Frost rain sliding plate photovoltaic heat energy storage heat pump
By utilizing the frozen rain slab photovoltaic thermal energy storage heat pump system, which combines frozen rain water vapor resources and solar energy with a louvered condenser and a simple energy enhancement device, the high energy consumption and frosting problems of traditional heating systems in low temperature and high humidity environments are solved. This achieves efficient and low-cost heating and cooling, reducing operating costs and the probability of frosting.
Patent Information
- Application Number
- CN202410632126.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-05-21
- Publication Date
- 2025-11-21
AI Technical Summary
Traditional heating systems consume a lot of energy and frost frequently in low-temperature and high-humidity environments, making it difficult to achieve efficient heating and cooling. In addition, centralized heating is costly and has significant losses in intermediate links, failing to meet user needs.
The freezing rain sliding plate photovoltaic thermal energy storage heat pump system utilizes freezing rain water vapor resources, low humidity air source and solar photovoltaic heat source, combined with four-in-one source louvered condenser, simple energy enhancement device and cold and heat storage release system to achieve efficient direct heating and cooling, and reduce energy consumption in intermediate links.
Without subsidies, users can reduce operating costs by 30-50%. The system achieves efficient and low-cost heating and cooling in suitable climates, significantly reduces the chance of frost formation, and improves equipment lifespan and efficiency.
Smart Images

Figure CN120991372A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to a "freezing rain sliding plate photovoltaic thermal energy storage heat pump", which is related to current international carbon reduction measures and China's new energy and energy-saving technology fields. Technical Background As living standards continue to improve, the global demand for heating in winter and cooling in summer is constantly increasing. Taking winter heating as an example, current heating mainly relies on fossil fuels for centralized residential heating. When occupancy rates reach over 80%, the operating cost of natural gas-fired heating is equivalent to more than 70 RMB per square meter, with nearly 30% of energy consumption occurring in intermediate stages. Moreover, the proportion of energy lost in intermediate stages is even higher when occupancy rates are low in new housing developments, making centralized heating even more difficult to achieve. This results in people not being able to enjoy a high quality of life, and new housing developments experiencing sluggish sales. Traditional air-source heat pumps, despite being over a century old, still suffer from high energy consumption and even inoperability due to frosting in low-temperature, high-humidity environments, making low-cost, high-quality heating a significant technical challenge. This technology is applied to over 60% of China's land area. This region boasts subtropical, temperate, and Mediterranean climates, and its land area is more than 60% the size of China's, comparable to that of the United States and Europe. Winter temperatures range from -5 to 10°C. The atmosphere contains abundant solar energy, providing energy to the Earth's surface, and rich in atmospheric water vapor generated by ocean evaporation. However, this resource has not been effectively utilized. A revolution in replacing traditional centralized heating in this climatically suitable region could lead to a sustainable future. Summary of the Invention
[0002] This invention, a frozen rain source plate photovoltaic thermal energy storage heat pump, aims to utilize a four-in-one source louvered condenser to occupy the space of a traditional air conditioner outdoor unit's protective railing, while a simplified energy boosting device occupies the same space. The system fully leverages the unique frozen rain 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 the low-temperature heat source for the simplified energy boosting device and provides ultra-quiet release of waste heat from the air conditioner. It simplifies centralized heating, which involves high energy consumption and maintenance costs, into efficient, long-lasting direct heating and cooling, eliminating intermediate energy losses. Even without subsidized heating, users can reduce operating costs by 30-50%. In climate-suitable areas, it enables a more energy-efficient integrated heating and cooling solution. To achieve the above objectives, the technical solution of this invention is: a residential frozen rain source plate simplified cold and heat energy storage system comprising a four-in-one source louvered condenser, a simplified energy boosting device, and a cold and heat storage and release system.
