Intelligent air conditioner energy-saving system

Abstract

The invention relates to the technical field of air conditioner energy saving, in particular to an intelligent air conditioner energy-saving system which comprises a system platform, the system platform comprises a main body, and the main body comprises a compressor, a condenser, an evaporator, an auxiliary part and a daily maintenance part; the energy-saving module is used for providing driving energy for the main body; and the intelligent control end is used for collecting and sorting the air conditioner information collected by the energy-saving module, and the intelligent control end can sort and combine the collected information. Through the energy-saving module in the system platform, the light power assembly or the wind power assembly can provide energy for the main body, and power consumption can be reduced; the movable supporting frame is arranged on the condenser, so that the overall hollow area of the condenser can be increased when the supporting frame moves, and a heat dissipation fan can quickly convey a large amount of airflow to a pipe body; indoor and outdoor information is collected, and the optimal indoor temperature and the minimum energy loss are simulated through the calculation platform module.

Description

Technical Field

[0001] This invention relates to the field of air conditioning energy-saving technology, and in particular to an intelligent air conditioning energy-saving system. Background Technology

[0002] Air conditioning refers to air conditioners, which are devices that use artificial means to adjust and control parameters such as temperature and airflow of the air inside a building or structure.

[0003] Air conditioners are commonly used devices in summer and winter, and they are powered by direct connection to a power source. The long duration of summer and winter also results in a huge overall power consumption of air conditioners. When the outside temperature is too high or the operation is too long, the cooling fan in the condenser needs to continuously dissipate heat from the pipes. However, the ventilation effect of the condenser shell is limited, which prevents the airflow delivered to the pipes from dissipating heat in time, thus affecting the operation of the internal parts of the condenser. Summary of the Invention

[0004] The purpose of this invention is to solve the problem of high energy consumption in the overall operation of air conditioners in the prior art, and to propose an intelligent air conditioning energy-saving system.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: A smart air conditioning energy-saving system includes a system platform, the system platform comprising: The main body includes a compressor, a condenser, an evaporator, auxiliary components, and routine maintenance components. An energy-saving module is used to provide driving energy to the main body; The intelligent control terminal is used to collect and organize the air conditioning information collected by the energy-saving module, and the intelligent control terminal can organize and merge the collected information. The auxiliary components include a fan impeller, a four-way valve, and refrigerant; The routine maintenance includes regular maintenance, spot check maintenance, and structural replenishment.

[0006] Preferably, the energy-saving module includes a solar power component, a wind power component, a converter, and a battery pack for providing power to the air conditioner.

[0007] Preferably, the solar power component includes a solar panel for collecting thermal energy, a controller, and an inverter, and the wind power component includes a wind turbine for collecting wind energy, a generator, and a controller.

[0008] Preferably, the condenser includes a cooling fan and a tube body that cooperate with each other. A guide seat is fixedly installed on the condenser. A fixing plate is installed on one side of the guide seat, and a support frame extending into the guide seat is fixedly installed on the fixing plate. The cooling fan is located on the fixing plate. A circumferentially distributed guide rod connected to the support frame is slidably sleeved inside the condenser, and a guide cap is fixedly installed on the guide rod. A spring that cooperates with the guide rod is welded between the guide cap and the condenser.

[0009] Preferably, the guide seat has an annular groove for guiding the support frame, and the support frame has an annular hollow structure. A filter screen for trapping dust is placed on one side of the fixing plate, and the filter screen and the fixing plate are provided with magnetic plates with opposite poles attracting each other. Symmetrically arranged support seats are fixedly installed on the condenser, and a hydraulic cylinder is fixedly installed in the support seat. A traction block connected to the support frame and the output end of the hydraulic cylinder is slidably sleeved in the support seat. The guide cap and guide rod extend to one side of the condenser. The spring is sleeved on the guide rod. The guide rod is horizontally arranged. A ventilation mesh plate is connected to one side of the condenser by screws.

[0010] Preferably, the evaporator is equipped with an air supply system that generates airflow, and the air supply system includes a monitoring module and an adjustment module for monitoring indoor air conditions. The monitoring module includes bacterial signal transmission, odor signal transmission, and dust signal transmission, and the adjustment module includes sterilization signal transmission, odor removal signal transmission, and humidification signal transmission for processing the information collected by the monitoring module.

[0011] Preferably, the intelligent control terminal includes an information acquisition module, an information filtering module, and a computing platform module, and the intelligent control terminal is equipped with voice and manual methods for driving the air conditioner.

