supplied through the air supply S1 branch. After being supplied to the supply air plenum via port S (1-1), the air mixes with the air that returns to the supply air plenum via the pre-drilled H (1-3) all-steel access floor and is supplied by the near-end secondary return air electric valve H (2-4). Then, after passing through the primary return air passage S (2-1) of the ground-mounted fan-powered terminal, it mixes again with the near-end secondary return air port H (2-3) of the ground-mounted fan-powered terminal (with slight heating). After being pressurized by the secondary fan, it is then supplied to the coupled zoned air-conditioned room via S (2-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. Another portion of the return air, returning to the supply air plenum via the pre-drilled H (1-3) all-steel access floor, returns to the return air duct via port H (3-4) and then returns to the air handling unit via the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0052] like Figure 25As shown, the air supply terminal adopts a combination of an integrated VAV terminal and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of a ground-mounted fan-powered terminal device return air inlet and a side-mounted return air inlet. This invention uses the air handling unit (air handling unit and energy recovery device) ①~⑩ to process the air with heat, humidity and filtration. Part of the air in the inner area is sent to the coupled zone air-conditioned room through the air duct and the integrated VAV terminal of S (3-1) via the air supply S2 branch. Each air outlet is an independent temperature control area with a built-in mode conversion thermostat, heating and cooling thermostat, actuator and regulating air valve. The air volume can be adjusted according to the set temperature, and the opening degree of the regulating air valve can be adjusted by the mode thermostat on the air outlet. Part of the air is sent to the air supply static pressure box through the air supply S1 branch port S (1-1), and then mixed with the ground fan power type terminal near the secondary return air port H (2-3) after passing through the primary return air passage S (2-1) of the ground fan power type terminal (which can be slightly heated in winter). After being pressurized by the secondary fan, it is sent to the coupled zone air-conditioned room through S (2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. Return air from the H(3-2) louvered return air inlet returns to the return air duct and then returns to the air handling unit via the primary and secondary return air paths. In the outer zone, air is supplied to the coupled zone air-conditioned room via the S2 branch air supply line, through the air duct and the S(5-1) and S(5-2) replacement air supply outlets. After passing through the H(5-3) louvered return air inlet, the air merges with the return air that has already returned to the return air duct and then returns to the air handling unit via the primary and secondary return air paths.

[0053] like Figure 26As shown, the air supply terminal adopts a combination of an integrated VAV terminal and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air inlet of the ground-mounted fan-powered terminal device itself, the floor return air inlet, and the side return air inlet. In this invention, after the air is heated, humidified, and filtered through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, a portion of the air in the inner zone is supplied to the coupled zoned air-conditioned room via the air supply S2 branch through the air duct and the S(3-1) integrated VAV terminal. Each air outlet is an independent temperature control zone, with a built-in mode conversion thermostat, heating / cooling thermostat, actuator, and regulating air valve. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating air valve is adjusted through the mode thermostat on the air outlet; a portion is supplied through the air supply S1 branch port S... (1-1) After being sent into the supply air plenum, the air mixed with a portion of the air that returns to the supply air plenum through the H(1-3) all-steel passage raised floor with openings, and then through the near-end secondary return air electric valve H(2-4), mixes with the air that is sent into the supply air plenum through the near-end secondary return air inlet H(2-3) of the ground-type fan-powered terminal (with slight heating in winter). After being pressurized by the secondary fan, it is then sent into the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. Another portion of the return air that returns to the supply air plenum through the H(1-3) all-steel passage raised floor with openings, returns to the return air duct through port H(3-4) and the louvered return air inlet H(3-2), and then returns to the air handling unit through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0054] In an optional embodiment of the present invention, the air supply terminal adopts a combination of a ground-mounted fan-powered terminal device and a swirl air outlet; the return air terminal adopts one of the following methods: a side-mounted return air outlet; a combination of a side-mounted return air outlet and a floor return air outlet; a combination of the return air outlet of the ground-mounted fan-powered terminal device itself, a floor return air outlet, and a side-mounted return air outlet; a floor return air outlet; a combination of the return air outlet of the ground-mounted fan-powered terminal device itself and a side-mounted return air outlet; a return air outlet of the ground-mounted fan-powered terminal device itself; a combination of the return air outlet of the ground-mounted fan-powered terminal device itself and a floor return air outlet.

