Air conditioning equipment control system and air conditioning equipment

Abstract

The present application relates to the technical field of air conditioning equipment, and in particular to an air conditioning equipment control system and air conditioning equipment. During the operation of the air conditioning equipment, the atomized liquid is transported to the liquid collection bin by a pumping component, and vibration is generated by a vibration component, thereby causing the atomized liquid in the liquid collection bin to drip from the dripping port, and a flashing device provides flashing light to the droplets to present a clear droplet effect. By controlling the pumping parameters, vibration parameters, and light-emitting parameters, the visual effect of the droplets can be controlled, making the visual effect of the droplets richer, thereby reducing the user's aesthetic fatigue. In this way, the air conditioning equipment can achieve richer functions to meet the needs of users.

Description

Technical Field

[0001] The present application relates to the technical field of air conditioning equipment, and in particular to an air conditioning equipment control system and air conditioning equipment. Background Art

[0002] Prolonged exposure to dry air can accelerate skin moisture loss, leading to dryness, itching, flaking, and cracking. An excessively dry environment can also cause dry, sore eyes and irritability. Prolonged exposure to enclosed spaces can lead to feelings of stuffiness, dizziness, and mental fatigue. Poor air quality can severely impact people's lives and work efficiency.

[0003] Air conditioning equipment can effectively alleviate discomfort by regulating ambient humidity and improving air quality. However, single-function air conditioning equipment cannot meet people's ever-increasing lifestyle needs, resulting in low market competitiveness. Some current air conditioning systems often incorporate a water droplet effect, which not only alleviates dryness but also reduces eye fatigue through the visual effect of water droplets.

[0004] However, the current air conditioning equipment with a dripping function can only display a single dripping effect and cannot control the dripping process. In addition, the single dripping effect will cause aesthetic fatigue and is difficult to meet the needs of users.

[0005] It can be seen that how to achieve richer functions for air conditioning equipment is a technical problem that needs to be solved urgently. Summary of the Invention

[0006] The present application provides an air conditioning equipment control system and air conditioning equipment, which are intended to solve the technical problem of how to achieve more abundant functions of air conditioning equipment in the prior art.

[0007] The present application provides an air conditioning equipment control system, comprising:

[0008] A liquid collecting bin, the liquid collecting bin is used to collect the atomized liquid, and the liquid collecting bin is provided with a dripping port;

[0009] a vibration component, the vibration component being used to generate vibration to cause the atomized liquid in the liquid collecting bin to drip from the dripping port;

[0010] A pumping assembly, the pumping assembly being used to deliver atomized liquid to the liquid collecting bin;

[0011] a flash device, the flash device being used to provide flashing light to the liquid droplets dripping from the dripping port;

[0012] a pump control unit, the pump control unit being used to control pumping parameters of the pumping assembly;

[0013] A vibration control unit, the vibration control unit being used to control vibration parameters of the vibration component;

[0014] A light control unit, configured to control light-emitting parameters of the flash device;

[0015] A control unit is configured to send a control instruction to at least one of the pump control unit, the vibration control unit or the light control unit according to relevant instructions or signals.

[0016] Optionally, the vibration parameter includes a vibration frequency, and the light emitting parameter includes a flashing frequency;

[0017] Let the vibration frequency be H1 and the flickering frequency be H2, then 1%≤|(H2-H1) / H2|≤5%.

[0018] Optionally, the flashing frequency is configured as: 50 Hz ≤ H2 ≤ 70 Hz.

[0019] Optionally, the related instructions include: reverse flow instruction, forward flow instruction, standstill instruction, acceleration instruction, and deceleration instruction;

[0020] The vibration parameter includes vibration frequency, and the light emitting parameter includes flickering frequency;

[0021] If the control unit receives the reverse flow instruction, the control unit sends a control instruction to the vibration control unit and the light control unit to make the flashing frequency greater than the vibration frequency;

[0022] If the control unit receives the positive flow instruction, the control unit sends a control instruction to the vibration control unit and the light control unit to make the flashing frequency lower than the vibration frequency;

[0023] If the control unit receives the stillness instruction, the control unit sends a control instruction to the vibration control unit and the light control unit so that the flashing frequency is equal to the vibration frequency;

[0024] If the control unit receives the acceleration instruction, the control unit sends a control instruction to the vibration control unit and the light control unit to increase the difference between the flashing frequency and the vibration frequency;

[0025] If the control unit receives the deceleration instruction, the control unit sends a control instruction to the vibration control unit and the light control unit to reduce the difference between the flashing frequency and the vibration frequency.

[0026] Optionally, the pumping parameters include the flow rate of the pumping assembly, and the vibration parameters include vibration frequency and amplitude;

[0027] The flow rate maintains a positive correlation with both the vibration frequency and the vibration amplitude.

[0028] Optionally, the related instructions include: a droplet enlargement instruction and a droplet reduction instruction;

[0029] The vibration parameters include amplitude;

[0030] If the control unit receives a droplet enlargement instruction, the control unit sends a control instruction to the vibration control unit to increase the amplitude;

[0031] If the control unit receives a liquid drop reduction instruction, the control unit sends a control instruction to the vibration control unit to reduce the amplitude.

[0032] Optionally, the air conditioning equipment control system provided by the present application further includes:

[0033] A liquid storage tank, the liquid storage tank is used to load the atomized liquid;

[0034] an atomizing assembly, the atomizing assembly being used to atomize the atomizing liquid to form mist;

[0035] A light projecting device, the light projecting device is used to provide projection light to the fog;

[0036] A fan device, the fan device is used to transport the mist outward;

[0037] A mist control unit, which is used to control the operating parameters of the atomization assembly;

[0038] A light control unit, configured to control parameters of the projected light;

[0039] a wind control unit, the wind control unit being used to control the operating parameters of the fan device;

[0040] Wherein, the light projection device emits projection light from the inside of the mist outlet to the outside of the mist outlet;

[0041] The projection light provided by the light-projecting device and the flashing light provided by the flashing device have the same flashing frequency;

[0042] The control unit is configured to send a control instruction to at least one of the pump control unit, the vibration control unit, the light control unit, the fog control unit, the light control unit or the wind control unit according to relevant instructions or signals.

