Square matrix group closed source tower heat pump photovoltaic heat storage energy station

Abstract

The invention discloses a matrix group closed source tower heat pump photovoltaic heat storage energy station, which is suitable for regions above-20 DEG C on the earth, replaces a traditional coal-fired and gas-fired boiler central heating system, realizes energy conservation of a dual-carbon target high-quality development equipment system, and solves the problem of emission reduction of the central heating system. A single-stage heat pump of the ultra-low environment temperature operation energy storage system outputs 68 DEG C hot water for more than seven days; the environment temperature above zero DEG C closed source tower heat-taking single-stage heat pump outputs hot water of 60-68 DEG C; the frosting probability is reduced by 98% through multi-tower parallel small-temperature-difference heat extraction of the wet and cold haze water vapor environment temperature square array group in the zero-degree range; outputting hot water at 68 DEG C by a two-stage heat pump of a closed source tower of an environment temperature square array group of-15 DEG C or above; the matrix group closed-source tower heat source single-stage heat pump outputs 30-DEG C medium-temperature heat energy for heat storage at the environment temperature higher than zero DEG C; water vapor of the closed-source tower is condensed to take heat and directly discharge condensed water in haze weather above zero DEG C; in summer high-temperature weather, the matrix group closed source tower directly supplements heat to the energy storage area system; the closed photovoltaic photo-thermal noise elimination screen operates in a full-year energy storage and noise elimination mode.

Description

Technical Field

[0001] This invention relates to a "square array closed-source tower heat pump photovoltaic thermal energy storage station", which is involved in current carbon reduction measures and new energy energy conservation technology. Technical Background

[0002] As people's living standards continue to improve, the global demand for heating in winter and cooling in summer is constantly increasing. The application of new energy sources for centralized heating in winter is seeking a large-scale, high-quality technology that covers an area of ​​up to 40 million square kilometers, including subtropical, temperate, and Mediterranean climates with abundant low-temperature water vapor resources. Winter temperatures range from -5 to 10°C. The atmosphere contains abundant solar energy radiation that provides energy to the Earth's surface, including atmospheric circulation formed by ocean evaporation and land transpiration. The rich water vapor resources are implicit in the atmospheric environment. Replacing traditional centralized heating with new energy technologies in suitable climate areas has become a revolution. Summary of the Invention

[0003] The objective of this invention is a closed-source tower heat pump photovoltaic thermal storage energy station. Utilizing this technology, high-quality new energy equipment can output high-temperature hot water in single-stage or two-stage configurations with energy storage, depending on different weather conditions. Specifically, it involves transforming existing coal-fired and gas-fired heating stations into new energy construction and renovation projects, possessing global market potential. The system operation can fully utilize the unique water vapor resources of low-temperature, high-humidity climate zones, low-humidity air sources, solar photovoltaic thermal sources, and phase change energy storage—a hybrid source that serves as a wide-ranging low-temperature heat source for centralized energy enhancement systems. This transforms high-energy-consuming centralized fossil fuel heating into a centralized, efficient, and long-lasting new energy system, enabling heating companies to profit from user-paid operating costs even without government subsidies. To achieve the above objectives, the technical solution of this invention is: the closed-source tower heat pump photovoltaic thermal storage energy station includes a reinforced concrete array structure (A0), a single / double-stage heat pump photovoltaic thermal storage system (BO), and a multi-functional grid-connected intelligent control system for smog removal (WO).

[0004] The array-type reinforced concrete building structure superimposed facility A0 includes an array-type energy storage and release module, a heat pump room building module, a low-wind-speed grid column support truss module, an array-type closed-source tower truss module, a photovoltaic and solar thermal noise reduction screen truss module, and a mesh-distributed wind-blocking return plate module. The array-type energy storage and release module is distributed below the heat pump room building module. When the heat pump room building module is built elsewhere, the array-type energy storage and release module is laid below the low-wind-speed grid column support truss module. The array-type closed-source tower truss module is installed between the low-wind-speed grid column support truss module and the mesh-distributed wind-blocking return plate module. The photovoltaic and solar thermal noise reduction screen truss module is installed on top of the low-wind-speed grid column support truss module. The photovoltaic and solar thermal noise reduction screen is installed at a position parallel to the top of the array-type closed-source tower fan.