[0055] like Figure 27As shown, the air supply terminal adopts a combination of a ground-mounted fan-powered terminal device and a swirl nozzle; the return air terminal adopts a side-mounted return air inlet. In this invention, after the air undergoes heat, humidity, and filtration treatment through the functional sections ① to ⑩ of the air handling unit (air handling unit and energy recovery device), part of the supply air to the inner zone is sent to the air supply static pressure box through the supply air branch port S(1-1). Part of it passes through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal (with slight heating in winter), is pressurized by the secondary fan, and then sent to the coupled zone air-conditioned room through S(2-2). A portion enters the coupled zone air-conditioned room through the swirl nozzle S(1-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. The return air returns to the return air duct through the H(3-2) louvered return air inlet, and then returns to the air handling unit through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0056] like Figure 28 As shown, the air supply terminal adopts a combination of a ground-mounted fan-powered terminal device and a swirl air outlet; the return air terminal adopts a combination of a side-mounted return air outlet and a floor return air outlet. In this invention, after the air is heated, humidified, and filtered through the functional sections ① to ⑩ of the air handling unit (air handling unit and energy recovery device), a portion of the supply air in the inner area is sent into the supply air static pressure box through the supply air branch port S(1-1). It then mixes with a portion of the air that returns through the perforated H(1-3) all-steel passageway to the return air static pressure box via the near-end secondary return air electric valve H(2-4). This mixture then enters the coupled zone air-conditioned room through the S(1-2) swirl air outlet. The other portion passes through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal (which can be slightly heated in winter), is pressurized by the secondary fan, and then sent into the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. Another portion of the return air, passing through the perforated H(1-3) all-steel access floor, returns to the return air plenum. This return air then merges with the H(3-2) louvered return air outlet at port H(3-4) in the return air duct, and then returns to the air handling unit via the primary and secondary return air pathways. The outer zone air is supplied to the coupled zone air-conditioned rooms via the supply air branch S2 through air ducts and the S(5-1) and S(5-2) replacement supply air outlets. This air then merges with the return air already returned to the return air duct at the H(5-3) louvered return air outlet, and then returns to the air handling unit via the primary and secondary return air pathways.

[0057] like Figure 29As shown, the air supply terminal adopts a combination of a ground-mounted fan-powered terminal device and a swirl air outlet; the return air terminal adopts a combination of the return air outlet of the ground-mounted fan-powered terminal device itself, the floor return air outlet, and the side upper return air outlet. This invention uses the air handling unit (air handling unit and energy recovery device) ①~⑩ to heat and humidify and filter the air. Part of the supply air in the inner area is sent into the supply air static pressure box through the supply air branch port S (1-1). After mixing with part of the air that returns to the return air static pressure box through the open H (1-3) all-steel passage movable floor and is sent into the supply air static pressure box by the near-end secondary return air electric valve H (2-4), the air enters the coupled zone air-conditioned room through the S (1-2) swirl air outlet. The other part passes through the primary return air passage S (2-1) of the ground fan power type terminal and mixes with the near-end secondary return air outlet H (2-3) of the ground fan power type terminal (which can be slightly heated in winter). After being pressurized by the secondary fan, it is sent into the coupled zone air-conditioned room through S (2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. The return air, passing through the perforated H(1-3) all-steel access floor, returns to another portion of the return air within the return air plenum. This return air then merges with the H(3-2) louvered return air inlet via port H(3-4) in the return air duct, and then returns to the air handling unit via the primary and secondary return air pathways. In the outer zone, the air is supplied to the coupled zone air-conditioned rooms via the two branch air supply lines through ducts and the S(5-1) and S(5-2) replacement air outlets. This air then merges with the return air already returned to the return air duct via the H(5-3) louvered return air inlet, and then returns to the air handling unit via the primary and secondary return air pathways.

[0058] like Figure 30As shown, the air supply terminal adopts a combination of a ground-mounted fan-powered terminal device and a swirl nozzle; the return air terminal adopts a floor return air inlet. In this invention, after the air is heated, humidified, and filtered through the functional sections ① to ⑩ of the air handling unit (air handling unit and energy recovery device), a portion of the supply air from the inner area is sent into the supply air plenum via the supply air branch port S(1-1). It then returns to the return air plenum via a portion of the all-steel access floor through the perforated H(1-3) all-steel access floor. After mixing with the air supplied to the supply air plenum by the near-end secondary return air electric valve H(2-4), the mixture enters the coupled zone air-conditioned room through the swirl nozzle S(1-2). The other portion passes through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal, is pressurized by the secondary fan, and then sent to the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. Another portion of the return air, passing through the perforated H(1-3) all-steel access floor, returns to the return air plenum. After returning to the return air duct via port H(3-4), it then returns to the air handling unit via the primary and secondary return air pathways. The outer zone air is supplied to the coupled zone air-conditioned room via the supply air branch S2 through air ducts and the S(5-1) and S(5-2) replacement air outlets. After merging with the return air already returned to the return air duct via the H(5-3) louvered return air outlet, it returns to the air handling unit via the primary and secondary return air pathways.