[0012] Preferably, the information acquisition module includes indoor temperature signal transmission, indoor humidity signal transmission, indoor capacity signal transmission, outdoor wind speed signal transmission, outdoor temperature signal transmission, heat source equipment signal transmission, and indoor area signal transmission.

[0013] Preferably, the computing platform module includes a modeling module, a simulation environment module, and an analysis and merging module, wherein the modeling module 331 includes hierarchical modeling and combined modeling.

[0014] Compared with the prior art, the present invention has the following advantages: 1. This invention enables the solar or wind power components to provide energy to the main body through the energy-saving module in the system platform, and collects the collected heat or wind energy into the battery pack for use, thereby reducing power consumption.

[0015] 2. This invention provides a movable support frame on the condenser, which increases the overall perforated area of ​​the condenser when the support frame moves. This allows the cooling fan to quickly deliver a large amount of airflow to the tube body, preventing the tube body from overheating and causing the temperature inside the condenser to remain high.

[0016] 3. This invention collects information from indoor and outdoor environments and uses a computing platform module to simulate the optimal indoor temperature and minimum energy consumption. The air supply system can monitor the indoor conditions and quickly adjust the indoor airflow during the air delivery process. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the structure of an intelligent air conditioning energy-saving system proposed in this invention; Figure 2 This is a schematic diagram of the energy-saving module structure of an intelligent air conditioning energy-saving system proposed in this invention; Figure 3 This is a schematic diagram of the evaporator structure of an intelligent air conditioning energy-saving system proposed in this invention; Figure 4 This is a schematic diagram of the intelligent control terminal structure of an intelligent air conditioning energy-saving system proposed in this invention; Figure 5 This is a schematic diagram of the information acquisition module structure of an intelligent air conditioning energy-saving system proposed in this invention; Figure 6 This is a schematic diagram of the computing platform module structure of an intelligent air conditioning energy-saving system proposed in this invention; Figure 7 This is a top sectional view of the condenser of an intelligent air conditioning energy-saving system proposed in this invention.

[0018] In the diagram: 1. Main body; 11. Compressor; 12. Condenser; 13. Evaporator; 14. Auxiliary parts; 15. Daily maintenance; 121. Fixing plate; 122. Guide seat; 123. Support frame; 124. Filter screen; 125. Guide rod; 126. Spring; 127. Support base; 128. Hydraulic cylinder; 129. Traction block; 131. Air supply system; 1311. Monitoring panel; 1312. Adjustment panel; 13111. Bacterial signal transmission; 13112. Odor signal transmission; 13113. Dust signal transmission; 13121. Sterilization signal transmission; 13122. Odor removal signal transmission; 13123. Humidification signal transmission; 141. Fan wheel; 142. Four-way valve; 143. Refrigerant; 2. Energy saving module; 3. 31. Intelligent control terminal; 32. Information acquisition module; 33. Information filtering module; 34. Computing platform module; 35. Indoor temperature signal transmission; 36. Indoor humidity signal transmission; 37. Indoor capacity signal transmission; 38. Outdoor wind speed signal transmission; 39. Outdoor temperature signal transmission; 30. Heat source equipment signal transmission; 31. Indoor area signal transmission; 32. Modeling module; 33. Simulation environment module; 34. Analysis and merging module; 35. Layered modeling; 36. Combined modeling; 47. Photoelectric component; 58. Wind power component; 69. Converter; 70. Battery pack; 41. Solar panel; 42. Controller one; 43. Inverter; 54. Wind turbine; 55. Generator; 56. Controller two. Detailed Implementation

[0019] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments.

[0020] Reference Figures 1-7 An intelligent air conditioning energy-saving system includes a system platform, the system platform comprising: Main body 1, which includes compressor 11, condenser 12, evaporator 13, auxiliary parts 14, and daily maintenance parts 15.

[0021] The condenser 12 includes a cooling fan and a tube body that cooperate with each other. A guide seat 122 is fixedly installed on the condenser 12. A fixing plate 121 is installed on one side of the guide seat 122, and a support frame 123 extending into the guide seat 122 is fixedly installed on the fixing plate 121.