[0005] The single / double-stage heat pump photovoltaic thermal storage system BO includes a closed-source array tower, a large temperature difference fluctuation energy storage array with inclined plate tube photovoltaic thermal silencing screen, a primary cooling circulation device, a secondary cooling circulation device, an energy storage and defrosting circulation device, a multi-module system pressure regulating device, a primary four-process energy storage heat pump, and a secondary four-process dual-pressure heat pump. The closed-source array tower's coolant inlet main pipe B1a is connected to the outlet of the multi-tower parallel coolant inlet controller and the inlet of the module group defrosting liquid inlet controller via a parallel pipeline. The closed-source array tower's source liquid outlet main pipe B1b is connected to the inlet of the multi-tower parallel air source liquid outlet controller and the inlet of the module group defrosting liquid return controller via a parallel pipeline. The inlet of the multi-tower parallel coolant inlet controller is connected to the multi-module parallel coolant main pipeline YA via a pipeline. The source liquid outlet controller outlet is connected to the multi-module parallel air source main pipeline via a pipeline; the multi-module parallel cooling main pipeline YA is connected to the outlet of the secondary-to-primary cold flow outlet controller via a pipeline; the module group hot melt defrosting liquid inlet controller inlet is connected to the outlet of the energy storage and release defrosting circulation device via a pipeline through the hot melt parallel main pipe RM1-4; the energy storage and release defrosting circulation device inlet is connected to the outlet main pipe B3b of the large temperature difference fluctuation energy storage array group system via a pipeline through the outlet node of the multi-module parallel energy storage output pipeline U2; the large temperature difference fluctuation energy storage array group inlet main pipe B3a is connected to the inlet node of the multi-module parallel energy storage input pipeline U1 via a pipeline; the inclined plate tube photovoltaic thermal silencing screen coolant inlet main pipe B2a is connected to the energy storage and release defrosting circulation device outlet via a parallel pipeline through the photovoltaic thermal tube circulation energy storage controller. The inclined plate tube photovoltaic thermal silencing screen's hot liquid outlet main pipe B2b is connected to the inlet node of the multi-module parallel energy storage input pipe U1 via a parallel pipeline; the primary cooling cycle device's suction inlet is connected to the multi-module parallel air source main pipeline and the secondary-to-primary air source inlet controller inlet via pipelines; the primary cooling cycle device's pressure outlet is connected to the primary four-process energy storage heat pump evaporator 8F inlet F1 via pipelines; the primary four-process energy storage heat pump evaporator 8F outlet F2 is connected to the multi-module parallel cooling main pipeline YA and the secondary-to-primary cooling flow outlet controller inlet via pipelines; the primary four-process energy storage heat pump condenser 8E inlet E1 is connected to the secondary cooling cycle device's pressure outlet and the secondary heat pump single-stage source inlet controller inlet via pipelines; the primary four-process energy storage heat pump condenser... The outlet E2 of condenser 8E is connected via pipelines to the inlet of the primary heat pump energy storage inlet controller and the inlet of the secondary heat pump dual-source inlet controller, respectively; the outlet of the primary heat pump energy storage inlet controller is connected via pipelines to the outlet of the single-group defrosting liquid return controller, the outlet of the secondary heat pump cold liquid outlet controller, and the inlet node of the parallel energy storage input pipeline U1, respectively; the outlet of the multi-parallel air source liquid outlet controller is connected via pipelines to the multi-module parallel air source main pipeline; the inlet of the secondary cooling cycle device is connected via pipelines to the outlet of the energy storage heat source liquid outlet controller, the outlet of the secondary-to-primary air source inlet controller, and the outlet of the secondary heat pump intermediate circulation controller, respectively; the inlet Z1 of the secondary four-flow dual-pressure heat pump evaporator 9Z is connected via pipelines to the outlet of the secondary heat pump single-source inlet controller and the outlet of the secondary heat pump dual-source inlet controller, respectively.The outlet Z2 of the two-stage four-process dual-pressure heat pump evaporator 9Z is connected via pipelines to the inlet of the two-stage heat pump cold liquid outlet controller, the inlet of the two-stage to one-stage cold flow outlet controller, and the inlet of the two-stage heat pump intermediate circulation controller, respectively. The two-stage four-process dual-pressure heat pump dual-pressure condenser 9H is equipped with two sets of condensers, namely the high-zone heating outlet Ha / return water inlet Hb and the low-zone heating outlet Hc / return water inlet Hd. The constant pressure outlet P1 of the multi-module system constant pressure device is connected via pipelines to the group control constant pressure parallel main pipe PM1-4. The liquid adjustment return port P2 of the multi-module system constant pressure device is connected via pipelines to the multi-module parallel cooling main pipe YA. The group control constant pressure parallel main pipe PM1-4 is connected via pipelines and check valves to the suction inlet of the first-stage cooling circulation device and the suction inlet of the second-stage cooling circulation device, respectively.

