Vortex pressure range-extending air conditioner fan unit

Abstract

The utility model provides a vortex pressure range extending air conditioner fan unit. The vortex pressure range extending air conditioner fan unit comprises a chassis (104), an outer cover (120), a natural wind field simulation unit and a main control system (400). Compared with the prior art, due to the fact that the unique double-vortex double-air-duct pressurization technology is adopted, and the immersion type high-air-pressure air supply working field is constructed in the annular pressurization air duct, under the working conditions of the same size and power, the blowing, heating and humidifying efficiency is improved by times, and the air supply efficiency is improved by times. Wherein centrifugal edge wind generated by the turbine (221) is extruded by the gradually narrowed annular pressurizing air duct (170), the wind power is enhanced, the lift is increased, and a peripheral annular wind field is formed; wherein rotating central wind generated by the turbofan (211) is extruded by the central pressurizing air duct (150), the wind power is enhanced, the lift is increased, and a central wind field is formed; wherein the heating unit is used for generating warm spring wind, and the micro humidification unit is used for generating cool autumn wind; different types of volatilizing agents are added into the water storage tank to generate natural wind with different effects, and meanwhile the functions of air purification, mosquito repelling, physical therapy and aromatherapy are ingeniously achieved. Due to the arrangement of the intelligent control system and the wireless interconnection module, the self-adaption of the contrast, the rotating speed, the temperature and the humidity and the application of the internet of things are realized; the method is wide in application range, the local space environment can be optimized under the non-closed working condition, and the market potential is huge.

Description

Technical Field

[0001] The utility model belongs to the field of fans, and particularly belongs to an air-conditioning fan unit and its application. Background Art

[0002] In winter, under the working conditions of large spaces and non-enclosed spaces, the purpose of air conditioning cannot be achieved by turning on the air conditioner or heater; when using an electric heater for local heating, due to the upward characteristic of the warm air, the heat is easily dissipated, and the body feeling effect is poor; it cannot meet people's needs; due to the limitation of the use space, at a suitable position, not only lighting but also electrical appliances with heating and cooling functions need to be installed, which leads to conflicts in the installation positions of electrical appliances; for example, in the actual application of lamps, in some cases, due to the needs of learning and work, people have high requirements for the brightness of the lamps, so high-brightness light sources need to be selected, and in some cases, people also have high pursuits for the style and atmosphere, so the lampshade needs to be decorative and not dazzling, which leads to conflicts in the use functions of lighting light sources; another example is that with the advent of the intelligent era, people's demand for the interconnection of all things is becoming more and more urgent, which requires household appliances to have the function of wireless interconnection. Summary of the Invention

[0003] In order to overcome the limitations of existing air conditioners, electric heaters, and fan lights, and to meet people's multi-modal needs for local environmental wind, light, temperature, and intelligence, the purpose of the present invention is to provide an energy-saving and multi-functional vortex pressure-increasing air-conditioning fan unit; it can not only generate a warm spring wind field but also a refreshing autumn wind field; compared with the prior art, due to the adoption of a unique double-vortex supercharging technology and an immersive supercharging air duct design, an immersive high-pressure air supply working field is constructed inside. Under the working conditions of the same volume and power, the efficiency of blowing, heating, and humidifying is doubled. Not only is the air output surging and the lift is farther, but also a stable surrounding ecological wind field can be formed in the local space, which not only has a good body feeling but also is more energy-saving and effective; due to the setting of a micro-evaporation humidification unit, the dryness of blowing warm air in winter is avoided, and at the same time, the functions of air purification, mosquito repellent, physiotherapy, and aromatherapy are cleverly realized; it makes people feel fresh.

[0004] Technical solution of the utility model: A vortex pressure range - extended air - conditioner fan unit, including a chassis 104, an outer cover 120, a natural wind field simulation unit, and a main control system 400; a chassis 104 is arranged around the outer cover 120, and a natural wind field simulation unit 100 is arranged inside the outer cover. A main control system 400 is arranged on the chassis 104. It is characterized in that the natural wind field simulation unit includes a double - vortex unit 200 composed of a housing, a motor 201, a turbine 221, and a vortex fan 211; the vortex fan 211 is responsible for generating a direct - push central wind, and the turbine 221 is responsible for generating a centrifugal edge wind; the vortex fan 211 is arranged directly in front of the turbine 221; the diameter of the vortex fan 211 is smaller than that of the turbine 221, and the vortex fan 211 does not block the centrifugal force wind of the turbine 221. The suction of the vortex fan and the centrifugal force of the turbine promote each other forward; the double - vortex unit 200 is fixed at the central position of the bottom of the outer cover 120; the double - vortex unit 200 is connected to the main control system 400.

[0005] The above - mentioned vortex pressure range - extended air - conditioner fan unit is further characterized in that the natural wind field simulation unit further includes a double - duct unit composed of an inner cover 110, an outer cover 120, an air inlet 101, an annular air outlet 102, a central air outlet 103, an annular pressurizing duct 170, and a central pressurizing duct 150; the inner cover 110 is flat, the outer cover 120 is raised. An arc - shaped cavity that gradually narrows from the inside to the outside is formed between the inner cover 110 and the outer cover 120, constituting the edge - wind annular pressurizing duct 170; an inverted hole - piercing bottleneck depression is arranged in the upper - middle part of the inner cover, constituting the bottleneck - shaped central pressurizing duct 150; an air inlet 101 is arranged at the upper part of the outer cover 120, an annular air outlet 102 is arranged at the end of the annular pressurizing duct 170; a central air outlet 103 is arranged at the end of the central pressurizing duct (150). The centrifugal edge wind generated by the turbine 221 is squeezed by the gradually narrowing annular pressurizing duct 170, the wind force is enhanced, and the lift is increased, forming an outer - peripheral annular wind; the rotating central wind generated by the vortex fan 211 is squeezed by the bottleneck central pressurizing duct 150, the wind force is enhanced, and the lift is increased to form a central wind; the annular wind and the central wind constitute a comfortable embracing - type ecological wind field, and people can be affected by different types of wind in all directions inside, with an excellent body feeling. The annular centrifugal wind is gentle and graceful, and the central rotating wind is surging. A heating unit and a micro - humidifying unit are arranged in the central wind field.

[0006] The above - mentioned vortex pressure range - extended air - conditioner fan unit is further characterized in that the natural wind field simulation unit further includes an air - duct controller 233 in a cylindrical structure that can slide up and down; the air - duct controller 233 is sleeved outside the double - vortex unit 200 and is used to guide the direction of the centrifugal edge wind of the turbine 221.