[0022] The cooling fan is mounted on the fixed plate 121. The condenser 12 has circumferentially distributed guide rods 125 that are connected to the support frame 123 and are slidably sleeved inside it. A guide cap is fixedly installed on the guide rod 125. A spring 126 that cooperates with the guide rod 125 is welded between the guide cap and the condenser 12. The condenser 12 guides the guide rod 125 so that the guide rod 125 can smoothly pull the support frame 123 and the guide cap when it moves. The spring 126 buffers the guide cap so that the support frame 123 can control the moving speed of the guide rod 125 and the fixed plate 121 when it moves, so as to avoid impact caused by excessive moving speed.

[0023] The guide seat 122 has an annular groove for guiding the support frame 123, and the support frame 123 has an annular hollow structure. A filter screen 124 for trapping dust is placed on one side of the fixing plate 121, and the filter screen 124 and the fixing plate 121 have magnetic plates with opposite poles attracting each other. By installing the filter screen 124 on the condenser 12, the filter screen 124 can filter the airflow entering the condenser 12, which can prevent dust from entering the condenser 12. By opening the annular groove on the guide seat 122, the annular groove can limit the movement direction of the support frame 123. By setting the support frame 123 as an annular hollow structure, when the support frame 123 extends out of the guide seat 122, the contact degree between the condenser 12 and the outside can be increased, so that the airflow can be quickly delivered to the tube body through the cooling fan.

[0024] A symmetrically arranged support base 127 is fixedly installed on the condenser 12, and a hydraulic cylinder 128 is fixedly installed inside the support base 127. A traction block 129 connected to the support frame 123 and the output end of the hydraulic cylinder 128 is slidably sleeved inside the support base 127. When the traction block 129 moves inside the support base 127, it can adjust the position of the support frame 123. When the fixed plate 121 gradually moves outward, the support frame 123 can be displayed.

[0025] The guide cap and guide rod 125 extend to one side of the condenser 12. The spring 126 is sleeved on the guide rod 125. The guide rod 125 is set horizontally. A ventilation mesh plate is connected to one side of the condenser 12 by screws. By installing the ventilation mesh plate on the condenser 12, the ventilation mesh plate can dissipate heat from the inside of the condenser 12 and the tube body.

[0026] The evaporator 13 is equipped with an air supply system 131 that generates airflow. The air supply system 131 includes a monitoring module 1311 and an adjustment module 1312 for monitoring indoor air conditions. The monitoring module 1311 includes a bacterial signal transmission 13111, an odor signal transmission 13112, and a dust signal transmission 13113. The bacterial signal transmission 13111 refers to assessing the degree of microbial contamination by detecting the ATP (adenosine triphosphate) level in a sample using an ATP bioluminescence detector based on the principle of bioluminescence. The odor signal transmission 13112 refers to detecting the air quality in the room using an air quality detector and checking whether the room temperature is too high or too low using a temperature tester. Inappropriate temperatures may cause items to mold and deteriorate. The dust signal transmission 13113 refers to monitoring the dust concentration in real time using an online dust concentration detector.

[0027] The adjustment module 1312 includes a sterilization signal transmission 13121, an odor removal signal transmission 13122, and a humidification signal transmission 13123 for processing the information collected by the detection module. The sterilization signal transmission 13121 can remove indoor bacteria through disinfectants or ultraviolet germicidal lamps. The odor removal signal transmission 13122 can remove and adsorb indoor air through an air purifier, or remove indoor odors through air fresheners or incense. The humidification signal transmission 13123 refers to water sprayed through a misting tube to reduce indoor dust.

[0028] Energy-saving module 2 is used to provide driving energy to the main body 1.

[0029] The energy-saving module 2 includes a solar power component 4, a wind power component 5, a converter 6, and a battery pack 7 for powering the air conditioner. The solar power component 4 includes a solar panel 41 for collecting thermal energy, a controller 42, and an inverter 43. The solar power component 4 is a new type of power generation system that uses the photovoltaic effect of semiconductor materials to directly convert solar energy into electrical energy. The wind power component 5 includes a wind turbine 51 for collecting wind energy, a generator 52, and a controller 53. The battery pack 7 is used to store electrical energy. The controllers 42 and 53 can control the working status of the entire system and provide overcharge and over-discharge protection for the battery pack 7. The inverter 43 converts DC power into AC power to meet the needs of most electrical devices. By providing kinetic energy through the solar power component 4 and the wind power component 5, the energy-saving effect of the air conditioner can be improved.

[0030] The intelligent control terminal 3 is used to collect and organize the air conditioning information collected by the energy-saving module 2, and the intelligent control terminal 3 can organize and merge the collected information.