[0003] The four-source louver steam condenser includes a window double-side tube plate, a condensate collection tank, an upper fixed bubble sealing plate, a counter-wind isolation plate, a frozen rain source sliding tube plate, a cold liquid inlet header, a source liquid outlet header, a pressure equalization and sound reduction air box, an air and energy variable flow fan, an ice melting combined micro-vibration, a photovoltaic and photo-thermal card plate, and the window double-side tube plate is fixed on the outside of two sides of a building balcony or the like, the condensate collection tank is installed on the inside bottom of the window double-side tube plate, the upper fixed bubble sealing plate is installed on the inside upper portion of the window double-side tube plate, the counter-wind isolation plate is installed on the inside middle portion of the window double-side tube plate, the frozen rain source sliding tube plate is installed on the inside evenly inclined angle distribution of the window double-side tube plate, the cold liquid inlet header is welded with the middle tube head of the frozen rain source sliding tube plate to form a header group and adopt a series connection and same flow pipeline, the source liquid outlet header is welded with the middle tube head of the frozen rain source sliding tube plate to form a header group and adopt a series connection and same flow pipeline, the air outlet of the pressure equalization and sound reduction air box is installed on the upper portion of the window double-side tube plate, the air inlet of the pressure equalization and sound reduction air box is connected with the air outlet of the air and energy variable flow fan, the ice melting combined micro-vibration is installed on the two sides of the window double-side tube plate, the photovoltaic and photo-thermal card plate female groove is clamped on the male groove of the frozen rain source sliding tube plate, and the two ends of the card plate are fixed on the inside of the window double-side tube plate by using self-tapping screws. The simple energy improving device includes a closed constant pressure liquid tank, a source measurement circulating liquid pump, a load side circulating liquid pump, an input cold and hot valve group, an output cold and hot valve group, and a simple refrigerating machine, the closed constant pressure liquid tank is installed on a balcony air conditioner position floor surface at a height of 2.2 meters or above, a closed constant pressure liquid tank liquid outlet OPa is connected with the source measurement circulating liquid pump and the load side circulating liquid pump through a pipeline respectively at a meeting point M01 and M02, a closed constant pressure liquid tank filling port OPb is connected with the meeting point M03 through a pipeline, a valve group OPc, a source measurement circulating liquid pump suction inlet end is connected with a three-source louver plate source liquid outlet header through a pipeline via the meeting point M01, a source measurement circulating liquid pump pressure outlet end is connected with an electrically operated reversing valve group guide inlet 3a and guide inlet 3d through a pipeline respectively, an electrically operated reversing valve group outlet 3c is connected with a simple refrigerating machine source liquid inlet L1 through a pipeline, an electrically operated reversing valve group outlet 3b is connected with a simple refrigerating machine hot liquid return port R1 through a pipeline, an electrically operated reversing valve group intermediate liquid inlet 3x is connected with a load side circulating liquid pump pressure outlet end through a pipeline, an output cold and hot valve group liquid inlet 4a is connected with a simple refrigerating machine cold liquid outlet L2 through a pipeline, an output cold and hot valve group guide outlet 4b and guide outlet 4c are connected with a load input point M04 through a pipeline respectively, an output cold and hot valve group (H04) inlet 4d is connected with a simple refrigerating machine hot liquid outlet R2 through a pipeline, an output cold and hot valve group intermediate outlet 4x is connected with a three-source louver plate cold liquid inlet header through a pipeline via the meeting point M03, and a heat storage direct use valve H03f is connected between the source measurement circulating liquid pump pressure outlet end and the load input point M04. The cold and heat storage release system comprises a rapid cooling hot air disc machine, a phase ball disc tube floor heating device, and a latent heat module.
[0004] Beneficial effect 1 of the scheme Mixed energy absorption, for example, the freeze rain heat source, the low-temperature cold carrier is built-in and enters the four-source louver evaporator freeze rain source sliding plate pipe circulation, the temperature of the plate body is lowered to form a temperature difference with the environment air, the cold air is naturally downward circulation to absorb the latent heat and sensible heat of the freeze rain ice energy, the low-humidity air energy and solar radiation heat source and photovoltaic output stored electricity in sunny weather, the temperature of the cold carrier is increased to enter the simple refrigeration machine to release low-temperature energy to the heat exchanger LZ, the enthalpy of the cold carrier is decreased to become a low-temperature cold carrier, and the low-temperature cold carrier is re-entered into the three-source louver surface cooler to complete the periodic heat absorption cycle.