[0006] The aforementioned multi-functional conversion and smog removal intelligent control system (WO) includes a square array closed heat source tower, an inclined plate tube photovoltaic thermal silencing screen, a large temperature difference fluctuation energy storage array, a primary cooling circulation device, a secondary cooling circulation device, an energy storage and defrosting circulation device, a multi-module system pressure regulating device, a primary four-process energy storage heat pump, and a secondary four-process dual-pressure heat pump multi-functional conversion valve intelligent control system. The system includes: a multi-tower parallel cooling liquid inlet controller, a multi-tower parallel air source liquid outlet controller, a single-group defrosting liquid inlet controller, a photovoltaic thermal tube circulation energy storage controller, a single-group defrosting liquid return controller, an energy storage heat source liquid outlet controller, a secondary-to-primary air source inlet controller, a secondary-to-primary cold flow outlet controller, a secondary heat pump intermediate circulation controller, a primary heat pump energy storage inlet controller, a secondary heat pump cold liquid outlet controller, a secondary heat pump single-stage source inlet controller, and a secondary heat pump dual-stage source inlet controller.

[0007] This plan offers nine key innovative benefits:

[0008] 1. In ultra-low ambient temperature environments, a single-stage heat pump using energy storage heat source can output 68℃ hot water for several days or more.

[0009] 2. Zero-degree air source ambient temperature array group closed-source tower heat extraction single-stage heat pump outputs 68℃ hot water.

[0010] 3. In cold, damp weather at zero degrees Celsius, the parallel connection of multiple tower arrays with small temperature difference reduces the chance of frost formation by 98%.

[0011] 4. The closed-source tower of the array group with an ambient temperature of -15 degrees Celsius extracts heat and the first and second stage heat pumps output 68℃ hot water.

[0012] 5. The closed-source tower heat source of the array group with an ambient temperature above zero degrees Celsius outputs 30℃ thermal energy through a primary heat pump.

[0013] 6. In smoggy weather above zero degrees Celsius, the condensate is directly discharged from the latent heat of steam condensation in a closed-source tower.

[0014] 7. During hot summer weather, the closed-source towers of the array directly circulate heat to the energy storage area system for heat storage.

[0015] 8. The closed photovoltaic and solar thermal noise reduction system reduces the noise of the wind turbine during year-round energy storage operation.

[0016] 9. The same heat pump unit can achieve adjustable output temperature and flow rate for heating in high and low zones. Detailed Implementation

[0017] Figure description: See Figure 1.

[0018] Figure 1 Photovoltaic thermal storage air source thermal storage energy release single-stage heat pump system diagram

[0019] Figure 2 Diagram of a single-stage heat pump system with multiple towers in parallel for heat extraction at zero-degree ambient temperature

[0020] Figure 3 Diagram of an independent defrosting system for low-temperature, high-humidity ambient temperature thermal energy storage and release.

[0021] Figure 4 Diagram of a two-stage heat pump output heating system with an ambient temperature of -15 degrees Celsius

[0022] Figure 5 Array-type closed-tower photovoltaic thermal energy storage closed-tower truss facade

[0023] Figure 6 Array group closed tower photovoltaic thermal energy storage closed tower truss plan

[0024] Figure 7 Photovoltaic thermal energy storage noise-absorbing shielding tower top surface arrangement

[0025] Figure 8 Array-type closed-tower photovoltaic thermal energy storage infrastructure module facade

[0026] Note: The long diamond-shaped arrow in the diagram indicates the direction of fluid flow.