[0043] Optionally, the related instructions include: an instruction to increase the flame range, an instruction to decrease the flame range, an instruction to increase the flame clarity, an instruction to decrease the flame clarity, an instruction to increase the flame brightness, and an instruction to decrease the flame brightness;

[0044] The operating parameters of the atomizing assembly include the atomizing amount, the operating parameters of the fan device include the wind speed, and the parameters of the projected light include the brightness of the projected light;

[0045] If the control unit receives the instruction to increase the flame range, the control unit sends a control instruction to the wind control unit to increase the wind speed;

[0046] If the control unit receives the instruction to reduce the flame range, the control unit sends a control instruction to the wind control unit to reduce the wind speed;

[0047] If the control unit receives the flame clarity increase instruction, the control unit sends a control instruction to the mist control unit to increase the atomization amount;

[0048] If the control unit receives the flame clarity reduction instruction, the control unit sends a control instruction to the mist control unit to reduce the atomization amount;

[0049] If the control unit receives the flame brightness increase instruction, the control unit sends a control instruction to the light control unit to increase the brightness of the projected light;

[0050] If the control unit receives the instruction to reduce the flame brightness, the control unit sends a control instruction to the light control unit to reduce the brightness of the projected light.

[0051] Optionally, the air conditioning equipment control system provided by the present application further includes:

[0052] An audio module, configured to play audio;

[0053] The control unit is configured to send a control instruction to at least one of the pump control unit, the vibration control unit, the light control unit, the fog control unit, the light control unit or the wind control unit according to the audio signal of the audio module.

[0054] On the other hand, the present application also provides an air conditioning device, including the air conditioning device control system.

[0055] The beneficial effects achieved by this application are as follows: during the operation of the air conditioning equipment, the pumping assembly delivers atomized liquid to the liquid collection chamber, and the vibration assembly generates vibrations, thereby causing the atomized liquid in the liquid collection chamber to drip from the dripping port. The flashing device provides flashing light to the droplets, thereby presenting a clear droplet effect. By controlling the pumping parameters, vibration parameters, and luminous parameters, the visual effect of the droplets can be controlled, making the visual effect of the droplets richer, thereby reducing the user's aesthetic fatigue. In this way, the air conditioning equipment can achieve more diverse functions and meet the needs of users. BRIEF DESCRIPTION OF THE DRAWINGS

[0056] Figure 1 is a schematic diagram of the three-dimensional structure of an air conditioning device in an embodiment of the present invention;

[0057] Figure 2 is a perspective cross-sectional view of an air conditioning device according to an embodiment of the present invention;

[0058] Figure 3 In the embodiment of the present invention Figure 2 Magnified view at point A in the middle;

[0059] Figure 4 It is a module structure block diagram of the air conditioning equipment control system in an embodiment of the present invention.

[0060] Description of main unit symbols:

[0061] 10. Air conditioning equipment; 20. Mist supply device; 21. Liquid storage tank; 22. Atomizing assembly; 23. Lighting device; 24. Fan device; 30. Background component; 31. Mist outlet; 32. Background column; 40. Liquid dripping device; 41. Liquid supply device; 411. Generating assembly; 412. Liquid collection tank; 413. Liquid dripping port; 414. Vibrating assembly; 415. Pumping assembly; 42. Flashing device; 421. Lamp beads; 50. Air conditioning equipment control system; 51. Pump control unit; 52. Vibrating control unit; 53. Light control unit; 54. Mist control unit; 55. Light control unit; 56. Wind control unit; 57. Control unit; 60. Audio module; DETAILED DESCRIPTION

[0062] In order to make the purpose, technical solutions and advantages of the present invention more clearly understood, the present invention is further described in detail below with reference to the accompanying drawings and embodiments. Examples of the embodiments are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar units or units with the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are only used to explain the present invention, and are not to be construed as limiting the present invention. In addition, it should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.

[0063] In the description of the present invention, it should be understood that the terms "length", "width", "up", "down", "left", "right", "horizontal", "top", "bottom", etc., indicating the orientation or position relationship, are based on the orientation or position relationship shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or unit referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation on the present invention.

[0064] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of the technical features being referred to. Thus, features defined as "first" or "second" may explicitly or implicitly include one or more of the described features. In the description of the present invention, "plurality" means two or more, unless otherwise specifically defined.

[0065] In the description of the present invention, it should be noted that, unless otherwise expressly specified or limited, the terms "installed," "connected," and "connected" should be understood in a broad sense. For example, they can refer to fixed connections, detachable connections, or integral connections; they can refer to mechanical connections, electrical connections, or mutual communication; they can refer to direct connections or indirect connections through an intermediate medium; they can refer to internal communication between two units or interaction between two units. Those skilled in the art will understand the specific meanings of the above terms in the present invention based on specific circumstances.

[0066] In the present invention, unless otherwise expressly specified or limited, a first feature being "above" or "below" a second feature may include the first and second features being in direct contact, or may include the first and second features being in contact not directly but through another feature between them. Furthermore, a first feature being "above," "above," and "above" a second feature may include the first feature being directly above or obliquely above the second feature, or may simply mean that the first feature is higher in level than the second feature. A first feature being "below," "below," and "below" a second feature may include the first feature being directly below or obliquely below the second feature, or may simply mean that the first feature is lower in level than the second feature.

[0067] The disclosure below provides many different embodiments or examples for realizing different structures of the present invention. In order to simplify the disclosure of the present invention, the components and settings of specific examples are described below. Of course, they are merely examples and are not intended to limit the present invention. In addition, the present invention may repeat reference numerals and / or reference letters in different examples. Such repetition is for the purpose of simplicity and clarity and does not in itself indicate the relationship between the various embodiments and / or settings discussed. In addition, the present invention provides examples of various specific processes and materials, but those skilled in the art will appreciate the application of other processes and / or the use of other materials.

[0068] See also Figures 1 to 3 In some embodiments of the present application, an air conditioning device 10 with visual effects is provided, comprising: a mist supply device 20, a light projection device 23, a background element 30, and a liquid dropper 40. The mist supply device 20 is used to provide mist. The light projection device 23 is used to project light onto the mist. The background element 30 is used to reflect the mist projected with light, and the first color of at least the side of the background element 30 facing the mist is different from the second color of the mist after the projected light is projected. The liquid dropper 40 is used to achieve the visual effect of liquid droplets.

[0069] It is understood that mist is provided by the mist supply device 20 to adjust the humidity of the ambient space. Light is projected into the mist by the light projection device 23, causing the liquid droplets in the mist to refract and reflect the projected light, thereby creating a luminous visual effect. The background element 30 acts as a contrast to eliminate the effect of surrounding objects on the luminous effect of the mist.