[0059] like Figure 31 As shown, the air supply terminal adopts a combination of a ground-mounted fan-powered terminal device and a swirl air outlet; the return air terminal adopts a combination of the return air outlet of the ground-mounted fan-powered terminal device itself and a side-mounted return air outlet. After the air is heated, humidified, and filtered by the functional sections ① to ⑩ of the air handling unit (air handling unit and energy recovery device), part of the air in the inner area is sent into the air supply static pressure box through the branch port S (1-1) of the air supply S1. After passing through the primary return air passage S (2-1) of the ground-mounted fan-powered terminal, it mixes with the secondary return air outlet H (2-3) near the ground-mounted fan-powered terminal (with slight heating in winter). After being pressurized by the secondary fan, it is sent into the coupled zone air-conditioned room through S (2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. The louvered return air outlet H (3-2) returns to the air handling unit through the return air duct and the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0060] like Figure 32As shown, the air supply terminal uses a combination of a ground-mounted fan-powered terminal device and a swirl nozzle; the return air terminal uses the return air inlet of the ground-mounted fan-powered terminal device itself. During the transition season, after the air is heated, humidified, and filtered by the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, the air supply to the inner zone is sent into the air supply static pressure box through the air supply S1 branch port S(1-1). Part of it enters the coupled zone air-conditioned room through the swirl nozzle S(1-2), and the other part passes through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal and mixes with the secondary return air inlet H(2-3) near the ground-mounted fan-powered terminal (which can be slightly heated). After being pressurized by the secondary fan, it is then sent into the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. The AHU only supplies fresh air to the S1 branch. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0061] like Figure 33 As shown, the air supply terminal adopts a combination of a ground-mounted fan-powered terminal device and a swirl air outlet; the return air terminal adopts a combination of the return air outlet of the ground-mounted fan-powered terminal device itself and a floor return air outlet. This invention uses the air handling unit (air handling unit and energy recovery device) ①~⑩ to heat and humidify and filter the air. After the air in the inner area is sent into the air supply static pressure box through the air supply S1 branch port S (1-1), it is mixed with the air that is sent into the air supply static pressure box through the open H (1-3) all-steel passage raised floor and then through the return air static pressure box by the near-end secondary return air electric valve H (2-4). Part of the mixture enters the coupled zone air-conditioned room through the S (1-2) swirl air outlet. The other part passes through the primary return air passage S (2-1) of the ground fan powered terminal and mixes with the near-end secondary return air outlet H (2-3) of the ground fan powered terminal (which can be slightly heated in winter). After being pressurized by the secondary fan, it is sent into the coupled zone air-conditioned room through S (2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. The return air, passing through the H(1-3) all-steel access floor with openings, returns to another portion of the return air within the return air plenum. After returning to the return air duct via port H(3-4), it then returns to the air handling unit via the primary and secondary return air pathways. In the outer zone, the air supplied by the S2 branch air duct, along with the replacement air outlets S(5-1) and S(5-2), is delivered to the coupled zone air-conditioned room. This air merges with the return air that has already returned to the return air duct via the H(5-3) louvered return air outlet, and then returns to the air handling unit via the primary and secondary return air pathways.

[0062] In an optional embodiment of the present invention, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a floor return air outlet or a side-mounted return air outlet.

[0063] like Figure 34 As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a floor return air outlet. This invention, after the air is treated by heat, humidity, and filtration through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, part of the supply air in the inner area is delivered to the coupled zone air-conditioned room through the supply air branch S2 branch duct and the integrated VAV terminal S(3-1). Each air outlet is an independent temperature control zone, with a built-in mode conversion thermostat, heating / cooling thermostat, actuator, and regulating air valve. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating air valve is adjusted through the mode thermostat on the air outlet; part of the supply air is delivered through the supply air branch S1 port S(1 -1) After being fed into the supply air plenum, the air returns to the return air plenum through the H(1-3) all-steel passage raised floor with openings. It mixes with the air supplied to the supply air plenum via the near-end secondary return air electric valve H(2-4). Part of this mixture enters the coupled zone air-conditioned room through the S(1-2) swirl outlet. The other part passes through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal (which can be slightly heated in winter), is pressurized by the secondary fan, and then sent to the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. The other part of the return air, returning through the H(1-3) all-steel passage raised floor with openings, returns to the return air plenum through port H(3-4) and then to the air handling unit via the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0064] like Figure 35As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a side-mounted return air outlet. This invention uses the air handling unit (air handling unit and energy recovery device) ①~⑩ to process the air with heat, humidity and filtration. Part of the air supply to the inner area is delivered to the coupled zone air-conditioned room through the air supply S2 branch, air duct and S(3-1) integrated VAV terminal. Each air outlet is an independent temperature control area with built-in mode conversion thermostat, heating and cooling thermostat, actuator and regulating air valve. The air volume can be adjusted according to the set temperature. The opening degree of the regulating air valve is adjusted by the mode thermostat on the air outlet. Part of the air supply is delivered to the air supply static pressure box through the air supply S1 branch port S(1-1), and then enters the coupled zone air-conditioned room through the S(1-2) swirl air outlet. Another part of this branch is delivered to the coupled zone air-conditioned room through the primary return air passage S(2-1) of the ground fan power type terminal (which can be slightly heated in winter), pressurized by the secondary fan and delivered to the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. After returning to the return air duct through the H(3-2) louvered return air inlet, the return air returns to the air handling unit via the primary and secondary return air paths. The outer zone air supply is delivered to the coupled zone air-conditioned room via the S2 branch air supply line through the air duct and the S(5-1) and S(5-2) replacement air supply outlets. After merging with the return air that has already returned to the return air duct through the H(5-3) louvered return air inlet, it returns to the air handling unit via the primary and secondary return air paths.