[0027] The array-type closed-source tower heat pump photovoltaic thermal storage energy station includes an array-type steel-concrete building structure superimposed facility A0, a cooling single- or double-stage heat pump photovoltaic thermal storage system BO, and a grid-chain multi-functional conversion and smog removal intelligent control system WO.

[0028] The array-type reinforced concrete building structure superimposed facility A0 includes an array-type energy storage and release module (A1), a heat pump room building module (A2), a low-wind-speed grid column support truss module (A3), an array-type closed-source tower truss module (A4), a photovoltaic and solar thermal sound-absorbing screen truss module (A5), and a mesh-distributed wind-blocking and return plate module (A6); the array-type energy storage and release module (A1) is distributed below the heat pump room building module (A2); when the heat pump room building module (A2) When built elsewhere, the array energy storage and release module (A1) is laid below the low wind speed grid column support truss module (A3); the array closed-source tower truss module (A4) is installed between the low wind speed grid column support truss module (A3) and the mesh-distributed wind-blocking return plate module (A6); the photovoltaic and solar thermal noise reduction screen truss module (A5) is installed on top of the low wind speed grid column support truss module (A3); and the photovoltaic and solar thermal noise reduction screen (B2) is installed at the parallel position of the wind turbine of the array closed-source tower (B1).