[0007] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that the natural wind field simulation unit further includes a vortex fan single-duct cold and warm air unit, including a vortex fan unit 210, an annular pressurizing air duct 170, an air inlet 101, an annular air outlet 102, a flame retardant bracket 111, a heating unit 500, and a main control system 400; wherein the annular pressurizing cavity 170 is composed of an arc-shaped inner cover 110 and an arc-shaped outer cover 120, wherein the inner cover 110 is flat, the outer cover 120 is raised, and a gradually decreasing annular cavity is formed between the inner cover 110 and the outer cover 120 from the inside to the outside; wherein an air inlet 101 is provided at the top of the outer cover 120, and an annular air outlet 102 is provided at the end of the annular pressurizing air duct 100; wherein a flame retardant bracket 111 is fixed at the center position of the inner cover 110, and a heating unit 500 is provided above the flame retardant bracket 111; a vortex fan unit 210 is provided above the heating unit 500, wherein the vortex fan unit 210 is fixed at the center position of the bottom of the outer cover 120; wherein the main control system 400 is connected to the heating unit 500 and the vortex fan unit 210.

[0008] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that the natural wind field simulation unit 100 further includes a double-vortex mixed air duct unit, which is composed of a double-vortex unit 200, an air inlet 101, an annular air outlet 102, an annular pressurizing air duct 170, and an air duct controller 233; wherein the double-vortex unit 200 includes a motor 201, a turbine 221, and a vortex fan 211; wherein the diameter of the turbine 221 is larger than the diameter of the vortex fan 211; wherein the air duct controller 233 is sleeved outside the double-vortex unit 200 and is in a cylindrical structure and can slide up and down; wherein the annular pressurizing air duct 100 is composed of an arc-shaped inner cover 110 and an arc-shaped outer cover 120, wherein the inner cover 110 is flat, the outer cover 120 is raised, and a gradually decreasing arc-shaped cavity is formed between the inner cover 110 and the outer cover 120 from the inside to the outside; wherein an air inlet 101 is provided at the top of the arc-shaped outer cover 120, and an annular air outlet 102 is provided at the end of the annular pressurizing air duct 170, wherein the double-vortex unit 200 is fixed at the center position of the bottom of the outer cover 120; wherein the main control system 400 is connected to the double-vortex fan unit 200.

[0009] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that a heating unit 500 is further provided at the center position of the inner cover; a flame retardant bracket 111 is fixed at the center position of the inner cover 110, and a heating unit 500 is provided above the flame retardant bracket 111; wherein the main control system 400 is connected to the heating unit 500.

[0010] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that a humidifier 800 is further provided in the inner cover 110, which includes an evaporation humidification unit 810 and an ionic atomizer 820. The evaporation humidification unit 810 is used for micro-humidification and is composed of a water storage tank 801, a capillary evaporation mesh 811 and a water absorption rope 812. A water injection port 802 is provided at the upper part of the water storage tank 801. The capillary evaporation mesh 811 is arranged below the flame retardant bracket 111. The capillary evaporation mesh 811 is connected with a water absorption rope 812, and the water absorption rope 812 is inserted into the water storage tank 801 through the water injection port 802. The ionic atomizer 820 is arranged at the bottom of the water storage tank 801 and is connected to the main control system 400. The spray port extends out from the water injection port 802 for rapid humidification.

[0011] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that an ion generator 600 is further provided on the flame retardant bracket 111 above the inner cover 110 for sterilizing, defogging and purifying the wind field.

[0012] The above-mentioned vortex pressure range extender air conditioner fan unit is characterized by including an outer cover 120, an inner cover 110, a chassis 104, a natural wind field simulation unit, a lighting unit 300 and a main control system 400. A chassis 104 is arranged around the outer cover 120, and an inner cover 110 is arranged inside the outer cover 120. A natural wind field simulation unit is arranged between the outer cover and the inner cover. The lighting unit 300 is installed on the chassis 104. The natural wind field simulation unit, the lighting unit 300 and the main control system 400 are connected.

[0013] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that a vertically adjustable thread 160 and a conical decorative cover 140 with a nut are arranged at the bottom of the inner cover 110. By adjusting the distance between the decorative cover 140 and the inner cover 110, the size and inclination angle of the air outlet are adjusted, so as to change the wind force, lift and wind field coverage area. Decorative patterns 141 can be set on the decorative cover.

[0014] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that it further includes an illuminance adaptive system, which is composed of a learning state light source 310, a light sensing module 431, a main control system 400 and an intelligent control system 410. The main control system 400 is connected to the learning state light source 310, and the intelligent control system 410 is connected to the light sensing module 431 and the main control system 400.

[0015] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that it further includes a temperature self-adaptive system 420, which is composed of an intelligent control system 410, a wireless interconnection module 415, and a temperature and humidity sensing module 421; the intelligent control system 410 is connected to the temperature and humidity sensing module 421, the wireless interconnection module 415, and the main control system 400; the main control system 400 is connected to the heating unit 500.

[0016] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that it further includes a wind speed self-adaptive system 450, which is composed of a temperature and humidity sensing module 421, a wireless interconnection module 415, and an intelligent control system 410; the intelligent control system 410 is connected to the temperature and humidity sensing module 421, the wireless interconnection module 415, and the main control system 400; the main control system 400 is connected to the vortex fan unit 210.

[0017] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that it further includes a humidity self-adaptive system 460, which is composed of an ionic atomizer 820, a temperature and humidity sensing module 421, and an intelligent control system 410; the intelligent control system 410 is connected to the temperature and humidity sensing module 421 and the ionic atomizer 820.

[0018] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that it further includes a human presence self-adaptive system 440; it is composed of a main control system 400, a wireless interconnection module 415, a human body sensing module 441, and an intelligent control system 410; the intelligent control system 410 is connected to the wireless interconnection module 415, the human body sensing module 441, and the main control system 400; the main control system 400 is connected to the working unit.

[0019] The above-mentioned vortex pressure range extender air conditioner fan unit is further characterized in that it further includes an AI voice servo system 470, which is composed of a Bluetooth speaker 702, an AI module, and a pickup 701; the AI module is connected to the intelligent control system 410, can perform voice switch servo through the pickup 701, and can perform Internet AI dialogue through the Bluetooth speaker 702 and the AI module.