[0005] Beneficial effect 2 of the scheme The probability of icing is reduced, for example, the freeze rain heat source, the ice melting cold and heat functions are realized by the low-cost, low-failure rate and stable performance cold carrier input and output cold and heat valve groups, the three-source louver surface cooler freeze rain source sliding plate pipe has a wide space and high heat transfer area configuration (25 times the heat transfer area of the traditional air source heat pump in the frosting condition), can bear more than 20 times the volume of ice shell latent heat, the ice plate adopts a nano hydrophobic coating inclined plate distribution, and under the action of heat melting and microseismic, the ice layer is quickly removed to reduce the heat melting energy loss speed, the freeze rain and low-temperature and high-humidity climate conditions melt the frost ratio by 98% of the traditional air source heat pump, and the weather turns warm and absorbs solar radiation heat to realize energy-saving process operation.
[0006] Beneficial effect 3 of the scheme Simple energy storage is improved, in winter, the simple energy improvement device only has four traditional components, including an evaporator LZ, a condenser RG, a flash expansion valve group FS, and a refrigeration compressor HR, the system has the characteristics of small refrigeration working medium circulation resistance, high refrigeration energy efficiency ratio and high heating performance, the building heating capacity is reduced in the noon period with sunlight, after the simple energy improvement meets the heating demand, the medium-temperature heat source from the three-source louver surface cooler solar radiation heat is improved to high-temperature heat source by the simple energy improvement device, and the medium-temperature heat source enters the latent heat module phase change energy storage, the outdoor low temperature at midnight can stop the operation of the simple energy improvement device, and the latent heat module releases heat energy to independently heat.
[0007] In summer, the ambient air temperature is relatively low in the late night period, and the cooling energy efficiency ratio is relatively high. The simple energy lifting device is started to enter the latent heat module to release cold energy. The simple energy lifting device is stopped in the next day's noon period, and the latent heat module releases cold energy independently. At the same time, the photovoltaic output is also in a high-efficiency period, and the variable-flow fan can be started to cool the solar single-crystal silicon cell to generate electricity, and the generated electricity can be stored in the battery or inverted to be connected to the grid. BRIEF DESCRIPTION OF DRAWINGS
[0009] Figure 1 Heat supply process: it is a structural process principle schematic diagram of the "frozen rain skateboard photovoltaic heat energy storage heat pump" of the application. Figure 2 Refrigeration process. DETAILED DESCRIPTION
[0010] Reference Figure 1 , Figure 2 .
[0011] Description: the long rhombus triangular arrow in the figure represents the medium fluid flow direction.
[0012] The frozen rain skateboard photovoltaic heat energy storage heat pump comprises a four-source louver evaporator C00, a simple energy lifting device H00 and a cold and heat storage release system R00. The four-source louver evaporator C00 includes a window double-side tube plate (C01), a condensate collection tank (C02), an upper fixed bubble sealing plate (C03), a crosswind isolation plate (C04), a frozen rain source sliding tube plate (C05), a cold liquid inlet header (C06), a source liquid outlet header (C07), an equalizing and silencing air bellow (C08), an air and energy variable flow fan (C09), an ice melting combined micro-vibration C010, a photovoltaic and photo-thermal card plate (C011); the window double-side tube plate (C01) is fixed on both sides of the window of a building balcony or the like; the condensate collection tank (C02) is installed at the bottom of the inner side of the window double-side tube plate; the upper fixed bubble sealing plate (C03) is installed at the upper part of the inner side of the window double-side tube plate (C01); the crosswind isolation plate (C04) is installed at the middle part of the inner side of the window double-side tube plate; the frozen rain source sliding tube plate (C05) is installed at the inner side of the window double-side tube plate with evenly distributed inclined angles; the cold liquid inlet header (C06) is welded with the middle tube head of the frozen rain source sliding tube plate (C05) to form a header group and uses a series connection and same flow pipeline; the source liquid outlet header (C07) is welded with the middle tube head of the frozen rain source sliding tube plate (C05) to form a header group and uses a series connection and same flow pipeline; the equalizing and silencing air bellow (C08) is installed at the upper part of the window double-side tube plate (C01); the equalizing and silencing air bellow (C08) is connected with the air outlet of the air and energy variable flow fan (C09); the ice melting combined micro-vibration C010 is installed at both sides of the window double-side tube plate (C01); the photovoltaic and photo-thermal card plate (C011) is clamped on the male groove of the frozen rain source sliding tube plate (C05), and both ends of the photovoltaic and photo-thermal card plate (C011) are fixed to the inner side of the window double-side tube plate (C01) by using self-tapping screws.