[0065] In an optional embodiment of the present invention, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl vent, and a ground-mounted fan-powered terminal device; the return air terminal adopts one of the following methods: the return air vent of the ground-mounted fan-powered terminal device itself, and the air handling unit mainly or only supplements fresh air; a combination of a side-mounted return air vent and a floor return air vent; a combination of the return air vent of the ground-mounted fan-powered terminal device itself and a side-mounted return air vent; a combination of the return air vent of the ground-mounted fan-powered terminal device itself and a floor return air vent.

[0066] like Figure 36As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl vent, and a ground-mounted fan-powered terminal device; the return air terminal adopts the return air vent of the ground-mounted fan-powered terminal device itself; and only fresh air is supplied. This invention, through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, heats, humidifies, and filters the air. Part of the supply air in the inner zone is delivered to the coupled zoned air-conditioned room via the supply air branch S2 through branch ducts and the S(3-1) integrated VAV terminal. Each vent is an independent temperature control zone, with a built-in mode-conversion thermostat, heating / cooling thermostat, actuator, and regulating damper. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating damper is adjusted via the mode thermostat on the vent. The air supplied through the air supply branch port S(1-1) into the air supply static pressure box, part of which enters the coupled zone air-conditioned room through the swirl air outlet S(1-2), and the other part, after passing through the primary return air passage S(2-1) of the ground fan powered terminal, mixes with the secondary return air outlet H(2-3) near the ground fan powered terminal (with slight heating in winter), is pressurized by the secondary fan, and then sent into the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. The AHU only supplies fresh air to the inner zone. The outer zone air is supplied through the air supply branch S2 through the air duct and the replacement air outlets S(5-1) and S(5-2) into the coupled zone air-conditioned room, and after passing through the louvered return air outlet H(5-3), it merges with the return air that has returned to the return air duct, and then returns to the air handling unit through the primary and secondary return air passages.

[0067] like Figure 37As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl nozzle, and a ground-mounted fan-powered terminal device; the return air terminal adopts the return air inlet of the ground-mounted fan-powered terminal device itself; and the S1 loop of the AHU only supplies air and does not return air, the fan of the ground-mounted fan-powered terminal device does not start, and part of it is self-circulating. In this invention, after the air is treated by heat, humidity and filtration through the functional sections ① to ⑩ of the air handling device (air handling unit and energy recovery device), the air in the inner area is sent to the coupled zone air-conditioned room through the air duct and the integrated VAV terminal of S (3-1) via the 1) supply air S2 branch; 2) after being sent to the supply air static pressure box through the port S (1-1) of the supply air S1 branch, it is sent to the coupled zone air-conditioned room through the swirl nozzle of S (1-2); 3) after being sent to the coupled zone air-conditioned room through the port S (1-1) of the supply air S1 branch. After entering the supply air static pressure box, the air mixes with the secondary return air from the near end H (2-3) of the ground-mounted fan-powered terminal via the primary return air passage S (2-1) and is then delivered to the coupled zone air-conditioned room via S (2-2). At this time, the ground-mounted fan-powered terminal is not activated, and all air is returned via the secondary return air from the near end H (2-3). For the inner zone, the air handling unit only processes fresh air to maintain the set indoor temperature and meet the comfort level and process requirements of the indoor equipment. For the outer zone, the air is delivered to the coupled zone air-conditioned room via the supply air branch S2 through the air duct and the replacement air outlets S (5-1) and S (5-2), and returns to the air handling unit via the louvered return air outlet H (5-3) and the primary and secondary return air passages.