[0020] The beneficial effects of the present utility model are as follows: The vortex pressure range - extended air - conditioner fan unit provided by the present utility model re - defines the fan field. It not only has the functions of blowing and lighting, but also has a multi - modal natural wind field suitable for all seasons. It includes a chassis (104), a housing (120), a natural wind field simulation unit, and a main control system (400). Compared with the prior art, due to the adoption of the unique double - vortex double - air - duct supercharging technology, an immersive high - pressure air - supply working field is constructed inside the annular supercharging air - duct. Under the conditions of the same volume and power, the efficiency of blowing, heating, and humidifying is doubled. Among them, the centrifugal edge wind generated by the turbine (221) is squeezed by the gradually narrowing annular supercharging air - duct (170), the wind force is enhanced, and the lift is increased, forming an outer annular wind field. Among them, the rotating central wind generated by the scroll fan (211) is squeezed by the central supercharging air - duct (150), the wind force is enhanced, and the lift is increased, forming a central wind field. The outer annular wind field and the central wind field together constitute a comfortable embracing natural ecological wind field, in which people can feel different types of wind in all directions, and the body feeling is extremely good. Among them, the edge centrifugal wind simulates the gentle and graceful orchard wind, and the central rotating wind simulates the passionate beach wind. Among them, the heating unit is used to generate warm spring wind, and the micro - humidifying unit is used to generate brisk autumn wind. Among them, by adding different types of volatilizers to the water storage tank, natural winds with different effects are generated, and at the same time, functions of air purification, mosquito repellent, physiotherapy, and aromatherapy are cleverly realized. Due to the setting of the intelligent control system and the wireless interconnection module, the self - adaptation of illuminance, rotation speed, temperature, and humidity and the Internet of Things application are realized, raising the concept of intelligent application to a new height. Thus, it can be seen that the present invention has a wide range of applications, is energy - saving and multi - functional, has a low cost, a high degree of intelligence, and can optimize the local space environment under non - enclosed conditions, with great market potential. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 FIG. 6 is a schematic structural cross - sectional view of a small - sized vortex pressure range - extended air - conditioner fan according to Embodiment 1 of the present utility model;

[0022] Figure 2 FIG. 10 is a schematic layout diagram of the heating unit at the cross - section of P1P2 of a vortex pressure range - extended air - conditioner fan according to Embodiment 1 of the present utility model;

[0023] Figure 3 FIG. 14 is a schematic layout diagram of the evaporation humidifying unit at the cross - section of P3P4 of a vortex pressure range - extended air - conditioner fan according to Embodiment 1 of the present utility model;

[0024] Figure 4 FIG. 18 is a schematic bottom - view external appearance diagram of a vortex pressure range - extended air - conditioner fan according to Embodiment 1 of the present utility model;

[0025] Figure 5 FIG. 22 is a schematic structural cross - sectional view of the double - vortex mixed air - duct range - extended system according to Embodiment 2 of the present utility model;

[0026] Figure 6 It is a bottom view external schematic diagram of the double-vortex hybrid air duct range extender system according to Embodiment 2 of the present utility model;

[0027] Figure 7 It is a structural cross-sectional schematic diagram of the double-vortex double air duct range extender system according to Embodiment 3 of the present utility model;

[0028] Figure 8 It is a bottom view external schematic diagram of the double-vortex double air duct range extender system according to Embodiment 3 of the present utility model;

[0029] Figure 9 It is an intelligent application control model diagram of a vortex pressure range extender air conditioner unit of the present utility model;

[0030] Wherein: 101. Air inlet, 102. Annular air outlet, 103. Central air outlet, 104. Chassis, 105. Fixing screw, 106. Installation thread, 107. Installation base; 110. Inner cover, 111. Flame retardant bracket, 120. Outer cover, 140. Decorative cover, 141. Decorative pattern; 150. Central pressurized air duct, 160. Adjusting thread, 170. Annular pressurized air duct; 200. Double-vortex unit, 201 Motor, 210. Vortex fan unit, 221. Turbine, 211. Vortex fan, 233. Air duct controller; 300. Lighting unit, 301. Lamp shade, 302. Suspension chain, 303. Ceiling suction disc, 310. Learning state light source, 320. Decorative state light source, 330. Ambient state light source;

[0031] 400. Main control system, 401. Inductor unit, 420. Temperature self-adaptive system, 410. Intelligent control system, 415. Wireless interconnection module, 421. Temperature and humidity sensing module, 450. Wind speed self-adaptive system 460. Humidity self-adaptive system, 440. Human presence self-adaptive system, 441. Human body sensing module;

[0032] 500. Heating unit; 600. Ion generator; 700. Voice unit; 800. Humidifying unit, 810. Evaporative humidifying unit, 820. Ion atomizer; 801. Water storage tank, 802. Water injection port, 811. Evaporation mesh, 812. Water absorption rope. Specific embodiments

[0033] Example 1, as shown in Figure (1-4, 9), when the present invention is used as a small intelligent turbocharger range extender air conditioning fan, it is composed of a natural wind field simulation unit, a mounting thread 106, a sensor unit 401, an intelligent control system 410 and a main control system 400; wherein the natural wind field simulation unit includes: a turbofan single-duct cold and warm air unit, a decorative cover 140, a chassis 104, an ion generator 600 and a humidifier 800. Advantages: Due to the installation structure of the E27 lamp holder, it can be used with a common base for light bulbs, and the installation is flexible. It can be quickly arranged in a multi-point matrix to achieve automatic control of temperature, humidity, light and wind; it can be used at home and in the greenhouse breeding and planting industry to achieve automatic light supplement, humidity supplement, temperature supplement, snow melting, defogging and sterilization, and has huge market potential. In particular, ultra-low temperature and freezing rain in winter are devastating disasters for greenhouse vegetables. If this product is arranged before ultra-low temperature freezing rain, it can prevent disasters.

[0034] Technical highlights: The annular boost air duct 170 is composed of an arc-shaped inner cover 110 and an arc-shaped outer cover 120, wherein the inner cover 110 is flat, the outer cover is raised 120, and an annular cavity that gradually becomes smaller from the inside to the outside is formed between the inner cover 110 and the outer cover 120; wherein an air inlet 101 is arranged at the top of the outer cover 120, and an annular air outlet 102 is arranged at the end of the annular boost air duct 170; wherein a flame retardant bracket 111 is fixed at the center position of the inner cover 110, and a heating unit 500 is arranged above the flame retardant bracket 111; a turbofan unit 210 is arranged above the heating unit 500, wherein the turbofan unit 400 is connected to the outer cover 120; wherein the main control system 400 is connected to the turbofan unit 210 and the heating unit 500. The centrifugal edge wind generated by the turbine 221 is squeezed by the gradually narrowing annular supercharged air duct 170, the wind force is enhanced, the lift is increased, and the peripheral annular wind is formed; the rotating center wind generated by the turbofan 211 is squeezed by the bottleneck center supercharged air duct 150, the wind force is enhanced, the lift is increased, and the stroke center wind; the annular wind and the center wind constitute a comfortable embracing ecological wind field, in which people can be exposed to different types of wind in all directions, and the body feels excellent. Different blowing modes are set to generate natural winds of different forms. The edge centrifugal wind simulates the gentle and graceful canyon wind, and the center rotating wind simulates the passionate beach wind. The heating unit and the humidification unit are set to generate wind fields of different seasons. The heating unit set in the central wind field is used to generate warm spring breeze, and the micro-humidification unit set in the central wind field is used to generate cool autumn breeze. Different types of volatile agents are added to the water tank to generate natural wind fields with different effects. The natural wind field simulation unit is not only for the purpose of blowing and cooling, but also for generating natural wind fields with different effects suitable for all seasons.