[0070] By creating a difference between the first color of the background element 30 and the second color of the mist after being projected with light, the luminous effect of the mist is more pronounced. As the mist drifts into the surrounding space, the droplets within the mist drift due to the influence of airflow, creating the visual effect of flames. The contrast and color combination of the background element 30 make the visual effect of the flames more vivid, distinct, and three-dimensional.

[0071] The visual effect of liquid droplet movement of the air conditioning equipment 10 is achieved by the liquid dripping device 40 , further enriching the visual special effect function of the air conditioning equipment 10 .

[0072] In this way, while adjusting the ambient humidity through the air conditioning device 10 provided by the present application, a vivid and three-dimensional flame effect is presented, thereby enhancing the market competitiveness of the air conditioning device 10.

[0073] It will be appreciated that the second color is formed by factors including the color of the mist and the color of the projected light. Under normal circumstances, the atomized liquid is transparent, so without projecting light of a specific color, the mist is typically white. When light is projected onto the mist by the light projection device 23, the mist takes on the color of the projected light. For example, when the projected light is orange, the mist becomes orange, indicating that the second color is orange. In this case, the first color can be configured as dark blue or black to create a difference between the first and second colors. In this case, the second color of the mist, against the backdrop of the first-colored background 30, creates a more distinct and three-dimensional color effect. Under the influence of airflow, the mist creates a fluttering effect, resulting in a fluttering color effect. When orange light is projected onto the mist, the airflow creates an orange fluttering effect, creating a dynamic visual effect of a fluttering flame. Against the backdrop of the dark blue or black background 30, the flames appear more vivid, distinct, and three-dimensional.

[0074] The visual effects of liquid droplets created by the liquid dripping device 40 can be achieved by controlling light and liquid flow parameters to produce visual effects such as droplets dripping downward, droplets moving upward, and droplets hovering. The liquid dripping device 40 can form multiple groups of droplets in rows, and the droplet frequency of each group of droplets can be individually controlled to achieve a desired visual effect. This enriches the visual effects of the air conditioning system 10 and improves the user experience.

[0075] By combining the droplet visual effect with the flame visual effect, the air conditioning device 10 can present a richer visual effect.

[0076] In some embodiments of the present application, the background member 30 is provided with a mist outlet 31 and background columns 32. The mist outlet 31 is used to provide a channel for mist to be discharged. There are at least two background columns 32, which are dispersed around the mist outlet 31. The side of all background columns 32 facing the mist outlet 31 is configured as the first color.

[0077] It can be understood that by surrounding multiple background columns 32, the background columns 32 circumferentially reflect the mist mixed with the projected light, so that the flame effect produced by the mist can present a vivid and obvious visual effect from all directions, and make the visual effect of the flame more three-dimensional and vivid.

[0078] In some embodiments of the present application, the first color is darker than the second color.

[0079] It is understood that if the first color and the second color are the same, the mist mixed with the projected light will visually blend with the background 30, resulting in a less distinct and unclear visual effect of the flames. If the first color is lighter than the second color, the mist mixed with the projected light will be visually significantly affected by surrounding objects, thereby reducing the contrast effect of the background 30 on the mist mixed with the projected light, further affecting the visual effect of the flames. By making the first color darker than the second color, there is a color difference between the mist mixed with the projected light and the background 30, and the lighter-colored mist mixed with the projected light is more prominent and has a clearer outline against the darker-colored background 30, thereby making the mist mixed with the projected light more visible and prominent against the dark background.

[0080] Among them, the depth of color can be the level of light and dark color, or the level of dark and light color.

[0081] In some embodiments of the present application, the first color gradually becomes lighter in a direction away from the mist outlet 31 .

[0082] Mist drifts outward from the mist outlet 31, and the light projection device 23 causes projected light to be emitted outward from the mist outlet 31, thereby causing both the projected light and mist to be emitted from the mist outlet 31, thereby presenting the visual effect of flames emanating from the mist outlet 31. By gradually fading the first color away from the mist outlet 31, the mist mixed with the projected light becomes more prominent and visible against the background member 30 near the mist outlet 31, while the portion farther from the mist outlet 31 becomes more blurred and transparent, thereby making the visual effect of the flames more realistic, three-dimensional, and vivid.

[0083] It is understandable that, because fog has a certain degree of light transmittance, it is easily affected by the surrounding environment. The background element 30 serves as a contrast, thereby preventing the user from observing surrounding objects through the fog and preventing light from the surrounding environment from affecting the projected light in the fog. When observing the fog, the user can see the background element 30 through the fog. The background element 30 is darker in color, thus highlighting the fog, making the fog mixed with the projected light more obvious and prominent against the background element 30. The first color gradually becomes lighter as it moves away from the fog outlet 31, so that the color observed by the user through the fog also gradually becomes lighter as it moves away from the fog outlet 31. The color of the fog observed by the user gradually becomes lighter as it moves away from the fog outlet 31, and the visual effect of the fog gradually becomes blurred and transparent, thereby more consistent with the visual effect of flames, making the visual effect of the flames more realistic, three-dimensional, and vivid.

[0084] See also Figure 2 In some embodiments of the present application, the dripping device 40 is located above the mist outlet 31 .

[0085] It is understandable that the dripping device 40 is located above the mist outlet 31 , so that the farther the first color is from the mist outlet 31 , the lighter its color becomes, that is, the closer it is to the dripping device 40 , the lighter its color becomes.

[0086] The dripping device 40 circulates the atomized liquid to form droplets. The atomized liquid is usually transparent, so the droplets are also usually transparent. A dark background will make the outline of the transparent droplets less obvious, which in turn makes the droplets appear less noticeable against the dark background. However, the visual effect of the flame requires a dark background to be more prominent. Therefore, configuring the first color as a gradient color can make the visual effect of the flame more obvious while also making the visual effect of the droplets more obvious.

[0087] See also Figures 2 to 3 In some embodiments of the present application, the liquid dripping device 40 includes a liquid supply device 41 and a flashing device 42. The liquid supply device 41 is used to provide dripping liquid droplets. The flashing device 42 is used to provide flashing light to the liquid droplets. The dropping frequency of the liquid droplets and the flashing frequency of the flashing light are both adjustable.

[0088] The liquid supply device 41 provides the falling droplets, and the flash device 42 provides a flashing light to the droplets. The flashing light is created by turning the light source on and off. When the light source is on, the light shines on the droplets, making them appear bright and allowing the user to clearly observe the droplets. When the light source is off, no additional light shines on the droplets, making them indistinct and creating a discontinuous visual effect. Thus, under the illumination of the flashing light, the visual effect of the droplets is created.