[0068] like Figure 38As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of a side-mounted return air outlet and a floor return air outlet. In this invention, after the air is treated by heat, humidity, and filtration through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, part of the air supply to the inner zone area is delivered to the coupled zoned air-conditioned room through the air supply S2 branch, branch duct, and S(3-1) integrated VAV terminal. Each air outlet is an independent temperature control zone, with a built-in mode conversion thermostat, heating / cooling thermostat, actuator, and regulating air valve. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating air valve is adjusted through the mode thermostat on the air outlet; part of the airflow passes through the air supply S1 branch port. After the air supplied by S (1-1) enters the supply air plenum, it mixes with the air that returns to the return air plenum through the perforated H (1-3) all-steel access floor and is supplied by the near-end secondary return air electric valve H (2-4). Part of this mixture enters the coupled zone air-conditioned room through the swirl vent of S (1-2), while the other part passes through the primary return air passage S (2-1) of the ground-mounted fan-powered terminal (which can be slightly heated in winter), is pressurized by the secondary fan, and then sent to the coupled zone air-conditioned room by S (2-2) to maintain the set indoor temperature and meet the comfort requirements of the human body and the process requirements of the indoor equipment. The other part of the return air that returns to the return air plenum through the perforated H (1-3) all-steel access floor merges with the return air that returns to the return air duct through the louvered return air vent of H (3-2) through the port H (3-4), and then returns to the air handling unit through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0069] like Figure 39As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl nozzle, and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air inlet of the ground-mounted fan-powered terminal device itself and the side upper return air inlet; and the fan of the ground-mounted fan-powered terminal device is not started. After the air is heated, humidified, and filtered by the air handling device (air handling unit and energy recovery device) ①~⑩ functional sections, the air in the inner area is sent to the coupled zone air-conditioned room through the air duct and the integrated VAV terminal of S (3-1) via the 1) air supply S2 branch; 2) after being sent to the air supply static pressure box through the air supply S1 branch port S (1-1), it is sent to the coupled zone air-conditioned room through the swirl nozzle of S (1-2); 3) after being sent to the air supply static pressure box through the air supply S1 branch port S (1-1), it is sent to the coupled zone air-conditioned room through the S (1-2) swirl nozzle; The primary return air from the ground-mounted fan-powered terminal is mixed with the secondary return air from the near end H (2-3) of the ground-mounted fan-powered terminal and then sent to the coupled zone air-conditioned room through S (2-2). At this time, the ground-mounted fan-powered terminal is not activated. Part of the return air is returned through the secondary return air from the near end H (2-3) of the ground-mounted fan-powered terminal, and part of the return air is returned to the air handling unit through the louvered return air outlet H (3-2) via the primary and secondary return air paths, maintaining the set indoor temperature and meeting the comfort level of the human body and the process requirements of the indoor equipment. The outer zone air is sent to the coupled zone air-conditioned room through the air duct and the replacement air outlets S (5-1) and S (5-2) via the branch air supply S2, and then returned to the air handling unit through the louvered return air outlet H (5-3) via the primary and secondary return air paths.

[0070] like Figure 40As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air outlet of the ground-mounted fan-powered terminal device itself and a side-mounted return air outlet. In this invention, after the air undergoes heat, humidity, and filtration treatment by the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, a portion of the air supply to the inner zone area is delivered to the coupled zoned air-conditioned room through the air supply S2 branch, branch duct, and S(3-1) integrated VAV terminal. Each air outlet is an independent temperature control zone, with a built-in mode conversion thermostat, heating / cooling thermostat, actuator, and regulating damper. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating damper is adjusted by the mode thermostat on the air outlet. The supplied air, after being delivered to the air supply static pressure box through the air supply branch port S(1-1), partially enters the coupled zone air-conditioned room through the swirl air outlet S(1-2). The remaining portion passes through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal, mixes with the secondary return air outlet H(2-3) near the ground-mounted fan-powered terminal (with slight heating in winter), is pressurized by the secondary fan, and then delivered to the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. After returning to the return air duct through the louvered return air outlet H(3-2), it returns to the air handling unit through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0071] like Figure 41As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air outlet of the ground-mounted fan-powered terminal device itself and the floor return air outlet; and the fan of the ground-mounted fan-powered terminal device is not started. After the air is heated, humidified, and filtered by the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, the air in the inner area is supplied to the coupled zone air-conditioned room by the air supply S2 branch through the air duct and the integrated VAV terminal of S (3-1). Each air outlet is an independent temperature control area, with a built-in mode conversion thermostat, cooling and heating thermostat, actuator and regulating air valve. The air volume can be adjusted according to the set temperature, and the opening degree of the regulating air valve can be adjusted by the mode thermostat on the air outlet; 2) After being supplied to the air supply static pressure box through the air supply S1 branch port S (1-1), the near-end secondary return air electric valve H (2-4) in the return air static pressure box supplies air according to the indoor set temperature and S (1-1). After the air in the plenum chamber is mixed, it is sent to the coupled zone air-conditioned room through the S(1-2) swirl vent; 3) The near-end secondary return air electric valve H(2-4) in the return air plenum chamber mixes with the air sent to the supply air plenum chamber through S(1-1) according to the indoor set temperature, and then mixes with the secondary return air through the primary return air passage S(2-1) of the ground fan powered terminal and the near-end secondary return air H(2-3) of the ground fan powered terminal, and then sends it to the coupled zone air-conditioned room through S(2-2); at this time, the ground fan powered terminal is not started, and part of it returns to the return air plenum chamber through the all-steel passage movable floor with the opening H(1-3), part of which returns to the air duct through port H(3-4), and then returns to the air handling unit through the primary and secondary return air passages. The other part is mixed with the air sent to the supply air plenum chamber through S(1-1) according to the indoor set temperature through the near-end secondary return air electric valve H(2-4), and then sent to the room. Maintain the set indoor temperature to meet human comfort and the process requirements of indoor equipment. The air supply from the outer zone is delivered to the coupled zone air-conditioned room through the air duct and the replacement air outlets S(5-1) and S(5-2) via the S2 branch air supply line. After passing through the H(5-3) louvered return air outlet, it merges with the return air that has returned to the return air duct and then returns to the air handling unit through the primary and secondary return air passages.