[0035] As shown in Figure (1), in winter, turn on the heating unit 500. Functional liquids such as peppermint oil, bacteriostatic agent, air freshener and pure water can be dropped into the water storage tank 801 and mixed to endow it with the functions of aromatherapy, physiotherapy, bacteriostasis and air purification. The evaporation and humidification unit 810 is filled with water by the capillary phenomenon of the evaporation mesh. The scroll fan 211 sucks air from the air inlet 101 and blows air to the heating unit 500 at the central position and the evaporation mesh 811 through the thrust of the scroll fan 211. After being shunted by the arc-shaped inner cover 110, it is further pressurized by the annular pressurizing air duct 170 and ejected forward from the annular air outlet 102. Then there will be a surging and warm high-lift warm wind blowing. A warm and surging surrounding warm air field is generated, and people in it feel like bathing in the sun and spring breeze. In summer, turn off the heating unit 500. Functional liquids such as peppermint oil, bacteriostatic agent, air freshener, mosquito repellent and pure water can be dropped into the water storage tank 801 and mixed to endow it with the functions of aromatherapy, physiotherapy, mosquito repellent, bacteriostasis and air purification. The evaporation and humidification unit 810 is filled with water by the capillary phenomenon of the evaporation mesh. The scroll fan 211 generates central wind through thrust, blows air to the heating unit 500 at the central position and the evaporation mesh 811. After being shunted by the arc-shaped inner cover 110, it is pressurized twice by the annular pressurizing air duct 170 and ejected forward from the annular air outlet 102, generating a refreshing and strong surrounding cool air field. People in it feel like bathing in the cold wind of early autumn, and the cool wind is so pleasant.

[0036] Among them, a humidifier 800 is also provided in the arc-shaped inner cover 110, which includes an evaporation and humidification unit 810 and an ionic atomizer 820. The evaporation and humidification unit 810 is used for micro-humidification and is composed of a water storage tank 801, a capillary evaporation mesh 811 and a water absorption rope 812. A water injection port 802 is provided at the upper part of the water storage tank 801. The capillary evaporation mesh 811 is arranged below the flame-retardant bracket 111. The capillary evaporation mesh 811 is connected with a water absorption rope 812, and the water absorption rope 812 is inserted into the water storage tank 801 through the water injection port 802. The ionic atomizer 820 is arranged at the bottom of the water storage tank 801 and is connected to the main control system 400. The spray port extends out from the water injection port 802 for rapid humidification.

[0037] Among them, the evaporation and humidification unit 810 adopts the capillary water absorption and evaporation function, which is a natural evaporation simulator that makes the air humidity moderate and not dry. When the capillary evaporation mesh 810 absorbs water from the water storage tank 801 through capillary action, it quickly evaporates after being blown by the vortex fan unit 210, cooling and humidifying the surrounding air and filtering the dust in the air. It has the function of slowly releasing working media such as evaporation water, mosquito repellent, air freshener, and bacteriostatic agent. The evaporation mesh is a degreased cotton mesh, and the mesh frame is a heat-resistant plastic. The mesh frame is composed of an upper cover and a lower cover. Functional liquids such as peppermint oil, bacteriostatic agent, air freshener, and mosquito repellent can be dropped into the water storage tank 801 and mixed with pure water to make it have the functions of aromatherapy, physiotherapy, mosquito repellent, bacteriostasis, and air purification. Through the capillary action of the evaporation mesh, the characteristics of slow and continuous absorption and evaporation of the liquid can be achieved, and it has the function of natural slow release, which is energy-saving and efficient.

[0038] Among them, a vertically adjustable thread 160 and a conical decorative cover 140 with a nut are provided at the bottom of the inner cover 110. By adjusting the distance between the conical decorative cover 140 and the inner cover 110, the size and inclination angle of the air outlet can be adjusted, so as to change the wind force, lift, and wind field coverage area. The higher the conical decorative cover 140 rotates upward, the smaller the air outlet, the greater the wind force, and the smaller the blowing area. On the contrary, the lower it rotates, the larger the air outlet, the smaller the wind force, and the larger the blowing area.

[0039] As shown in Figure (2), among them, the heating unit 500 is composed of a PCT heater, a temperature sensor, and a heating control module; it uses PCT warm air heating, which is more efficient and safer. Its heating control module is connected to the temperature sensor and the intelligent control system 410, and can realize intelligent temperature control and timed switch-on and -off functions, making it more convenient and user-friendly. Compared with traditional air conditioners, it has a lower price and is more energy-saving.

[0040] In this example, the heating unit 500 uses a PTC honeycomb heating element and is equipped with a fuse, a thermostat, a temperature sensor, and a sectional switch. The PTC honeycomb heating element is connected to the temperature sensor, the thermostat, and the fuse, so that the PTC honeycomb heating element always operates within the set heating temperature range. When an abnormally high temperature occurs, the fuse melts to cut off the power supply to prevent a fire. In this embodiment, the heating unit 500 is set to 4 groups, each group being 500 watts, and is set to 4 gears according to needs. The first gear is 500 watts, the second gear is 1000 watts, the third gear is 1500 watts, and the fourth gear is 2000 watts, which can be selected by a remote control and is used to form stepped power heating. The thermostat is connected to the PTC honeycomb heating element through the negative pole of the wire and is responsible for controlling the output temperature of the warm air. A temperature sensor is provided at the air outlet, and the maximum output temperature of the warm air is set to 60 °C. When the output warm air exceeds 60 °C, the PTC honeycomb heating element enters intermittent operation. The PTC honeycomb heating element is arranged on a flame-retardant bracket 111, and the material is a high-temperature-resistant material of PBT plus 20% GF.