[0013] The simple energy lifting device H00 comprises a closed constant pressure liquid tank (H0P), a source measurement circulating liquid pump (H01), a load side circulating liquid pump (H02), an input cold and hot valve group (H03), an output cold and hot valve group (H04), and a simple refrigeration machine (H05). The closed constant pressure liquid tank (H0P) is installed on the balcony air conditioner position floor 2.2 meters above the height. The closed constant pressure liquid tank (H0P) outlet OPa is connected to the source measurement circulating liquid pump (H01) and the load side circulating liquid pump (H02) through the pipeline respectively. The closed constant pressure liquid tank (H0P) filling port OPb is connected to the intersection point M03 through the pipeline and the valve group OPc. The source measurement circulating liquid pump (H01) suction end is connected to the three-source shutter plate (C00) source liquid outlet header (C07) through the pipeline. The source measurement circulating liquid pump (H01) pressure end is connected to the electrically operated reversing valve group (H03) guide inlet 3a and guide inlet 3d through the pipeline. The electrically operated reversing valve group (H03) outlet 3c is connected to the simple refrigeration machine (H05) source liquid inlet L1 through the pipeline. The electrically operated reversing valve group (H03) outlet 3b is connected to the simple refrigeration machine (H05) hot liquid return port R1 through the pipeline. The electrically operated reversing valve group (H03) intermediate liquid inlet 3x is connected to the load side circulating liquid pump (H02) pressure end through the pipeline. The output cold and hot valve group (H04) liquid inlet 4a is connected to the simple refrigeration machine (H05) cold liquid outlet L2 through the pipeline. The output cold and hot valve group (H04) guide outlet 4b and guide outlet 4c are connected to the load input point M04 through the pipeline respectively. The output cold and hot valve group (H04) inlet 4d is connected to the simple refrigeration machine (H05) hot liquid outlet R2 through the pipeline. The output cold and hot valve group (H04) intermediate outlet 4x is connected to the three-source shutter plate (C00) cold liquid inlet header (C06) through the pipeline and the intersection point M03. The heat storage direct use valve H03f is connected between the source measurement circulating liquid pump (H01) pressure end and the load input point M04.
[0014] The cold and hot storage release system R00 comprises a rapid cooling hot air disc machine (R01), a phase ball coil pipe floor heating (R02), and a potential sensible heat module (R03). The inlet and outlet of the rapid cooling hot air disc machine (R01) are connected to the intersection points M02 and M04 respectively for conventional connection. The inlet and outlet of the phase ball coil pipe floor heating (R02) are connected to the intersection points M02 and M04 respectively for conventional connection. The inlet and outlet of the potential sensible heat module (R03) are connected to the intersection points M02 and M04 respectively for conventional connection.
[0015] The above are only embodiments of the present application, and common technical solutions and / or common knowledge of characteristics in the scheme are not described in detail. It should be noted that, for those skilled in the art, without departing from the technical solutions of the present application, a number of modifications and improvements can be made, which should also be considered as the protection scope of the present application, and these will not affect the effect of the implementation of the present application and the practicability of the patent. The protection scope claimed in the present application should be subject to the content of its claims, and the specific implementation mode and the like recorded in the specification can be used to explain the content of the claims.