[0031] The intelligent control terminal 3 includes an information acquisition module 31, an information filtering module 32, and a computing platform module 33. The intelligent control terminal 3 is equipped with voice and manual modes for driving the air conditioner. Commands are output to the intelligent control terminal 3 through manual operation or voice transmission, and the main body 1 is controlled to operate through the intelligent control terminal 3.

[0032] The information acquisition module 31 includes indoor temperature signal transmission 311, indoor humidity signal transmission 312, indoor capacity signal transmission 313, outdoor wind speed signal transmission 314, outdoor temperature signal transmission 315, heat source equipment signal transmission 316, and indoor area signal transmission 317. It measures the indoor and outdoor temperatures using a thermometer, monitors the indoor humidity using a humidity sensor, monitors the outdoor wind speed using an anemometer, uploads the indoor area and indoor usage capacity values, and uploads the number of indoor heat source equipment.

[0033] Outdoor temperature gradually rises over time, and humidity also changes accordingly. Indoor heat sources include electrical appliances such as televisions and refrigerators. The number of electrical appliances affects indoor temperature, as does the indoor volume and usable area.

[0034] The computing platform module 33 includes a modeling module 331, a simulation environment module 332, and an analysis and merging module 333. The simulation environment module 332 refers to a system that simulates various natural or specific environmental conditions in a specific space. It automatically adjusts according to the hourly changes in the external environment and temperature. The modeling module 331 adjusts the changes in the external environment over time and transmits the information to the analysis and merging module 333. The analysis and merging module 333 can determine the optimal indoor humidity and temperature and calculate the optimal energy-saving scheme and maximize the use of the main body 1.

[0035] Modeling module 331 includes layered modeling 3311 and combined modeling 3312. Layered modeling 3311 establishes information on wind speed, consumption, structure, etc. generated per hour by subject 1 under the influence of information acquisition module 31. It can model the changes generated by subject 1 over time. Combined modeling 3312 overlays multiple modeling data. Layered modeling 3311 consists of a counting function block, a timing function block, a measurement function block, and a line graph function block.

[0036] The marking function block is used to mark the main body 1 to facilitate experiments with the same group of classes, and the timing function block is used to time the testing process.

[0037] The metering function block is used to mark the cumulative operation, energy loss, and structural loss of the main body 1, while the line graph function block is used to present the abnormal data of the main body 1 so as to remove or mark useful information.

[0038] The auxiliary component 14 includes a fan 141, a four-way valve 142, and a refrigerant 143.

[0039] The routine maintenance 15 includes regular maintenance, spot check maintenance, and structural replenishment. Regular maintenance can regularly maintain the parts inside the main body 1 and conduct real-time spot checks on the parts. When the main body 1 is damaged, the parts can be replenished.

[0040] The functional principle of this invention can be explained through the following operational methods: The information acquisition module 31 in the intelligent control terminal 3 can measure the indoor and outdoor temperatures through a thermometer, monitor the indoor humidity through a humidity sensor, monitor the outdoor wind speed through an anemometer, upload the indoor area and indoor usage capacity values, and upload the number of indoor heat source devices. The information filtering module 32 deletes the collected useless information and transmits the filtered useful information to the computing platform module 33; The modeling module 331 in the computing platform module 33 can obtain different linear graphs based on the real-time monitoring results, and calculate the wind force and energy consumed by the main body 1 during operation through the simulation environment module 332. The optimal energy-saving method is obtained by analyzing and merging the modules 333. When the main body 1 is powered on, the air supply system 131 operates to generate airflow. The monitoring module 1311 can detect the level of bacteria, odor, and dust in the room. When the indoor pollution level reaches the specified value, it immediately inputs a command to the adjustment module 1312. The sterilization signal transmission 13121 can remove indoor bacteria through ultraviolet germicidal lamps or disinfectants. The odor removal signal transmission 13122 can remove indoor odors by spraying air fresheners. After the humidification signal transmission 13123 is started, water is sprayed out through the atomizing pipe to reduce dust in the room. When the air conditioner is running, the energy-saving module 2 provides energy to the main body 1 through the light power component 4 and the wind power component 5, and converts the light energy or wind energy into electrical energy through the converter 6 and stores it in the battery pack 7 to continuously provide energy to the air conditioner. When the air conditioner is operating at high temperature, the temperature in the condenser 12 will gradually increase. Immediately, a command is sent to the hydraulic cylinder 128. The output end of the hydraulic cylinder 128 extends and retracts, causing the traction block 129 to slide within the support seat 127. The traction block 129 causes the traction frame to slide within the annular groove in the guide seat 122. When the fixing plate 121 extends outward, it unfolds the support frame 123. The support frame 123 slides within the condenser 12 on the guide rod 125. The spring 126 is stressed, allowing the external cold energy to gradually increase with the area of ​​the perforation, and quickly dissipating heat from the pipes inside the condenser 12.