[0041] As shown in Figure (9), further included is a temperature self-adaptive system 420, which is composed of an intelligent control system 410, a wireless interconnection module 415, and a temperature and humidity sensing module 421. The intelligent control system 410 is connected to the temperature and humidity sensing module 421, the wireless interconnection module 415, and the heating unit 500. The intelligent control system 410 is composed of a detection and control module 411 and a system parameter library 412. In winter, when the intelligent temperature mode needs to be turned on, first set the target temperature value and gear parameters in the system parameter library 412. When the detection and control module 411 detects through the temperature and humidity sensing module 421 that the ambient temperature is lower than the lower limit value of the set target temperature range, the detection and control module 411 automatically generates a heating instruction according to the set target temperature value and gear parameters, and guides the heating unit 500 to work according to the instruction. When the ambient temperature changes, the detection and control module 411 automatically adjusts the output power of the heating unit 500, so that the heating unit 500 always works according to the set target line. When the ambient temperature is higher than the upper limit value of the set target temperature range, the detection and control module 411 automatically generates an instruction to stop working and guides the heating unit 500 to stop working. Finally, the heating unit 500 realizes temperature self-adaptation according to the change of the real-time ambient temperature. The wireless interconnection module 415 is used to be bound to the intelligent control platform through a mobile phone to participate in the intelligent linkage application of more intelligent products. Compared with the timed switch-on and switch-off function of traditional air heater products, the present invention has a more accurate control of the real-time temperature and is especially suitable for the elderly, children, and the sick.

[0042] Since the perceived temperature is highly correlated with wind speed, electric fans are installed even in air-conditioned rooms. However, the functional fan products on the current market have a single function and cannot meet people's needs for the intelligence and automation of fan products. Especially when the fan is turned on at night while people are sound asleep and unattended, it is easy to catch a cold as the indoor temperature gradually drops. If the timing shutdown function is used, the fan may turn off at an inappropriate time, possibly waking people up due to heat and affecting sleep quality. Existing non-intelligent fan products only have a simple timing function and cannot automatically adjust the wind speed and turn on / off according to the real-time changing ambient temperature, which is inconvenient to use and less user-friendly for the elderly and children.

[0043] It also includes a wind speed adaptive system 450, which is composed of a temperature and humidity sensing module 421, a wireless interconnection module 415, and an intelligent control system 410. The intelligent control system 410 is connected to the temperature and humidity sensing module 421, the wireless interconnection module 415, and the scroll fan unit 210. The intelligent control system 410 is composed of a detection and control module 411 and a system parameter library 412. The temperature and humidity sensing module 421 is a commonly used temperature and humidity sensor in the market. The wireless interconnection module 415 uses a Bluetooth chip, and the intelligent control system 410 is set on the Bluetooth chip. The wind speed adaptive technology is the current technology of wind changing with temperature. Specifically, first, set the fan speed gears corresponding to the target interval temperature in the system parameter library 412. Since the invisible fan light in this example has 6 wind force configurations, the instruction program of the wind speed system parameter library is set as follows: when the ambient temperature is less than 23°C, the speed gear is 0 (i.e., standby state); when the ambient temperature is between 24°C and 25°C, the speed gear is 1; when the ambient temperature is between 25°C and 26°C, the speed gear is 2; when the ambient temperature is between 26°C and 27°C, the speed gear is 3; when the ambient temperature is between 27°C and 28°C, the speed gear is 4; when the ambient temperature is between 29°C and 30°C, the speed gear is 5; when the ambient temperature is greater than 31°C, the speed gear is 6.

[0044] Specific application example: In summer, first turn on the intelligent wind mode. When the detection control module 411 reads that the temperature and humidity sensing module 421 detects that the ambient temperature is 24°C, the fan unit falls into the first gear command set by the system, and the system will guide the turbofan unit 210 to enter the first gear operation; when the detection control module 411 reads that the temperature and humidity sensing module 421 detects that the temperature value of the target environment is 27.1°C, the fan unit falls into the fourth gear command set by the system, and guides the turbofan unit 210 to enter the fourth gear operation; when the ambient temperature drops to 26°C, the detection control module 411 automatically makes the turbofan 503 unit enter the second gear state, so that the turbofan unit 210 always operates according to the target line set by the program; when the ambient temperature is lower than the set target temperature of 23°C, the detection control module 411 will guide the turbofan unit 210 to stop working; finally, the turbofan unit 210 realizes wind speed self-adaptation according to the change of the real-time ambient temperature. The wireless interconnection module 415 is used to bind with the intelligent control platform through the mobile phone to participate in the intelligent linkage applications of more intelligent products.

[0045] Definition and setting of the wind speed system parameter library: Usually, people will feel cold when the temperature is below 20 degrees Celsius and there is wind, will feel significantly cool when the temperature is below 23 degrees Celsius and there is wind, will feel relatively comfortable when the temperature is around 24 degrees Celsius with a gentle breeze, will feel a bit hot when the temperature reaches 27 degrees Celsius without wind, will feel significantly stuffy when the temperature rises to 30 degrees Celsius without wind, and will feel unbearably hot when the temperature rises above 32 degrees Celsius without wind. Parameter settings can be made through the remote control and the mobile phone APP.

[0046] In daily life, sometimes there will be situations where people forget to turn on / off or it is inconvenient to turn on / off because they are far away from the remote control. The human body sensing module selects a microwave radar sensor. One or more induction adaptive systems can be selected according to needs to participate in automatic control. Short-range control can be carried out through the remote control and voice servo, and long-range control can be carried out through the mobile phone APP. The human body sensing module selects the microwave radar human presence sensing mode to avoid misjudging as no one when people are not moving.

[0047] Among them, it also includes a human adaptive system, which is composed of a main control system 400, a human body sensing module 441, and an intelligent control system 410. The main control system 400 is connected to the intelligent control system 410. The intelligent control system 410 is composed of a detection and control module 411, a system parameter library 412, and a signal transceiver module 413. When the human automatic switch mode needs to be turned on, first select the working unit to be applied and set the standard parameters of the target dimension through the system parameter library 413. When the detection and control module 411 reads that there is someone in the target environment detected by the human body sensing module 441, the selected working unit will automatically start working according to the preset instructions. When the human body sensing module 441 detects that there is no one in the target environment, the selected working unit will automatically delay and turn off.

[0048] Among them, this example also includes an illuminance adaptive system 430, which is composed of a learning state light source 310, a light sensing module 431, a main control system 400, and an intelligent control system 410. The main control system 400 is connected to the learning state light source 310, and the intelligent control system 410 is connected to the light sensing module 431 and the main control system 400. The intelligent control system 410 is composed of a detection and control module 411, a system parameter library 412, and a signal transceiver module 413. When the intelligent lighting mode needs to be turned on, first set the target illuminance interval value required through the system parameter library 412. When the detection and control module 411 detects that the indoor illuminance is lower than the target illuminance interval value through the light sensing module 421, the detection and control module 411 generates a lighting instruction according to the illuminance index preset in the system parameter library 412, and then sends it to the main control system 410 through the signal transceiver module 413. The main control system 410 guides the learning state light source 310 to work according to the target working line.