[0072] like Figure 42As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air outlet of the ground-mounted fan-powered terminal device itself and the floor return air outlet. This invention, through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, heats, humidifies, and filters the air. Part of the inner zone area 1) is supplied to the coupled zoned air-conditioned room via the air supply S2 branch through branch air ducts and the integrated VAV terminal S (3-1). Each air outlet is an independent temperature control area, with a built-in mode conversion thermostat, heating / cooling thermostat, actuator, and regulating air valve. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating air valve is adjusted through the mode thermostat on the air outlet; 2) the air supply is supplied to the air supply static area through the air supply S1 branch port S (1-1). After being compressed, the air returns to the return air plenum via the H(1-3) all-steel access floor with openings. This air is then mixed with the air supplied to the supply air plenum via the near-end secondary return air electric valve H(2-4). Part of this mixture enters the coupled zone air-conditioned room through the S(1-2) swirl outlet. The other part passes through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal (which can be slightly heated in winter), is pressurized by the secondary fan, and then mixes with the near-end secondary return air outlet H(2-3) of the ground-mounted fan-powered terminal before being supplied to the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature and meet the comfort requirements of the human body and the process requirements of the indoor equipment. The other part of the return air, returning to the return air plenum via the H(1-3) all-steel access floor with openings, returns to the return air duct through port H(3-4) and then returns to the air handling unit via the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0073] like Figure 43As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air outlet of the ground-mounted fan-powered terminal device itself and the floor return air outlet; and there is no secondary return air in the return air floor. This invention, through the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, heats, humidifies, and filters the air. The inner area is then supplied to the coupled zone air-conditioned room via the air supply S2 branch through branch air ducts and the S(3-1) integrated VAV terminal. Each air outlet is an independent temperature control zone, with a built-in mode conversion thermostat, heating / cooling thermostat, actuator, and regulating air valve. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating air valve is adjusted through the mode thermostat on the air outlet; The supplied air is delivered into the air plenum via the supply air branch port S(1-1). Part of it enters the coupled zone air-conditioned room through the swirl outlet S(1-2), while the other part passes through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal, mixes with the secondary return air outlet H(2-3) near the ground-mounted fan-powered terminal (with slight heating in winter), is pressurized by the secondary fan, and then delivered into the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature and meet the comfort requirements of the human body and the process requirements of the indoor equipment. The return air that returns to the return air plenum through the perforated H(1-3) all-steel passage raised floor, returns to the return air duct through port H(3-4), and then returns to the air handling unit through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0074] In an optional embodiment of the present invention, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air outlet of the ground-mounted fan-powered terminal device itself, a floor return air outlet, and a side-mounted upper return air outlet.