[0041] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. An intelligent air conditioning energy-saving system, comprising a system platform, characterized in that, The system platform includes: The main body (1) includes a compressor (11), a condenser (12), an evaporator (13), auxiliary parts (14), and daily maintenance (15). Energy-saving module (2), which is used to provide driving energy to the main body (1); The intelligent control terminal (3) is used to collect and organize the air conditioning information collected by the energy-saving module (2), and the intelligent control terminal (3) can organize and merge the collected information. The auxiliary components (14) include a fan (141), a four-way valve (142), and a refrigerant (143). Routine maintenance (15) includes regular maintenance, spot check maintenance, and structural replenishment; The condenser (12) includes a heat dissipation fan and a tube body that cooperate with each other. A guide seat (122) is fixedly installed on the condenser (12). A fixing plate (121) is installed on one side of the guide seat (122). A support frame (123) extending into the guide seat (122) is fixedly installed on the fixing plate (121). The heat dissipation fan is located on the fixing plate (121). A guide rod (125) that is circumferentially distributed and connected to the support frame (123) is slidably sleeved inside the condenser (12). A guide cap is fixedly installed on the guide rod (125). A spring (126) that cooperates with the guide rod (125) is welded between the guide cap and the condenser (12). The guide seat (122) has an annular groove for guiding the support frame (123), and the support frame (123) has an annular hollow structure. A filter screen (124) for trapping dust is placed on one side of the fixing plate (121), and the filter screen (124) and the fixing plate (121) are provided with magnetic plates with opposite poles attracting each other. A symmetrically arranged support seat (127) is fixedly installed on the condenser (12), and a hydraulic cylinder (128) is fixedly installed inside the support seat (127). A traction block (129) connected to the output end of the support frame (123) and the hydraulic cylinder (128) is slidably sleeved inside the support seat (127). The guide cap and the guide rod (125) extend to one side of the condenser (12), and the spring (126) is sleeved on the guide rod (125). The guide rod (125) is set horizontally, and a ventilation mesh plate is connected to one side of the condenser (12) by screws.

2. The intelligent air conditioning energy-saving system according to claim 1, characterized in that, The energy-saving module (2) includes a light power component (4), a wind power component (5), a converter (6), and a battery pack (7) for providing power to the air conditioner.

3. The intelligent air conditioning energy-saving system according to claim 2, characterized in that, The solar power component (4) includes a solar panel (41) for collecting thermal energy, a controller (42) and an inverter (43), and the wind power component (5) includes a wind turbine (51) for collecting wind energy, a generator (52) and a controller (53).

4. The intelligent air conditioning energy-saving system according to claim 1, characterized in that, The evaporator (13) is equipped with an air supply system (131) that generates airflow. The air supply system (131) includes a monitoring module (1311) and an adjustment module (1312) for monitoring indoor air conditions. The monitoring module (1311) includes a bacterial signal transmission (13111), an odor signal transmission (13112), and a dust signal transmission (13113). The adjustment module (1312) includes a sterilization signal transmission (13121), an odor removal signal transmission (13122), and a humidification signal transmission (13123) for processing the information collected by the monitoring module.

5. The intelligent air conditioning energy-saving system according to claim 1, characterized in that, The intelligent control terminal (3) includes an information acquisition module (31), an information filtering module (32), and a computing platform module (33). The intelligent control terminal (3) is equipped with voice and manual modes for driving the air conditioner.

6. The intelligent air conditioning energy-saving system according to claim 5, characterized in that, The information acquisition module (31) includes indoor temperature signal transmission (311), indoor humidity signal transmission (312), indoor capacity signal transmission (313), outdoor wind speed signal transmission (314), outdoor temperature signal transmission (315), heat source equipment signal transmission (316), and indoor area signal transmission (317).

7. The intelligent air conditioning energy-saving system according to claim 5, characterized in that, The computing platform module (33) includes a modeling module (331), a simulation environment module (332), and an analysis and merging module (333). The modeling module 331 includes hierarchical modeling (3311) and combined modeling (3312).

Images