[0016] The process principle of the simple refrigeration lifting guide heating and cooling energy storage is shown in Figure 1 、 Figure 2 .
[0017] 1. Ultra-quiet absorption of low-temperature heat source, under the driving of source measurement circulating liquid pump (H01) - built-in low-temperature cold carrier medium enters the frozen rain source slide plate pipe (C05) through the four-source louver evaporator C00 cold liquid inlet header (C06) circulation, the temperature of the plate body decreases and forms a temperature difference with the environment air, forming a cold air natural downward circulation to absorb the latent heat and sensible heat (including low-humidity air energy and solar radiation heat source) of the frozen rain ice, the temperature of the built-in low-temperature cold carrier medium increases and the enthalpy increases, enters the source liquid outlet header (C07) through the source measurement circulating liquid pump (H01) to pressurize, enters the input cold heat valve group (H03) through the guide inlet 3d and the guide outlet 3c, the simple refrigeration machine (H05) source liquid inlet L1 enters the simple refrigeration machine (H05) heat exchanger LZ to release low-temperature energy, the enthalpy of the built-in cold carrier medium decreases and the temperature decreases to become a low-temperature cold carrier medium, which is driven by the pump circulation again to enter the four-source louver evaporator C00 to complete the periodic heat extraction cycle.
[0018] 2. Cold and hot carrier medium guide micro-vibration deicing, cold and hot functions and ice melting functions in summer and winter are completed by intelligent switching of the input cold heat valve group (H03) and the output cold heat valve group (H04). The process feature is that the four-source louver evaporator C00 frozen rain source slide plate pipe (C05) has a certain slope between the plates to form a wideband space, which can carry more than 20 times the volume of ice shell latent heat, the slide plate adopts a nano hydrophobic coating inclined plate distribution, and under the action of internal pipe ice melting and micro-vibration, the ice layer rapidly falls off to reduce the heat melting energy loss speed, and if the frozen rain lasts for a few days, it will be self-melted to realize energy-saving process operation when the weather warms up and solar radiation heat is absorbed.
[0019] 3. The simple refrigeration improves heating and cooling energy storage. In order to increase the service life of simple refrigeration equipment and reduce the failure rate, the low-cost and durable external liquid circuit cold and hot function switching conversion and ice melting operation after reducing the frost probability by 98% are adopted. The simple energy improvement device H00 has only four traditional components including evaporator LZ, condenser RG, flash expansion valve group FS and refrigeration compressor HR. The system has the characteristics of small refrigeration working medium circulation resistance, high refrigeration energy efficiency ratio and high heating performance, and adopts variable energy intelligent control system.
[0020] In winter, during the noon period, the hot air disc machine (R01) and the ground heating of the phase ball disc pipe (R02) meet the heating demand. The medium temperature heat source from the four-source louver condenser C00 solar radiation heat is lifted to high temperature energy by the simple energy improvement device H00 and enters the latent heat module (R03) phase change energy storage. At midnight, the outdoor low temperature can stop the operation of the simple energy improvement device H00, and the latent heat module (R03) releases heat energy to provide independent heating.
[0021] In summer, during the late night period, the ambient air temperature is relatively low, and the refrigeration energy efficiency ratio is relatively high. The simple energy improvement device H00 enters the latent heat module (R03) to store energy. When the noon period arrives the next day, the simple energy improvement device H00 stops running, and the latent heat module (R03) releases cold energy to provide independent cooling.
Claims
1. The sleet slide photovoltaic thermal energy storage heat pump of the present application, characterized in that, It includes four-source louver condenser, simple energy lifting device and cold and hot storage release system.