[0089] The dynamic effect of the droplet visual effect can be controlled by controlling the dripping frequency of the droplet and the flashing frequency of the flashing light.

[0090] It is understandable that when the light source is on, the human eye will observe obvious droplets; when the light source is off, the droplets have already fallen a certain distance; when the light source is turned on again, the human eye will observe obvious droplets again. Due to the persistence of vision effect, the droplets observed previously will not disappear immediately, causing the image of the droplets to remain in the human brain for a period of time. Therefore, when the light source is turned on again, there will be two images of the same droplet in the human brain: one is the phantom image of the droplet that has not disappeared, and the other is the real image of the droplet that has reappeared.

[0091] When the flickering frequency is greater than the dripping frequency: Since the flickering frequency is greater than the dripping frequency, the time interval between two consecutive light-up times of the light source will be shorter than the time interval between adjacent droplets moving to the same position. Therefore, the droplets are observed before they reach the expected position of the human brain, causing the human brain to mistakenly believe that the droplets are moving upward. Under the continuous flickering of the flickering light, the human brain will have the illusion of continuous backward flow of the droplets, forming a visual effect of droplets flowing backward against gravity. Among them, the droplet position expected by the human brain is the position of the image left by the previous droplet in the human brain. That is, when the flickering frequency is greater than the dripping frequency, the next droplet will be observed before the phantom image of the previous droplet, resulting in the visual effect of droplets flowing backward against gravity.

[0092] When the flickering frequency is equal to the dripping frequency: Since the flickering frequency is equal to the dripping frequency, the time interval between two consecutive lighting of the light source will be equal to the time interval between adjacent droplets moving to the same position. Therefore, the droplets are observed just when they reach the expected position of the human brain, causing the human brain to mistakenly believe that the droplets are stationary. Even if the flickering light keeps flickering and the droplets flow continuously, the human brain will still only have the illusion that the droplets stay in a cluster. The greater the flickering frequency and dripping frequency, the smaller the distance between the droplet images in the human brain. Among them, the droplet position expected by the human brain is the image position left by the previous droplet in the human brain. That is, when the flickering frequency is equal to the dripping frequency, the next droplet will be observed at the position of the phantom image of the previous droplet, resulting in the visual effect of droplets staying in a cluster.

[0093] When the flickering frequency is less than the dripping frequency: Because the flickering frequency is less than the dripping frequency, the interval between two consecutive light source lightings will be longer than the interval between adjacent droplets moving to the same position. Therefore, the droplets are not observed until they pass the position expected by the human brain, making the human brain think that the droplets are moving downward. Under the continuous flickering of the flickering light, the human brain will have the feeling of continuous falling droplets, forming the visual effect of droplets dripping in a string. Among them, the droplet position expected by the human brain is the position of the image left by the previous droplet in the human brain. That is, when the flickering frequency is less than the dripping frequency, the next droplet will be observed after the phantom image of the previous droplet, resulting in the visual effect of droplets dripping in a string.

[0094] In some embodiments of the present application, the projection light provided by the light projection device 23 and the flashing light provided by the flash device 42 have the same color and flashing frequency.

[0095] It is understood that the projected light is used to create a flame-like visual effect in the mist, while the flickering light is used to create a droplet-like visual effect in the atomized liquid. If the color of the flickering light is inconsistent with the color of the projected light, the color of the flickering light will affect the visual effect of the flame when both are activated simultaneously. If the frequency of the projected light is inconsistent with the frequency of the flickering light, the projected light will affect the visual effect of the droplets when both are activated simultaneously. By ensuring that the color and flickering frequency of the projected light and the flickering light are the same, a good visual effect of both flames and droplets can be achieved.

[0096] Since there is a certain frequency in the process of mist dispersing from the mist outlet 31, by controlling the frequency of the projected light, there is a certain difference between the frequency of the projected light and the frequency of the mist movement, thereby presenting a more vivid visual effect of flame fluttering.

[0097] In some embodiments of the present application, the mist supply device 20 includes a liquid reservoir 21 and an atomizing assembly 22. The liquid reservoir 21 is used to store atomized liquid, and the atomizing hole 31 is fluidically connected to the liquid reservoir 21. The atomizing assembly 22 is used to atomize the atomized liquid. The liquid supply device 41 includes a generating assembly 411 and a pumping assembly 415. The generating assembly 411 is used to generate droplets. The pumping assembly 415 is used to transport the atomized liquid from the liquid reservoir 21 to the generating assembly 411. The droplets fall into the atomizing hole 31.

[0098] The liquid storage tank 21 is used to load the atomized liquid, and the atomizing assembly 22 atomizes the atomized liquid, and the generated mist is dispersed from the mist outlet 31. The light projection device 23 projects light from inside the mist outlet 31 to the outside of the mist outlet 31, thereby making the mist present a flame effect.

[0099] The atomized liquid in the liquid storage tank 21 is transported to the generating component 411 through the pumping component 415, so that the generating component 411 can continuously generate droplets, and the droplets form the expected dynamic visual effect of droplets under the illumination of the flashing light.

[0100] By allowing the droplets to fall into the mist outlet 31 and flow back from the mist outlet 31 to the liquid storage tank 21, a circulation of the atomized liquid is formed, ensuring the continuity of the visual effects of the flame and the droplets. By allowing the atomized liquid to circulate, the substances in the atomized liquid are always kept in a uniform state, thereby ensuring the uniform atomization of the various substances in the atomized liquid.

[0101] In some embodiments of the present application, the height of the liquid inlet of the pumping assembly 415 is set to be higher than the bottom height of the liquid storage tank 21.

[0102] By making the height of the liquid inlet of the pumping assembly 415 higher than the bottom height of the liquid storage tank 21, even when the level of the atomized liquid is lower than the level of the liquid inlet of the pumping assembly 415, there is still atomized liquid in the liquid storage tank 21 for atomization. When the level of the atomized liquid is lower than the level of the liquid inlet of the pumping assembly 415, the pumping assembly 415 can no longer provide atomized liquid to the generating assembly 411, and at this time, the visual effect of forming droplets stops. In this way, if no droplets are formed without controlling the cessation of droplet generation, it indicates that the liquid level in the liquid storage tank 21 is too low, and the user is prompted to replenish the atomized liquid, so that the misting function of the air conditioning device 10 can be continuously and effectively performed.