[0029] The single / double-stage heat pump photovoltaic thermal storage system BO includes a closed-source array tower (B1), a large temperature difference fluctuation energy storage array (B3) with a slanted plate tube photovoltaic thermal anechoic screen (B2), a primary cooling circulation device (B4), a secondary cooling circulation device (B5), an energy storage and defrosting circulation device (B6), a multi-module system pressure regulating device (B7), a primary four-process energy storage heat pump (B8), and a secondary four-process dual-pressure heat pump (B9). The coolant inlet manifold B1a of the closed-source array tower (B1) is connected to the outlet of the multi-tower parallel coolant inlet controller (WA) and the inlet of the module group defrosting liquid inlet controller (WR) via a parallel pipeline. The source liquid outlet manifold B1b of the closed-source array tower (B1) is connected to the multi-tower parallel coolant inlet controller (WA) and the module group defrosting liquid inlet controller (WR) via a parallel pipeline. The inlet of the air-source liquid outlet controller (WB) is connected to the inlet of the module group hot melt defrosting liquid return controller (WL); the inlet of the multi-tower parallel cooling liquid inlet controller (WA) is connected to the multi-module parallel cooling main pipeline YA via a pipeline; the outlet of the multi-tower parallel air-source liquid outlet controller (WB) is connected to the multi-module parallel air-source main pipeline (YB) via a pipeline; the multi-module parallel cooling main pipeline YA is connected to the outlet of the secondary-to-primary cold flow outlet controller (WV) via a pipeline; the inlet of the module group hot melt defrosting liquid inlet controller (WR) is connected to the outlet of the energy storage and release defrosting circulation device (B6) via a pipeline through the hot melt parallel main pipe RM1-4; the inlet of the energy storage and release defrosting circulation device (B6) is connected to the outlet node of the multi-module parallel energy storage output pipeline U2 via a pipeline and the large temperature difference wave The outlet manifold B3b of the dynamic energy storage array system (B3) is connected; the inlet manifold B3a of the large temperature difference fluctuation energy storage array (B3) is connected to the inlet node of the multi-module parallel energy storage input pipeline U1 via a pipeline; the cold liquid inlet manifold B2a of the inclined plate tube photovoltaic thermal silencing screen (B2) is connected to the outlet of the energy storage and defrosting circulation device (B6) via a parallel pipeline through the photovoltaic thermal tube circulation energy storage controller (WT); the hydrothermal outlet manifold B2b of the inclined plate tube photovoltaic thermal silencing screen (B2) is connected to the inlet node of the multi-module parallel energy storage input pipeline U1 via a parallel pipeline; the suction inlet of the primary cooling circulation device (B4) is connected to the inlet of the multi-module parallel air source main pipeline (YB) and the secondary-to-primary air source inlet controller (WZ) via pipelines respectively. The outlet of the primary cooling cycle unit (B4) is connected to the inlet F1 of the evaporator 8F of the primary four-stage energy storage heat pump (B8) via a pipeline; the outlet F2 of the evaporator 8F of the primary four-stage energy storage heat pump (B8) is connected to the multi-module parallel cooling main pipeline YA and the outlet of the secondary variable primary cooling flow controller (WV) via pipelines; the inlet E1 of the condenser 8E of the primary four-stage energy storage heat pump (B8) is connected to the outlet of the secondary cooling cycle unit (B5) and the inlet of the secondary heat pump single-stage source inlet controller (WX) via pipelines; the outlet E2 of the condenser 8E of the primary four-stage energy storage heat pump (B8) is connected to the inlet of the primary heat pump energy storage inlet controller (WU) and the inlet of the secondary heat pump dual-stage source inlet controller (WG) via pipelines.The outlet of the primary heat pump energy storage inlet controller (WU) is connected via pipelines to the outlet of the single-unit defrost return liquid controller (WL), the outlet of the secondary heat pump cold liquid outlet controller (WY), and the inlet node of the parallel energy storage input pipeline U1; the outlet of the multi-parallel air source liquid outlet controller (WB) is connected via pipelines to the multi-module parallel air source main pipeline (YB); the inlet of the secondary cooling cycle unit (B5) is connected via pipelines to the outlet of the energy storage heat source liquid outlet controller (WQ), the outlet of the secondary-to-primary air source inlet controller (WZ), and the outlet of the secondary heat pump intermediate circulation controller (WO); the inlet Z1 of the evaporator 9Z of the secondary four-process dual-pressure heat pump (B9) is connected via pipelines to the outlet of the secondary heat pump single-stage source inlet controller (WX) and the outlet of the secondary heat pump dual-stage source inlet controller (WG); the evaporator of the secondary four-process dual-pressure heat pump (B9) evaporator... The outlet Z2 of the generator 9Z is connected via pipelines to the inlet of the secondary heat pump cold liquid outlet controller (WY), the inlet of the secondary-to-primary cold flow outlet controller (WV), and the inlet of the secondary heat pump intermediate circulation controller (WO); the secondary four-flow dual-pressure heat pump (B9) dual-pressure condenser 9H is equipped with two sets of condensers, namely the high-zone heating outlet Ha / return water inlet Hb and the low-zone heating outlet Hc / return water inlet Hd; the constant pressure outlet P1 of the multi-module system constant pressure device (B7) is connected via pipelines to the group control constant pressure parallel main pipe PM1-4; the liquid return port P2 of the multi-module system constant pressure device (B7) is connected via pipelines to the multi-module parallel cooling main pipe YA; the group control constant pressure parallel main pipe PM1-4 is connected via pipelines and check valves to the suction inlet of the primary cooling circulation device (B4) and the suction inlet of the secondary cooling circulation device (B5);

[0030] The network-chain multi-functional conversion and smog removal intelligent control system (WO) includes a square array closed heat source tower (B1), an inclined plate tube photovoltaic thermal silencing screen (B2), a large temperature difference fluctuation energy storage array (B3), a primary cooling cycle device (B4), a secondary cooling cycle device (B5), an energy storage and release defrosting cycle device (B6), a multi-module system pressure regulating device (B7), a primary four-process energy storage heat pump (B8), a secondary four-process dual-pressure heat pump (B9), and a multi-functional conversion valve intelligent control system (WO) including: a multi-tower parallel cooling liquid inlet controller (WA), and a multi-tower... Parallel air-source liquid outlet controller (WB), single-group defrosting liquid inlet controller (WR), solar thermal tube circulation energy storage controller (WT), single-group defrosting liquid return controller (WL), energy storage heat source liquid outlet controller (WQ), two-stage to one-stage air-source inlet controller (WZ), two-stage to one-stage cold flow outlet controller (WV), two-stage heat pump intermediate circulation controller (WO), one-stage heat pump energy storage inlet and outlet controller (WU), two-stage heat pump cold liquid outlet and outlet controller (WY), two-stage heat pump single-stage source inlet controller (WX), two-stage heat pump dual-stage source inlet controller (WG).