2. The quadra-source louvered steam condenser of claim 1, wherein It includes window double-side tube plate, condensate water collecting groove, upper fixed bubble sealing plate, opposite wind isolation plate, frozen rain source sliding tube plate, cold liquid inlet header, source liquid outlet header, pressure equalization and sound reduction air bellow, air and energy variable flow fan, ice melting combined micro-vibration, photovoltaic and photo-thermal card plate, the window double-side tube plate is fixed on the outside of the building balcony and other windows, the condensate water collecting groove is installed on the inside bottom of the window double-side tube plate, the upper fixed bubble sealing plate is installed on the inside upper part of the window double-side tube plate, the opposite wind isolation plate is installed on the inside middle part of the window double-side tube plate, the frozen rain source sliding tube plate is installed on the inside evenly inclined angle distribution of the window double-side tube plate, the cold liquid inlet header is welded with the middle tube head of the frozen rain source sliding tube plate to form a header group and adopt series connection and same flow pipeline, the source liquid outlet header is welded with the middle tube head of the frozen rain source sliding tube plate to form a header group and adopt series connection and same flow pipeline, the pressure equalization and sound reduction air bellow air outlet is installed on the upper part of the window double-side tube plate, the pressure equalization and sound reduction air bellow air inlet is connected with the air and energy variable flow fan air outlet, the ice melting combined micro-vibration is installed on the both sides of the window double-side tube plate, the photovoltaic and photo-thermal card plate female groove is clamped on the male groove of the frozen rain source sliding tube plate, and the both ends of the card plate are fixed on the inside of the window double-side tube plate by self-tapping screws.
3. The minimalist energy lifting device of claim 1, wherein It includes closed constant pressure liquid tank, source measurement circulating liquid pump, load side circulating liquid pump, input cold and hot valve group, output cold and hot valve group and simple refrigerating machine, the closed constant pressure liquid tank is installed on the balcony air conditioner position floor 2.2 meters above the height, the closed constant pressure liquid tank liquid outlet OPa is connected with the source measurement circulating liquid pump and the load side circulating liquid pump through pipelines respectively, the closed constant pressure liquid tank filling port OPb is connected with the intersection point M03 through pipeline, valve group OPc and the intersection point M03, the source measurement circulating liquid pump suction inlet end is connected with the three-source louver plate source liquid outlet header through pipeline and the intersection point M01, the source measurement circulating liquid pump pressure outlet end is connected with the electrically operated reversing valve group guide inlet 3a and guide inlet 3d through pipeline respectively, the electrically operated reversing valve group outlet 3c is connected with the simple refrigerating machine source liquid inlet L1 through pipeline, the electrically operated reversing valve group outlet 3b is connected with the simple refrigerating machine hot liquid return port R1 through pipeline, the electrically operated reversing valve group intermediate liquid inlet 3x is connected with the load side circulating liquid pump pressure outlet end through pipeline, the output cold and hot valve group liquid inlet 4a is connected with the simple refrigerating machine cold liquid outlet L2 through pipeline, the output cold and hot valve group guide outlet 4b and guide outlet 4c are connected with the load input point M04 through pipeline respectively, the output cold and hot valve group (H04) inlet 4d is connected with the simple refrigerating machine hot liquid outlet R2 through pipeline, the output cold and hot valve group intermediate outlet 4x is connected with the three-source louver plate cold liquid inlet header through pipeline and the intersection point M03, and the heat storage direct use valve H03f is connected between the source measurement circulating liquid pump pressure outlet end and the load input point M04.
4. The cold heat storage release system of claim 1, wherein The application relates to a combined cooling and heating system, which comprises a quick cooling and heating air disc machine, a phase ball and ground pipe heating system and a latent heat and sensible heat module, wherein the inlet and outlet of the quick cooling and heating air disc machine are connected with the mouth junction points M02 and M04 respectively for normal connection, the inlet and outlet of the phase ball and ground pipe heating system are connected with the mouth junction points M02 and M04 respectively for normal connection, and the inlet and outlet of the latent heat and sensible heat module are connected with the mouth junction points M02 and M04 respectively for normal connection.