[0075] like Figure 44As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the ground-mounted fan-powered terminal device's own return air outlet, floor return air outlet, and side upper return air outlet; and the fan of the ground-mounted fan-powered terminal device is not started. This invention uses the air handling unit (air handling unit and energy recovery device) ①~⑩ to process the air with heat, humidity and filtration. The air in the inner zone is supplied to the coupled zone air-conditioned room by the following: 1) the supply air branch S2 through the air duct and the integrated VAV terminal S (3-1); 2) the air is supplied to the supply air static pressure box through the supply air branch port S (1-1), and then the near-end secondary return air electric valve H (2-4) in the return air static pressure box mixes the air supplied to the supply air static pressure box by S (1-1) according to the indoor set temperature, and then supplies the air to the coupled zone air-conditioned room through the swirl nozzle S (1-2); 3) the near-end secondary return air electric valve H (2-4) in the return air static pressure box mixes the air supplied to the supply air static pressure box by S (1-1) according to the indoor set temperature, and then supplies the air to the coupled zone air-conditioned room through the swirl nozzle S (1-2); After the air supplied to the static pressure box by the temperature and S (1-1) is mixed, the air is then mixed with the secondary return air near the H (2-3) of the ground fan-powered terminal and then sent to the coupled zone air-conditioned room through the primary return air passage S (2-1) and then through S (2-2). At this time, the ground fan-powered terminal is not started. Part of the return air static pressure box under the raised floor through the opening H (1-3) passes through port H (3-4) and merges with the return air returning to the return air duct through the louvered return air outlet. Then, it returns to the air handling unit through the primary and secondary return air passages to maintain the set indoor temperature and meet the comfort of the human body and the process requirements of the indoor equipment. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0076] like Figure 45As shown, the air supply terminal adopts a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal adopts a combination of the return air outlet of the ground-mounted fan-powered terminal device itself, a floor return air outlet, and a side-mounted return air outlet. In this invention, after the air is treated by heat, humidity, and filtration in the air handling unit (air handling unit and energy recovery device) ①~⑩ functional sections, part of the supply air in the inner zone is delivered to the coupled zone air-conditioned room through the supply air branch S2 branch, branch duct, and integrated VAV terminal S (3-1). Each air outlet is an independent temperature control zone, with a built-in mode conversion thermostat, heating / cooling thermostat, actuator, and regulating air valve. The airflow can be adjusted according to the set temperature, and the opening degree of the regulating air valve is adjusted by the mode thermostat on the air outlet. The supply air is delivered to the supply air static pressure box through the supply air branch S1 branch port S (1-1). Afterwards, the air returns to the return air plenum through the H(1-3) all-steel passage raised floor with openings. It mixes with the air supplied to the supply air plenum by the near-end secondary return air electric valve H(2-4). Part of this mixes with the air entering the coupled zone air-conditioned room through the S(1-2) swirl outlet. The other part passes through the primary return air passage S(2-1) of the ground-mounted fan-powered terminal, mixes with the near-end secondary return air outlet H(2-3) of the ground-mounted fan-powered terminal (with slight heating in winter), is pressurized by the secondary fan, and then sent to the coupled zone air-conditioned room through S(2-2) to maintain the set indoor temperature, meeting the comfort requirements of the human body and the process requirements of the indoor equipment. Another portion of the return air returning to the return air plenum through the H(1-3) all-steel passage raised floor with openings merges with the return air returning to the return air duct through the H(3-2) louvered return air outlet, and then returns to the air handling unit through the primary and secondary return air passages. The air supply from the outer zone is delivered to the coupled zone air-conditioned room via the air duct and the replacement air outlets S(5-1) and S(5-2) through the air supply S2 branch. After passing through the return air outlet H(5-3), it merges with the return air that has returned to the return air duct and returns to the air handling unit through the primary and secondary return air passages.

[0077] This invention is described with reference to flowchart illustrations and / or block diagrams of methods, apparatus (systems), and computer program products according to embodiments of the invention. It will be understood that each block of the flowchart illustrations and / or block diagrams, and combinations of blocks in the flowchart illustrations and / or block diagrams, can be implemented by computer program instructions. These computer program instructions can be provided to a processor of a general-purpose computer, special-purpose computer, embedded processor, or other programmable data processing apparatus to produce a machine, such that the instructions, which execute via the processor of the computer or other programmable data processing apparatus, generate instructions for implementing the flowchart illustrations and / or block diagrams. Figure 1 One or more processes and / or boxes Figure 1 A device that provides the functions specified in one or more boxes.

[0078] These computer program instructions may also be stored in a computer-readable storage medium that can direct a computer or other programmable data processing device to function in a particular manner, such that the instructions stored in the computer-readable storage medium produce an article of manufacture including instruction means, which are implemented in a process Figure 1 One or more processes and / or boxes Figure 1 The function specified in one or more boxes.

[0079] These computer program instructions may also be loaded onto a computer or other programmable data processing equipment to cause a series of operational steps to be performed on the computer or other programmable equipment to produce a computer-implemented process, thereby providing instructions that execute on the computer or other programmable equipment for implementing the process. Figure 1 One or more processes and / or boxes Figure 1 The steps of the function specified in one or more boxes.

[0080] Specific embodiments have been used to illustrate the principles and implementation methods of this invention. The descriptions of the embodiments above are only for the purpose of helping to understand the method and core ideas of this invention. At the same time, for those skilled in the art, there will be changes in the specific implementation methods and application scope based on the ideas of this invention. Therefore, the content of this specification should not be construed as a limitation of this invention.

[0081] Those skilled in the art will recognize that the embodiments described herein are intended to help the reader understand the principles of the invention, and should be understood that the scope of protection of the invention is not limited to such specific statements and embodiments. Those skilled in the art can make various other specific modifications and combinations based on the technical teachings disclosed in this invention without departing from the spirit of the invention, and these modifications and combinations are still within the scope of protection of this invention.