[0049] Among them, this example also includes a humidity adaptive system 460, which is composed of a humidifier temperature and humidity sensing module 421 and an intelligent control system 410. The intelligent control system 410 is connected to an ion atomizer 820. The intelligent control system 410 is composed of a detection and control module 411, a system parameter library 412, and a signal transceiver module 413. When the intelligent humidification mode needs to be turned on, first set the standard humidity interval value through the system parameter library 413. When the detection and control module 411 reads that the real-time humidity value of the target environment detected by the temperature and humidity sensing module 421 is less than the set standard interval value, the detection and control module 411 will generate a humidification instruction and guide the ion atomizer 820 to start working. When the detection and control module 411 detects that the real-time humidity value of the target environment exceeds the set standard humidity interval value, the detection and control module 411 will generate a stop humidification instruction and guide the ion atomizer 820 to stop working. Practice has proved that it is most appropriate to set the standard humidity interval value between 45 - 55%.

[0050] Example 2, as shown in Figures (5 - 6, 9), when the present invention is used as a medium-sized hanging vortex pressure range-extending intelligent air conditioner fan, it is composed of a natural wind field simulation unit, mounting thread 106, sensor unit 401, voice unit 700, intelligent control system 410, and main control system 400; the natural wind field simulation unit includes: a dual-vortex hybrid air duct range-extending system, decorative cover 140, chassis 104, heating unit 500, flame-retardant bracket 111, ion generator 600, and humidifier 800. Advantages: Due to the installation structure with an E27 lamp holder, it can be used with a common base for bulbs and used as a multi-functional light source, with flexible installation. Due to the decorative cover with a night light function, design styles and patterns can be designed. When looking up, the bottom of the Tiffany chandelier is not only beautiful but also not dazzling. Due to the multi-modal light source, it can empower the Tiffany lampshade with low light transmittance to meet people's needs for multi-modal lighting, and can achieve automatic control of local temperature, humidity, light, and wind, realizing Internet of Things applications, which is very practical.

[0051] In addition to having all the functions in Example 1, this example also has the following technical points: Among them, the dual-vortex hybrid air duct range-extending system is composed of a dual-vortex unit 200, air inlet 101, annular air outlet 102, annular pressurized air duct 100, and air duct controller 233; the dual-vortex unit 200 includes a motor 201, turbine 221, and vortex fan 211; the diameter of the turbine 221 is larger than that of the vortex fan 211; the air duct controller 233 is sleeved outside the dual-vortex unit 200 and has a cylindrical structure that can slide up and down; the annular pressurized air duct 100 is composed of an arc-shaped inner cover 110 and an arc-shaped outer cover 120. The inner cover 110 is flat, the outer cover 120 is raised, and a circular arc-shaped cavity that gradually becomes smaller from the inside to the outside is formed between the inner cover 110 and the outer cover 120; an air inlet 101 is provided at the top of the arc-shaped outer cover 120, and an annular air outlet 102 is provided at the end of the annular pressurized air duct 170.

[0052] In summer, turn off the heating unit 500. Functional liquids such as peppermint oil, bacteriostatic agent, air freshener, mosquito repellent, etc. can be dropped into the water storage tank 801 and mixed with pure water to endow it with functions of aromatherapy, physiotherapy, mosquito repellent, bacteriostasis and air purification. The evaporation and humidification unit 810 is filled with water through the capillary action of the evaporation mesh. Move the air duct controller 233 to the top and turn on the autumn wind mode. The vortex fan 211 sucks air from the air inlet 101 and blows air to the heating unit 500 at the central position and the evaporation mesh 811 through the thrust of the vortex fan 211. After being shunted by the arc-shaped inner cover 110, it is secondarily pressurized by the annular pressurizing air duct 170 and ejected forward from the annular air outlet 102. Among them, the turbine 221 generates peripheral wind through centrifugal force and is secondarily pressurized by the annular pressurizing air duct 170 and ejected forward from the annular air outlet 102, thus generating a refreshing and strong surrounding cool air field. People in it feel as if they are bathing in the cold wind of early autumn, and the cool wind is very pleasant. As shown in Figure (5), in winter, turn on the heating unit 500. Functional liquids such as peppermint oil, bacteriostatic agent, air freshener can be dropped into the water storage tank 801 and mixed with pure water to endow it with functions of aromatherapy, physiotherapy, bacteriostasis and air purification. The evaporation and humidification unit 810 is filled with water through the capillary action of the evaporation mesh. Move the air duct controller 233 downward to the end and turn on the spring wind mode. The vortex fan 211 generates central wind through thrust and blows air to the heating unit 500 at the central position and the evaporation mesh 811. After being shunted by the arc-shaped inner cover 110, it is secondarily pressurized by the annular pressurizing air duct 170 and ejected forward from the annular air outlet 102. The turbine 221 generates peripheral wind through centrifugal force. Under the guidance of the air duct controller 233, it blows air to the heating unit 500 at the central position and the evaporation mesh 811 instead. After being shunted by the arc-shaped inner cover 110 again, it is secondarily pressurized by the annular pressurizing air duct 170 and ejected forward from the annular air outlet 102, thus generating a warm and surging surrounding warm air field. People in it feel as if they are bathing in the warm spring breeze of the sun.

[0053] The lighting unit 300 includes a learning state light source 310, a decorative state light source 320 and an ambient state light source 330. The learning state light source 310 is arranged around the outer cover 120 to emit light downward, mainly for reading and studying, so a higher brightness is required. In this example, a 120W three-color variable light full-spectrum LED lamp bead is selected. The decorative state light source 320 is arranged around the outer cover 120 to emit light upward, mainly for illuminating the Tiffany lampshade. In this example, a 36W adjustable white light LED lamp bead is selected. The ambient state light source 330 is arranged in the inner cover 110 to emit light downward, mainly for illuminating the picture of the decorative cover and the night light function. A 16W stepless color-changing and variable light dynamic LED lamp bead is selected. The multi-modal light source 300 is connected to the main control system 400.

[0054] Among them, this embodiment further includes a voice unit 700, which is composed of a Bluetooth speaker 702, an AI module, and a pickup 701; the intelligent voice unit 700 is arranged on the chassis 104; the AI module is connected to the intelligent control system 410, and can perform voice switch servo through the pickup 701, and can perform Internet AI conversations through the Bluetooth speaker 702 and the AI module.