[0103] In some embodiments of the present application, the generating assembly 411 includes a liquid collecting chamber 412 and a vibration assembly 414. The liquid collecting chamber 412 is fluidically connected to the pumping assembly 415, and the liquid collecting chamber 412 is provided with a dripping port 413. The vibration assembly 414 is used to generate vibrations to cause the liquid in the liquid collecting chamber 412 to drip from the dripping port 413.

[0104] After the pumping assembly 415 pumps the atomized liquid to the generating assembly 411, the atomized liquid is collected by the liquid collecting chamber 412. The vibrating assembly 414 vibrates the liquid collecting chamber 412, causing the atomized liquid to drip from the dripping port 413 of the liquid collecting chamber 412, thereby generating droplets. By controlling the vibration frequency of the vibrating assembly 414, the frequency of the droplet dripping can be controlled.

[0105] It is understandable that, due to the presence of a certain tension on the surface of the atomized liquid, by designing the size and shape of the dripping port 413, it is possible to ensure that the atomized liquid does not drip from the dripping port 413 in the absence of an external force, or even if the atomized liquid can drip from the dripping port 413 by its own weight, under the vibration of the vibration component 414, the dripping pattern of the atomized liquid can still match the vibration pattern of the vibration component 414. When the tension of the atomized liquid is sufficient to ensure that the atomized liquid does not drip from the dripping port 413 in the absence of an external force, the vibration component 414 drives the liquid collecting chamber 412 to vibrate, thereby causing the atomized liquid to drip from the dripping port 413 due to the vibration, and thus the dripping pattern of the atomized liquid can be controlled by controlling the vibration pattern of the vibration component 414.

[0106] In some embodiments of the present application, the flash device 42 is provided with at least three lamp beads 421. The lamp beads 421 are arranged in a circular array along the center of the dripping port 413.

[0107] At least three lamp beads 421 provide flashing light to the droplets from a circumferential direction, so that when the droplets are observed from all directions, the cleaned droplet shapes can be seen, making the visual effect of the droplets more three-dimensional, vivid and vivid.

[0108] In some embodiments of the present application, the lamp bead 421 contacts the outer wall of the liquid collecting chamber 412 .

[0109] The atomized liquid in the liquid collecting bin 412 circulates, and the heat generated when the lamp bead 421 emits light is absorbed by the atomized liquid by making the lamp bead 421 contact the outer wall of the liquid collecting bin 412. On the one hand, the lamp bead 421 is cooled by the atomized liquid to avoid overheating of the lamp bead 421 and reduce the failure rate of the lamp bead 421 to extend the service life of the lamp bead 421. On the other hand, the energy contained in the atomized liquid is increased, and the atomized liquid is preliminarily activated. When the atomized liquid returns to the liquid storage bin 21, the activated atomized liquid can be more efficiently atomized by the atomizing component 22, thereby improving the atomization effect and making the liquid droplets in the mist more uniform and dense, thereby improving the humidification effect of the air conditioning equipment 10 and making the visual effect of the flame softer, more vivid and three-dimensional.

[0110] See also Figure 4 In some embodiments of the present application, an air conditioning equipment control system 50 provided by the present application includes: a liquid storage tank 21, an atomizing component 22, a light projection device 23, a fan device 24, a fog control unit 54, a light control unit 55 and a wind control unit 56. The liquid storage tank 21 is used to load the atomizing liquid. The atomizing component 22 is used to atomize the atomizing liquid to form mist. The light projection device 23 is used to provide projection light to the mist. The fan device 24 is used to transport the mist outward. The fog control unit 54 is used to control the operating parameters of the atomizing component 22. The light control unit 55 is used to control the parameters of the projection light. The wind control unit 56 is used to control the operating parameters of the fan device 24. Among them, the light projection device 23 emits projection light from the inside of the mist outlet to the outside of the mist outlet. The projection light provided by the light projection device 23 has the same flashing frequency as the flashing light provided by the flash device 42. The control unit 57 is configured to send a control instruction to at least one of the fog control unit 54, the light control unit 55 or the wind control unit 56 according to relevant instructions or signals.

[0111] Understandably, see Figures 1 to 4, the atomized liquid is loaded through the liquid storage tank 21, the atomized liquid is atomized through the atomizing assembly 22, and the air flow is generated by the fan device 24 to disperse the generated mist from the mist outlet 31. The light projection device 23 provides projection light from the inside of the mist outlet 31 to the outside of the mist outlet 31 to the mist, so that the mist presents a flame effect. The operating parameters of the atomizing assembly 22 are controlled by the fog control unit 54, thereby controlling the amount of mist generated. The working parameters of the light projection device 23 are controlled by the light control unit 55, thereby controlling the brightness, color, color temperature, flickering frequency and other parameters of the projected light. The operating parameters of the fan device 24 are controlled by the wind control unit 56, thereby controlling the wind speed, wind direction and other parameters of the airflow sent out from the fan device 24. By making the frequency of the flickering light equal to that of the projected light, the projected light is prevented from affecting the visual effect of the droplet movement, and while achieving the visual effect of the flame, a good visual effect of the droplet movement is guaranteed.

[0112] When the control unit 57 receives the control instruction, it sends a control instruction to at least one of the fog control unit 54, the light control unit 55 or the wind control unit 56 according to the instruction signal to control the range, clarity, brightness and other parameters of the flame visual effect.

[0113] In some embodiments of the present application, the relevant instructions include: increasing flame range instructions, decreasing flame range instructions, increasing flame clarity instructions, decreasing flame clarity instructions, increasing flame brightness instructions, and decreasing flame brightness instructions. The operating parameters of the atomizing assembly 22 include atomization volume, the operating parameters of the fan device 24 include wind speed, and the parameters of the projected light include projected light brightness. If the control unit 57 receives an instruction to increase the flame range, the control unit 57 sends a control instruction to the wind control unit 56 to increase the wind speed; if the control unit 57 receives an instruction to reduce the flame range, the control unit 57 sends a control instruction to the wind control unit 56 to reduce the wind speed; if the control unit 57 receives an instruction to increase the flame clarity, the control unit 57 sends a control instruction to the fog control unit 54 to increase the atomization amount; if the control unit 57 receives an instruction to reduce the flame clarity, the control unit 57 sends a control instruction to the fog control unit 54 to reduce the atomization amount; if the control unit 57 receives an instruction to increase the flame brightness, the control unit 57 sends a control instruction to the light control unit 55 to increase the brightness of the projected light; if the control unit 57 receives an instruction to reduce the flame brightness, the control unit 57 sends a control instruction to the light control unit 55 to reduce the brightness of the projected light.