Claims

1. A coupled zoned air conditioning control method, characterized in that, Includes the following steps: The controller is used to select the coupled operation mode of the coupled zone air conditioning system; The air is treated with heat and humidity using an air handling unit; By adjusting the opening and closing degree of the air valve and water valve, the coupling and performance of the air conditioning loops in different coupling zones can be realized and adjusted. Based on the coupling mode of the coupled zone air conditioning system selected by the controller and the heat and humidity treatment of the air by the air handling unit, the working state is adjusted by the power unit to change the airflow organization, flow speed and temperature and humidity in the indoor air loop composed of the supply air terminal and the return air terminal, so as to achieve multi-condition operation.

2. The coupled zone air conditioning control method according to claim 1, characterized in that, The air supply terminal adopts an integrated VAV terminal, which is installed at the top of the room to supply air; the return air terminal adopts a side-top return air inlet, or a combination of a side-top return air inlet and a floor return air inlet, or a floor return air inlet.

3. The coupled zone air conditioning control method according to claim 1, characterized in that, The air supply terminal uses a swirl air outlet; the return air terminal uses a side-top return air outlet, or a combination of a side-top return air outlet and a floor return air outlet, or a floor return air outlet.

4. The coupled zone air conditioning control method according to claim 1, characterized in that, The supply air terminal uses a ground-mounted fan-powered terminal device; the return air terminal uses one of the following methods: Side upper return air vent; The return air inlet of the ground-mounted fan-powered terminal unit itself; Floor return air vents, and the secondary return air in the floor return air plenum can be selectively activated; The combination of the side upper return air vent and the floor return air vent allows for the selective use of the floor return air vent for all or part of the near-end secondary return air. The combination of the return air inlet of the ground-mounted fan-powered terminal unit and the floor return air inlet; The combination of the return air inlet and the upper side return air inlet of the ground-mounted fan-powered terminal unit; The combination of the ground-mounted fan-powered terminal unit's own return air inlet, floor return air inlet, and side upper return air inlet.

5. The coupled zone air conditioning control method according to claim 1, characterized in that, The air supply terminal adopts a combination of an integrated VAV terminal and a swirl air outlet; the return air terminal adopts a combination of a side-top return air outlet, a side-top return air outlet and a floor return air outlet, or a floor return air outlet.

6. The coupled zone air conditioning control method according to claim 1, characterized in that, The supply air terminal uses a combination of an integrated VAV terminal and a ground-mounted fan-powered terminal unit; the return air terminal uses one of the following methods: Side upper return air vent; The return air inlet of the ground-mounted fan-powered terminal unit itself; Floor return air vent; A combination of a side-mounted return air vent and a floor return air vent; The combination of the return air inlet of the ground-mounted fan-powered terminal unit and the floor return air inlet; The combination of the return air inlet and the upper side return air inlet of the ground-mounted fan-powered terminal unit; The combination of the ground-mounted fan-powered terminal unit's own return air inlet, floor return air inlet, and side upper return air inlet.

7. The coupled zone air conditioning control method according to claim 1, characterized in that, The air supply terminal uses a combination of a ground-mounted fan-powered terminal device and a swirl diffuser; the return air terminal uses one of the following methods: Side upper return air vent; A combination of a side-mounted return air vent and a floor return air vent; The combination of the ground-mounted fan-powered terminal unit's own return air inlet, floor return air inlet, and side upper return air inlet; Floor return air vent; The combination of the return air inlet and the upper side return air inlet of the ground-mounted fan-powered terminal unit; The return air inlet of the ground-mounted fan-powered terminal unit itself; The combination of the return air inlet of the ground-mounted fan-powered terminal unit and the floor return air inlet.

8. The coupled zone air conditioning control method according to claim 1, characterized in that, The air supply terminal uses a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal uses a floor return air outlet or a side-mounted return air outlet.

9. The coupled zone air conditioning control method according to claim 1, characterized in that, The supply air terminal uses a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal uses one of the following methods: The ground-mounted fan-powered terminal unit has its own return air inlet, and the air handling unit mainly or only supplies fresh air; A combination of a side-mounted return air vent and a floor return air vent; The combination of the return air inlet of the ground-mounted fan-powered terminal device and the side upper return air inlet, and the return air inlet of the ground-mounted fan-powered terminal device includes the fan start-up and the fan non-start-up functions; The combination of the return air inlet of the ground-mounted fan-powered terminal unit and the floor return air inlet, and the return air inlet of the ground-mounted fan-powered terminal unit includes starting the fan or not starting the fan, and the floor return air inlet can be selectively used for all near-end secondary return air or part of near-end secondary return air.

10. The coupled zone air conditioning control method according to claim 1, characterized in that, The air supply terminal uses a combination of an integrated VAV terminal, a swirl air outlet, and a ground-mounted fan-powered terminal device; the return air terminal uses a combination of the ground-mounted fan-powered terminal device's own return air outlet, floor return air outlet, and side upper return air outlet.

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