[0055] Embodiment 3, as shown in Figures (7-8, 9), when the present invention is used as a medium and large-sized suction and suspension type vortex pressure increased range intelligent air conditioner fan, it is composed of a natural wind field simulation unit 100, a mounting base 107, a sensor unit 401, a voice unit 700, an intelligent control system 410, and a main control system 400; the natural wind field simulation unit 100 includes: a double-vortex double-air duct increased range system, a decorative cover 140, a chassis 104, a heating unit 500, a flame retardant bracket 111, an ion generator 600, and a humidifier 800. Advantages: Due to the double-vortex double-air duct structure, the wind force is stronger, the wrapping property of the wind field is better, and the body feeling is more comfortable; due to the dual-mode light source, it has both learning and ambient lighting functions; due to the large-area semi-transparent decorative cover for designing style patterns, the decorative effect is good, the overall vision is flat, there is no fan blade and bulb structure, the cleanliness is high, and it can realize the automatic control of local temperature, humidity, light, and wind, achieving Internet of Everything, high-end and grand, low-price and practical.

[0056] In addition to having all the functions in Embodiment 1, this embodiment also has the following technical key points: Among them, the double-vortex double-air duct increased range system is composed of a double-vortex unit 200, an air inlet 101, an annular air outlet 102, a central air outlet 103, an annular pressurizing air duct 170, a central pressurizing air duct 150, and an air duct controller 233; the double-vortex unit 200 includes a motor 201, a turbine 221, and a scroll fan 211; the diameter of the turbine 221 is larger than the diameter of the scroll fan 211; the air duct controller 233 is sleeved outside the double-vortex unit 200 and has a cylindrical structure that can slide up and down; the annular pressurizing air duct 170 is composed of an arc-shaped inner cover 110 and an arc-shaped outer cover 120, where the inner cover 110 is flat and the outer cover 120 is raised, and a circular arc-shaped cavity that gradually becomes smaller from the inside to the outside is formed between the inner cover 110 and the outer cover 120; a hole-piercing inverted arc-shaped bottleneck depression is provided in the upper middle part of the inner cover to form the central pressurizing air duct 150; an air inlet 101 is provided at the top of the arc-shaped outer cover 120, an annular air outlet 102 is provided at the end of the annular pressurizing air duct 170; a central air outlet 103 is provided at the end of the central pressurizing air duct 150.

[0057] As shown in Figure (7), in summer, the heating unit 500 is turned off. Functional liquids such as peppermint oil, bacteriostatic agent, air freshener, mosquito repellent, etc. can be dropped into the water storage tank 801 and mixed with pure water to endow it with functions such as aromatherapy, physiotherapy, mosquito repellent, bacteriostasis, and air purification. The evaporation and humidification unit 810 is filled with water through the capillary phenomenon of the evaporation mesh. Move the air duct controller 233 to the top to turn on the autumn wind field. The vortex fan 211 sucks air from the air inlet 101, blows air towards the central position through the thrust of the vortex fan 211, and is ejected forward from the central air outlet 103 after being pressurized by the central pressurizing air duct 150. The turbine 221 generates peripheral wind through centrifugal force and is ejected forward from the annular air outlet 102 after being pressurized twice by the annular pressurizing air duct 170. Thus, a refreshing and strong surrounding cool wind field is generated. People in it feel as if they are bathing in the cool wind of early autumn, and the cool wind makes them feel extremely comfortable. In winter, the heating unit 500 is turned on. Functional liquids such as peppermint oil, bacteriostatic agent, and air freshener can be dropped into the water storage tank 801 and mixed with pure water to endow it with functions such as aromatherapy, physiotherapy, bacteriostasis, and air purification. The evaporation and humidification unit 810 is filled with water through the capillary phenomenon of the evaporation mesh. When the air duct controller 233 is moved downward to the end, the vortex fan 211 generates central wind through thrust and blows air towards the heating unit 500 at the central position and the evaporation mesh 811, and is ejected forward from the central air outlet 103 after being pressurized twice by the central pressurizing air duct 150. The turbine 221 generates peripheral wind through centrifugal force and, under the guidance of the air duct controller 233, blows air towards the heating unit 500 at the central position and the evaporation mesh 811 instead, and is ejected forward from the central air outlet 103 after being pressurized twice by the central pressurizing air duct 150. Thus, a warm and surging surrounding spring wind field is generated. People in it feel as if they are bathing in the warm spring breeze of the sun.

[0058] Among them, this embodiment also includes a voice unit 700, which is composed of a Bluetooth speaker 702, an AI module, and a pickup 701. The intelligent voice unit 700 is arranged on the chassis 104. The AI module is connected to the intelligent control system 410, can perform voice switch servo through the pickup 701, and can perform Internet AI conversations through the Bluetooth speaker 702 and the AI module.

[0059] The above description of the disclosed embodiments enables those skilled in the art to implement or use the present invention. The vortex pressure extended-range air conditioner fan unit defined herein can also be implemented in other types of fan embodiments. Therefore, the present utility model will not be limited to the embodiments shown herein, but will conform to the broadest scope consistent with the principles disclosed herein.

Claims

1. A turbocharged range-extended air conditioning fan unit, comprising a chassis (104), an outer cover (120), a natural wind field simulation unit and a main control system (400); wherein the chassis (104) is arranged around the outer cover (120), the natural wind field simulation unit is arranged inside the outer cover (120), and the main control system (400) is arranged on the chassis (104); characterized in that: The natural wind field simulation unit comprises a twin-vortex unit (200) consisting of a housing, a motor (201), a turbine (221) and a turbofan (211); the turbofan (211) generates a rotating central wind to provide a suction and pull force for the wind field; the turbine (221) generates a centrifugal edge wind to provide a pressure thrust for the wind field; the turbofan (211) is coaxially arranged directly in front of the turbine (221); the diameter of the turbofan (211) is smaller than the diameter of the turbine (221), the turbofan (211) does not block the centrifugal edge wind of the turbine (221), the suction and pull force of the turbofan (211) and the pressure thrust of the turbine (221) jointly move forward and promote each other; the twin-vortex unit (200) is fixed at the center position of the bottom of the outer cover (120); the twin-vortex unit (200) is connected to a main control system (400).

2. The turbo-pressure extended-range air conditioning fan unit according to claim 1, further characterized in that: The natural wind field simulation unit further comprises a dual air duct unit, which is composed of an inner cover (110), an outer cover (120), an air inlet (101), an annular air outlet (102), a central air outlet (103), an annular pressurized air duct (170) and a central pressurized air duct (150); wherein the inner cover (110) is a flat arc-shaped structure, and the outer cover (120) is a high-raised arc-shaped structure, and a space from the inner cover (110) to the outer cover (120) is formed between the inner cover (110) and the outer cover (120). The outer arc-shaped cavity gradually narrows, forming an annular boost air duct (170) for edge wind; wherein an inverted bottleneck depression is provided in the middle and upper part of the inner cover, forming a bottleneck-shaped central boost air duct (150); wherein an air inlet (101) is provided in the upper part of the outer cover (120), and an annular air outlet (102) is provided at the end of the annular boost air duct (170); and a central air outlet (103) is provided at the end of the central boost air duct (150).