[0114] It is understood that when the wind speed increases, the airflow generated by the fan device 24 can carry the mist to a greater distance, thereby expanding the diffusion range of the mist and, in turn, increasing the range of the flame in the visual effect. It should be noted that under the same mist volume conditions, the mist will spread to a wider range due to the increase in wind speed, causing the mist to appear thinner visually, making the visual effect of the flame more transparent, and thus reducing the clarity of the flame. In this case, the mist control unit 54 can control the atomization assembly 22 to increase the atomization volume, thereby making the mist thicker and ensuring the clarity of the flame.

[0115] As the wind speed decreases, the fog's spread decreases, reducing the visual effect's flame range.

[0116] By increasing the brightness of the projected light, the brightness of the light mixed with the fog is made stronger, thereby increasing the brightness of the flame in the visual effect; conversely, by reducing the brightness of the projected light, the brightness of the light mixed with the fog is reduced, thereby reducing the brightness of the flame in the visual effect.

[0117] When the atomization amount increases, the mist emitted from the mist outlet 31 becomes thicker, thereby reducing the transparency of the mist, allowing the projected light to refract and reflect between more mist droplets, making the mist appear clearer, thereby improving the clarity of the flame in the visual effect. Conversely, when the atomization amount decreases, the mist emitted from the mist outlet 31 becomes thinner, thereby increasing the transparency of the mist, allowing the projected light to refract and reflect between fewer mist droplets, making the mist appear unclear, thereby reducing the clarity of the flame in the visual effect.

[0118] The user can clearly understand the humidification amount of the air-conditioning equipment 10 and the diffusion range of the mist during humidification through visual effects such as flame clarity, flame range, and flame brightness, thereby providing a vivid flame visual effect while indicating the humidification amount of the air-conditioning equipment 10 and the diffusion range of the mist through the visual shape of the flame.

[0119] See also Figure 4In some embodiments of the present application, the present application provides an air conditioning equipment control system 50, comprising: a liquid collection tank 412, a vibration component 414, a pumping component 415, a flashing device 42, a pump control unit 51, a vibration control unit 52, a light control unit 53, and a control unit 57. The liquid collection tank 412 is used to collect atomized liquid, and the liquid collection tank 412 is provided with a dripping port 413. The vibration component 414 is used to generate vibrations to cause the atomized liquid in the liquid collection tank 412 to drip from the dripping port 413. The pumping component 415 is used to transport the atomized liquid to the liquid collection tank 412. The flashing device 42 is used to provide flashing light to the liquid droplets dripping from the dripping port 413. The pump control unit 51 is used to control the pumping parameters of the pumping component 415. The vibration control unit 52 is used to control the vibration parameters of the vibration component 414. The light control unit 53 is used to control the lighting parameters of the flashing device 42. The control unit 57 is configured to send a control instruction to at least one of the pump control unit 51 , the vibration control unit 52 or the light control unit 53 according to relevant instructions or signals.

[0120] During operation of the air conditioning device 10, the atomized liquid is transported to the liquid collection chamber 412 via the pumping assembly 415, and the vibration assembly 414 generates vibrations, causing the atomized liquid in the liquid collection chamber 412 to drip from the dripping port 413. The flashing device 42 provides a flashing light to the droplets, creating a clear droplet effect. By controlling the pumping parameters, vibration parameters, and lighting parameters, the visual effect of the droplets can be controlled, making the visual effect richer and reducing the user's aesthetic fatigue. In this way, the air conditioning device 10 achieves more comprehensive functions to meet the needs of users.

[0121] In some embodiments of the present application, the control unit 57 is configured to send control instructions to at least one of the pump control unit 51, the vibration control unit 52, the light control unit 53, the fog control unit 54, the light control unit 55 or the wind control unit 56 according to relevant instructions or signals.

[0122] By controlling the flame visual effect and the droplet visual effect in a linked manner, the air conditioning device 10 can display richer visual forms, realize richer functions of the air conditioning device 10, and meet the needs of users.

[0123] In some embodiments of the present application, the vibration parameter includes the vibration frequency, and the light emitting parameter includes the flickering frequency. Let the vibration frequency be H1 and the flickering frequency be H2, then 1%≤|(H2-H1) / H2|≤5%.

[0124] When the flashing frequency is greater than the vibration frequency, the visual effect of the droplets flowing back against gravity is achieved by making the flashing frequency higher than the vibration frequency. The formation principle of the anti-gravity visual effect of the droplets has been reflected in detail in the above content and will not be repeated here.

[0125] It should be noted that the visual effect of a liquid droplet stopping can also be achieved when the flickering frequency is an integer multiple of the vibration frequency. By limiting the difference between the vibration frequency and the flickering frequency, the visual effect of the anti-gravity backflow is made more obvious and vivid.

[0126] When the flashing frequency is lower than the vibration frequency, the visual effect of the forward motion of the droplets is achieved by making the flashing frequency lower than the vibration frequency. The principle of forming the visual effect of the forward motion of the droplets has been reflected in detail in the above content and will not be repeated here.

[0127] In some embodiments of the present application, the flashing frequency is configured as: 50 Hz ≤ H2 ≤ 70 Hz.

[0128] It's understandable that each droplet has a specific shape and size. When visually adjacent droplets are too close together, they overlap, obscuring the complete droplet shape and resulting in a less distinct and unclear visual effect. By limiting the flashing frequency and thus controlling the visual distance between adjacent droplets, the droplet effect becomes clearer and more distinct.

[0129] In some embodiments of the present application, the relevant instructions include: reverse flow instructions, forward flow instructions, static instructions, acceleration instructions, and deceleration instructions. The vibration parameter includes the vibration frequency, and the light parameter includes the flickering frequency. If the control unit 57 receives a reverse flow instruction, the control unit 57 sends a control instruction to the vibration control unit 52 and the light control unit 53 to make the flickering frequency greater than the vibration frequency; if the control unit 57 receives a forward flow instruction, the control unit 57 sends a control instruction to the vibration control unit 52 and the light control unit 53 to make the flickering frequency less than the vibration frequency; if the control unit 57 receives a static instruction, the control unit 57 sends a control instruction to the vibration control unit 52 and the light control unit 53 to make the flickering frequency equal to the vibration frequency; if the control unit 57 receives an acceleration instruction, the control unit 57 sends a control instruction to the vibration control unit 52 and the light control unit 53 to increase the difference between the flickering frequency and the vibration frequency; if the control unit 57 receives a deceleration instruction, the control unit 57 sends a control instruction to the vibration control unit 52 and the light control unit 53 to reduce the difference between the flickering frequency and the vibration frequency.