[0031] The above description is merely an embodiment of the present invention, demonstrating the implementation of multi-energy applications and multi-functionality through the coordinated combination of high-quality equipment and components. Commonly known technical solutions and / or characteristics are not described in detail here. It should be noted that those skilled in the art can make various modifications and improvements without departing from the technical solution of the present invention, and these should also be considered within the scope of protection of the present invention. These modifications will not affect the effectiveness of the present invention or the practicality of the patent. The scope of protection claimed in this application should be determined by the content of its claims, and the specific embodiments described in the specification can be used to interpret the content of the claims.

Claims

1. This invention discloses a "square array closed-source tower heat pump photovoltaic thermal storage energy station", characterized in that... It includes the array-type steel-concrete building structure superimposed facility A0, the cooling single and double-stage heat pump photovoltaic thermal storage system BO, and the grid-chain multi-functional conversion and smog removal intelligent control system WO.

2. The array-type reinforced concrete building structure superimposed facility A0 according to claim 1, characterized in that... The system includes an array-type energy storage and release module, a building module supporting the heat pump room, a low-wind-speed grid column support truss module, an array-type closed-source tower truss module, a photovoltaic and solar thermal noise-absorbing screen truss module, and a mesh-distributed wind-blocking and return plate module. The array-type energy storage and release module is distributed below the building module supporting the heat pump room. When the building module supporting the heat pump room is located elsewhere, the array-type energy storage and release module is laid below the low-wind-speed grid column support truss module. The array-type closed-source tower truss module is installed between the low-wind-speed grid column support truss module and the mesh-distributed wind-blocking and return plate module. The photovoltaic and solar thermal noise-absorbing screen truss module is installed on top of the low-wind-speed grid column support truss module. The photovoltaic and solar thermal noise-absorbing screen is installed at a position parallel to the top of the array-type closed-source tower fan.