3. The turbo-pressure extended-range air conditioning fan unit according to claim 1 is further characterized in that: The natural wind field simulation unit further comprises an air duct controller (233) having a cylindrical structure and capable of sliding up and down; the air duct controller (233) is mounted on the outside of the double vortex unit (200) and is used to control the direction of the centrifugal edge wind of the turbine (221).

4. The turbo-pressure extended-range air conditioning fan unit according to claim 1 is further characterized in that: The natural wind field simulation unit further comprises a twin-vortex mixing air duct unit, which is composed of a twin-vortex unit (200), an air inlet (101), an inner cover (110), an outer cover (120), an annular air outlet (102), an annular supercharging air duct (170), and an air duct controller (233); The twin-vortex unit (200) comprises a motor (201), a turbine (221) and a turbofan (211); wherein the diameter of the turbine (221) is larger than the diameter of the turbofan (211); wherein the air duct controller (233) is mounted outside the twin-vortex unit (200) and is in a cylindrical structure and can slide up and down; wherein the inner cover (110) is in a flat arc structure, and the outer cover (120) is in a high arc structure, and an annular supercharging air duct (170) which gradually becomes smaller from the inside to the outside is formed between the inner cover (110) and the outer cover (120); wherein an air inlet (101) is arranged at the top end of the outer cover (120), and an annular air outlet (102) is arranged at the end of the annular supercharging air duct (170), wherein the twin-vortex unit (200) is fixed at the center position of the bottom of the outer cover (120); wherein the twin-vortex unit (200) is connected to a main control system (400).

5. The turbo-pressure extended-range air conditioning fan unit according to claim 1 is further characterized in that: The natural wind field simulation unit further comprises a turbofan single-duct cooling and heating unit, comprising a turbofan unit (210), an annular pressurized air duct (170), an air inlet (101), an inner cover (110), an outer cover (120), an annular air outlet (102), a flame retardant bracket (111) and a heating unit (500); wherein the inner cover (110) is a flat arc-shaped structure, and the outer cover (120) is a high-rise arc-shaped structure; an annular pressurized air duct (170) which gradually becomes smaller from the inside to the outside is formed between the inner cover (110) and the outer cover (120); wherein the outer cover (120) is provided with a plurality of air inlets (102), an inner cover (110) and an outer cover (120) which are ... 0) is provided with an air inlet (101) at the top end of the annular supercharging air duct (170); an annular air outlet (102) is provided at the end of the annular supercharging air duct (170); a flame retardant bracket (111) is fixed at the center position of the inner cover (110), and a heating unit (500) is provided above the flame retardant bracket (111); a turbofan unit (210) is provided above the heating unit (500); the turbofan unit (210) is fixed at the center position of the bottom of the outer cover (120); and a main control system (400) is connected to the heating unit (500) and the turbofan unit (210).

6. The turbo-pressure extended-range air conditioning fan unit according to claim 1, further characterized in that: It also includes a heating unit (500); a flame retardant bracket (111) is fixed at the center of the inner cover (110), and a heating unit (500) is arranged above the flame retardant bracket (111); the heating unit (500) is connected to the main control system (400); and an ion generator (600) is also arranged on the flame retardant bracket (111) for sterilizing, demisting and purifying the wind field.

7. The turbo-pressure range-extended air conditioning fan unit according to claim 1, further characterized in that: It also includes a humidifier (800) consisting of an evaporative humidification unit (810) and an ion atomizer (820), wherein the evaporative humidification unit (810) is used for daily micro-humidification and consists of a water storage tank (801), a capillary evaporation net (811) and a water absorption rope (812); wherein the water storage tank (801) is arranged in the inner cover (110), wherein a water injection port (802) is arranged at the upper part of the water storage tank (801), wherein the capillary evaporation net (811) is arranged below the flame retardant bracket (111), wherein the capillary evaporation net (811) is connected to the water absorption rope (812), and the water absorption rope (812) is inserted into the water storage tank (801) through the water injection port (802); wherein the ion atomizer (820) is arranged at the bottom of the water storage tank (801) and connected to the main control system (400); wherein the spray port extends from the water injection port (802) for rapid humidification.

8. The turbo-pressure extended-range air conditioning fan unit according to claim 1 is further characterized in that: The bottom of the inner cover (110) is provided with a thread (160) that can be adjusted up and down and a conical decorative cover (140) with a nut. By adjusting the distance between the decorative cover (140) and the inner cover (110), the size and inclination of the air outlet can be adjusted, thereby changing the wind force, lift and wind field coverage area; the decorative cover (140) can be provided with a decorative pattern (141).

9. The turbo-pressure range-extended air conditioning fan unit according to claim 1, further characterized in that: It also includes an intelligent control system (410), wherein the intelligent control system (410) includes at least one of an illumination adaptive system (430), a temperature adaptive system (420), a wind speed adaptive system (450), a humidity adaptive system (460), and a human adaptive system (440); The illumination adaptive system (430) is composed of a lighting unit (300), a light sensing module (431), a main control system (400) and an intelligent control system (410); the main control system (400) is connected to the lighting unit (300), and the intelligent control system (410) is connected to the light sensing module (431) and the main control system (400); The temperature self-adapting system (420) is composed of an intelligent control system (410), a wireless interconnection module (415), and a temperature and humidity sensing module (421); the intelligent control system (410) is connected to the temperature and humidity sensing module (421), the wireless interconnection module (415), and the main control system (400); and the main control system (400) is connected to the heating unit (500); The wind speed self-adaptive system (450) is composed of a temperature and humidity sensing module (421), a wireless interconnection module (415), and an intelligent control system (410); the intelligent control system (410) is connected to the temperature and humidity sensing module (421), the wireless interconnection module (415), and the main control system (400); the main control system (400) is connected to the turbofan unit (210); The humidity self-adapting system (460) is composed of an ion atomizer (820), a temperature and humidity sensing module (421) and an intelligent control system (410); wherein the intelligent control system (410) is connected to the temperature and humidity sensing module (421) and the ion atomizer (820); The person is in the adaptive system (440); the system is composed of a main control system (400), a wireless interconnection module (415), a human body sensing module (441) and an intelligent control system (410); the intelligent control system (410) is connected to the wireless interconnection module (415), the human body sensing module (441) and the main control system (400); and the main control system (400) is connected to the working unit.

10. The turbo-pressure range-extended air conditioning fan unit according to claim 1, further characterized in that: It also includes an AI voice servo system (470), which is composed of a Bluetooth speaker (702), an AI module and a microphone (701); wherein the AI ​​module is connected to the intelligent control system (410), and can perform voice switch servo through the microphone (701), and can perform Internet AI dialogue through the Bluetooth speaker (702) and the AI ​​module.

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