[0130] It is understandable that when the light source is on, the human eye will observe obvious droplets; when the light source is off, the droplets have already fallen a certain distance; when the light source is turned on again, the human eye will observe obvious droplets again. Due to the persistence of vision effect, the droplets observed previously will not disappear immediately, causing the image of the droplets to remain in the human brain for a period of time. Therefore, when the light source is turned on again, there will be two images of the same droplet in the human brain: one is the phantom image of the droplet that has not disappeared, and the other is the real image of the droplet that has reappeared.

[0131] When the flickering frequency is greater than the dripping frequency: Since the flickering frequency is greater than the dripping frequency, the time interval between two consecutive light-up times of the light source will be shorter than the time interval between adjacent droplets moving to the same position. Therefore, the droplets are observed before they reach the expected position of the human brain, causing the human brain to mistakenly believe that the droplets are moving upward. Under the continuous flickering of the flickering light, the human brain will have the illusion of continuous backward flow of the droplets, forming a visual effect of droplets flowing backward against gravity. Among them, the droplet position expected by the human brain is the position of the image left by the previous droplet in the human brain. That is, when the flickering frequency is greater than the dripping frequency, the next droplet will be observed before the phantom image of the previous droplet, resulting in the visual effect of droplets flowing backward against gravity.

[0132] When the flickering frequency is equal to the dripping frequency: Since the flickering frequency is equal to the dripping frequency, the time interval between two consecutive lighting of the light source will be equal to the time interval between adjacent droplets moving to the same position. Therefore, the droplets are observed just when they reach the expected position of the human brain, causing the human brain to mistakenly believe that the droplets are stationary. Even if the flickering light keeps flickering and the droplets flow continuously, the human brain will still only have the illusion that the droplets stay in a cluster. The greater the flickering frequency and dripping frequency, the smaller the distance between the droplet images in the human brain. Among them, the droplet position expected by the human brain is the image position left by the previous droplet in the human brain. That is, when the flickering frequency is equal to the dripping frequency, the next droplet will be observed at the position of the phantom image of the previous droplet, resulting in the visual effect of droplets staying in a cluster.

[0133] When the flickering frequency is less than the dripping frequency: Because the flickering frequency is less than the dripping frequency, the interval between two consecutive light source lightings will be longer than the interval between adjacent droplets moving to the same position. Therefore, the droplets are not observed until they pass the position expected by the human brain, making the human brain think that the droplets are moving downward. Under the continuous flickering of the flickering light, the human brain will have the feeling of continuous falling droplets, forming the visual effect of droplets dripping in a string. Among them, the droplet position expected by the human brain is the position of the image left by the previous droplet in the human brain. That is, when the flickering frequency is less than the dripping frequency, the next droplet will be observed after the phantom image of the previous droplet, resulting in the visual effect of droplets dripping in a string.

[0134] When the difference between the flickering frequency and the vibration frequency increases, the distance between the observed position of the next droplet and the position of the ghost image of the previous droplet increases, making it appear that the droplet moves farther per unit time, thus creating a visual effect of increasing droplet movement speed. When the flickering frequency is greater than the vibration frequency, the difference between the flickering frequency and the vibration frequency increases, visually appearing as the droplet accelerates to flow backward against gravity; when the flickering frequency is less than the vibration frequency, the difference between the flickering frequency and the vibration frequency increases, visually appearing as the droplet accelerates to flow forward.

[0135] When the difference between the flickering frequency and the vibration frequency decreases, the distance between the observed position of the next droplet and the position of the ghost image of the previous droplet decreases, making it appear that the droplets move closer per unit time, thus creating a visual effect of a decreasing droplet movement speed. When the flickering frequency is greater than the vibration frequency, the difference between the flickering frequency and the vibration frequency decreases, visually appearing as the droplets decelerating and flowing backwards against gravity; when the flickering frequency is less than the vibration frequency, the difference between the flickering frequency and the vibration frequency decreases, visually appearing as the droplets decelerating and flowing forward.

[0136] In some embodiments of the present application, the pumping parameter includes the flow rate of the pumping component 415, and the vibration parameter includes the vibration frequency and amplitude. The flow rate maintains a positive correlation with the vibration frequency and amplitude.

[0137] When the vibration frequency increases, the consumption of the atomized liquid in the liquid collecting bin 412 increases, and it is necessary to increase the flow rate of the pumping component 415 to increase the supply of the atomized liquid in the liquid collecting bin 412, to ensure that the liquid collecting bin 412 is always filled with atomized liquid, thereby ensuring the continuity of the visual effect of the droplets.

[0138] When the vibration frequency decreases, the consumption of the atomized liquid in the liquid collection tank 412 decreases, and it is necessary to reduce the flow rate of the pumping component 415 to reduce the supply of the atomized liquid in the liquid collection tank 412, so as to prevent the liquid level of the atomized liquid in the liquid collection tank 412 from rising too high, thereby preventing the atomized liquid from overflowing from the liquid collection tank 412.

[0139] In some embodiments of the present application, the relevant instructions include: a droplet enlargement instruction and a droplet reduction instruction. The vibration parameter includes amplitude. If the control unit 57 receives a droplet enlargement instruction, the control unit 57 sends a control instruction to the vibration control unit 52 to increase the amplitude; if the control unit 57 receives a droplet reduction instruction, the control unit 57 sends a control instruction to the vibration control unit 52 to decrease the amplitude.

[0140] When the amplitude of the vibration assembly 414 is increased, the amplitude of the liquid collection chamber 412 is increased, thereby increasing the amount of atomized liquid dripping from the dripping port 413 at a time, thereby increasing the size of the droplets, making the droplets appear larger visually. Conversely, when the amplitude of the vibration assembly 414 is decreased, the amplitude of the liquid collection chamber 412 is decreased, thereby reducing the amount of atomized liquid dripping from the dripping port 413 at a time, thereby reducing the size of the droplets, making the droplets appear smaller visually.

[0141] See also Figure 4 In some embodiments of the present application, an air conditioning equipment control system 50 provided herein further includes an audio module 60. Audio module 60 is configured to play audio. A control unit 57 is configured to send a control instruction to at least one of the pump control unit 51, the vibration control unit 52, the light control unit 53, the mist control unit 54, the light control unit 55, or the wind control unit 56 based on the audio signal from audio module 60.