3. The BO-type single / double-stage heat pump photovoltaic thermal storage system with cooling capacity according to claim 1, characterized in that... The system includes a closed-source array tower, a large-temperature-difference-fluctuation energy storage array with inclined plate tube photovoltaic thermal silencing screen, a primary cooling cycle device, a secondary cooling cycle device, an energy storage and defrosting cycle device, a multi-module system constant pressure device, a primary four-process energy storage heat pump, and a secondary four-process dual-pressure heat pump. The closed-source array tower's coolant inlet main pipe B1a is connected to the outlet of the multi-tower parallel coolant inlet controller and the inlet of the module group defrosting liquid inlet controller via a parallel pipeline. The closed-source array tower's source liquid outlet main pipe B1b is connected to the inlet of the multi-tower parallel air-source liquid outlet controller and the inlet of the module group defrosting liquid return controller via a parallel pipeline. The inlet of the multi-tower parallel coolant inlet controller is connected to the multi-module parallel coolant main pipeline YA via a pipeline. The outlet of the multi-tower parallel air-source liquid outlet controller is connected to the multi-module parallel main cooling pipeline YA via a pipeline. The module parallel air source main pipeline is connected; the multi-module parallel cooling main pipeline YA is connected to the outlet of the secondary to primary cold flow controller via a pipeline; the module group hot melt defrosting liquid inlet controller inlet is connected to the outlet of the energy storage and release defrosting circulation device via a pipeline through the hot melt parallel main pipe RM1-4; the inlet of the energy storage and release defrosting circulation device is connected to the outlet main pipe B3b of the large temperature difference fluctuation energy storage array group system via a pipeline through the outlet node of the multi-module parallel energy storage output pipeline U2; the large temperature difference fluctuation energy storage array group inlet main pipe B3a is connected to the inlet node of the multi-module parallel energy storage input pipeline U1 via a pipeline; the inclined plate tube photovoltaic solar thermal silencing screen coolant inlet main pipe B2a is connected to the outlet of the energy storage and release defrosting circulation device via a parallel pipeline through the solar thermal tube circulation energy storage controller; the inclined plate tube photovoltaic The main outlet pipe B2b of the solar thermal silencing screen is connected to the inlet node of the multi-module parallel energy storage input pipe U1 via a parallel pipeline; the suction inlet of the first-stage cooling cycle unit is connected to the main parallel air source pipeline of the multi-module and the inlet of the second-stage to first-stage air source controller via pipelines; the pressure outlet of the first-stage cooling cycle unit is connected to the inlet F1 of the first-stage four-process energy storage heat pump evaporator 8F via a pipeline; the outlet F2 of the first-stage four-process energy storage heat pump evaporator 8F is connected to the main parallel cooling pipeline YA of the multi-module and the outlet of the second-stage to first-stage cooling flow controller via pipelines; the inlet E1 of the first-stage four-process energy storage heat pump condenser 8E is connected to the pressure outlet of the second-stage cooling cycle unit and the inlet of the second-stage heat pump single-stage source controller via pipelines. Port E2 is connected via pipelines to the inlet of the primary heat pump energy storage inlet controller and the inlet of the secondary heat pump dual-source inlet controller, respectively; the outlet of the primary heat pump energy storage inlet controller is connected via pipelines to the outlet of the single-group defrosting liquid return controller, the outlet of the secondary heat pump cold liquid outlet controller, and the inlet node of the parallel energy storage input pipeline U1, respectively; the outlet of the multi-parallel air source liquid outlet controller is connected via pipelines to the multi-module parallel air source main pipeline; the inlet of the secondary cooling cycle device is connected via pipelines to the outlet of the energy storage heat source liquid outlet controller, the outlet of the secondary-to-primary air source inlet controller, and the outlet of the secondary heat pump intermediate circulation controller, respectively; the inlet Z1 of the secondary four-process dual-pressure heat pump evaporator 9Z is connected via pipelines to the outlet of the secondary heat pump single-source inlet controller and the outlet of the secondary heat pump dual-source inlet controller, respectively.The outlet Z2 of the two-stage four-process dual-pressure heat pump evaporator 9Z is connected via pipelines to the inlet of the two-stage heat pump cold liquid outlet controller, the inlet of the two-stage to one-stage cold flow outlet controller, and the inlet of the two-stage heat pump intermediate circulation controller, respectively. The two-stage four-process dual-pressure heat pump dual-pressure condenser 9H is equipped with two sets of condensers: a high-zone heating outlet Ha / return water inlet Hb and a low-zone heating outlet Hc / return water inlet Hd. The constant pressure outlet P1 of the multi-module system constant pressure device is connected via pipelines to the group control constant pressure parallel main pipe PM1-4. The liquid return port P2 of the multi-module system constant pressure device is connected via pipelines to the multi-module parallel cooling main pipe YA. The group control constant pressure parallel main pipe PM1-4 is connected via pipelines and check valves to the suction inlets of the first-stage cooling circulation device and the second-stage cooling circulation device, respectively.

4. The multi-functional conversion and smog removal intelligent control system WO according to claim 1, characterized in that... The system includes a closed-loop heat source tower array, a slanted plate tube photovoltaic thermal noise reduction screen, a large temperature difference fluctuation energy storage array, a primary cooling circulation device, a secondary cooling circulation device, an energy storage and defrosting circulation device, a multi-module system pressure regulating device, a primary four-process energy storage heat pump, and a secondary four-process dual-pressure heat pump multi-functional switching valve intelligent control system. This system includes: a multi-tower parallel cooling liquid inlet controller, a multi-tower parallel air-source liquid outlet controller, a single-group defrosting liquid inlet controller, a photovoltaic thermal tube circulation energy storage controller, a single-group defrosting liquid return controller, an energy storage heat source liquid outlet controller, a secondary-to-primary air-source inlet controller, a secondary-to-primary cold flow outlet controller, a secondary heat pump intermediate circulation controller, a primary heat pump energy storage inlet controller, a secondary heat pump cold liquid outlet controller, a secondary heat pump single-stage source inlet controller, and a secondary heat pump dual-stage source inlet controller.

Images