[0142] The audio module 60 enables the air-conditioning equipment 10 to have the function of playing audio, and the audio signal enables the control unit 57 to generate a control instruction according to the audio signal, thereby controlling the relevant parameters of at least one of the pump control unit 51, the vibration control unit 52, the light control unit 53, the fog control unit 54, the light control unit 55 or the wind control unit 56 to change according to the change of the audio signal, thereby making at least one of the droplet visual effect and the flame visual effect change with the change of the audio parameters, thereby combining the auditory effect of the audio with the visual effect of the flame and / or droplet, making the expression of the air-conditioning equipment 10 richer.

[0143] The audio parameters can be controlled by the audio control unit 57 to enrich the expression of the auditory effect of the audio of the air conditioning device 10.

[0144] In silent mode, the speaker of the air conditioning device 10 may not produce any sound, but the audio module 60 may continue to work, so that the visual effects of flames and / or droplets can still be controlled by audio signals, showing richer visual effects.

[0145] On the other hand, in some embodiments of the present application, the present application further provides an air conditioning device 10 , including an air conditioning device control system 50 .

[0146] Throughout this specification, references to terms such as "some embodiments," "illustrative embodiments," "examples," "specific examples," or "some examples" indicate that a specific feature, structure, material, or characteristic described in conjunction with the embodiment or example is included in at least one embodiment or example of the present invention. In this specification, illustrative uses of the above terms do not necessarily refer to the same embodiment or example. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in any one or more embodiments or examples.

[0147] Furthermore, the above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention shall be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention shall be subject to the scope of protection of the claims.

Claims

1. An air conditioning equipment control system, characterized in that: include: A liquid dripping device, the liquid dripping device comprising a liquid supply device and a flash device, the liquid supply device comprising a generating component and a pumping component, the generating component comprising a liquid collecting tank and a vibration component; a pump control unit, the pump control unit being used to control pumping parameters of the pumping assembly; A vibration control unit, the vibration control unit being used to control vibration parameters of the vibration component; A light control unit, configured to control light-emitting parameters of the flash device; a control unit configured to send a control instruction to at least one of the pump control unit, the vibration control unit, or the light control unit according to relevant instructions or signals; A mist supply device, the mist supply device is used to provide mist; A light projecting device, the light projecting device is used to provide projection light to the fog; a background member, the background member being used to contrast the mist onto which the projection light is projected, wherein a first color of at least a side of the background member facing the mist is different from a second color of the mist after the projection light is projected; Wherein, the liquid collecting bin is used to collect the atomized liquid, and the liquid collecting bin is provided with a dripping port; The vibration component is used to generate vibration to make the atomized liquid in the liquid collecting bin drip from the dripping port; The pumping assembly is used to deliver the atomized liquid to the liquid collecting bin; The flash device is used to provide flashing light to the liquid droplets dripping from the dripping port; The projection light provided by the light-projecting device and the flashing light provided by the flashing device have the same color and flashing frequency; The flash device is provided with at least three lamp beads, and the lamp beads are arranged in a circular array along the center of the dripping port; The lamp beads are in contact with the outer wall of the liquid collecting bin; The background piece is provided with a mist outlet and a background column; The mist outlet hole is used to provide a channel for the mist to be discharged; There are at least two background columns, which are dispersedly arranged around the mist outlet, and the color of the side of all the background columns facing the mist outlet is configured as the first color; The dripping device is located above the mist outlet; The first color gradually becomes lighter in a direction away from the mist outlet.

2. The air conditioning equipment control system according to claim 1, characterized in that: The vibration parameter includes vibration frequency, and the light emitting parameter includes flickering frequency; Let the vibration frequency be H1 and the flickering frequency be H2, then 1%≤|(H2-H1) / H2|≤5%.

3. The air conditioning equipment control system according to claim 2, characterized in that: The flashing frequency is configured as follows: 50 Hz ≤ H2 ≤ 70 Hz.

4. The air conditioning equipment control system according to claim 1, characterized in that: The relevant instructions include: reverse flow instruction, forward flow instruction, standstill instruction, acceleration instruction, and deceleration instruction; The vibration parameter includes vibration frequency, and the light emitting parameter includes flickering frequency; If the control unit receives the reverse flow instruction, the control unit sends a control instruction to the vibration control unit and the light control unit to make the flashing frequency greater than the vibration frequency; If the control unit receives the positive flow instruction, the control unit sends a control instruction to the vibration control unit and the light control unit to make the flashing frequency lower than the vibration frequency; If the control unit receives the stillness instruction, the control unit sends a control instruction to the vibration control unit and the light control unit so that the flashing frequency is equal to the vibration frequency; If the control unit receives the acceleration instruction, the control unit sends a control instruction to the vibration control unit and the light control unit to increase the difference between the flashing frequency and the vibration frequency; If the control unit receives the deceleration instruction, the control unit sends a control instruction to the vibration control unit and the light control unit to reduce the difference between the flashing frequency and the vibration frequency.

5. The air conditioning equipment control system according to claim 1, characterized in that: The pumping parameters include the flow rate of the pumping assembly, and the vibration parameters include the vibration frequency and amplitude; The flow rate maintains a positive correlation with both the vibration frequency and the vibration amplitude.

6. The air conditioning equipment control system according to claim 5, characterized in that: The related instructions include: a droplet enlargement instruction and a droplet reduction instruction; The vibration parameters include amplitude; If the control unit receives a droplet enlargement instruction, the control unit sends a control instruction to the vibration control unit to increase the amplitude; If the control unit receives a liquid drop reduction instruction, the control unit sends a control instruction to the vibration control unit to reduce the amplitude.

7. The air conditioning equipment control system according to claim 1, characterized in that: The mist supply device comprises: A liquid storage tank, the liquid storage tank is used to load the atomized liquid; an atomizing assembly, the atomizing assembly being used to atomize the atomizing liquid to form mist; The air conditioning equipment control system further comprises: A fan device, the fan device is used to transport the mist outward; A mist control unit, which is used to control the operating parameters of the atomization assembly; A light control unit, configured to control parameters of the projected light; a wind control unit, the wind control unit being used to control the operating parameters of the fan device; Wherein, the light projection device emits projection light from the inside of the mist outlet to the outside of the mist outlet; The projection light provided by the light-projecting device and the flashing light provided by the flashing device have the same flashing frequency; The control unit is configured to send a control instruction to at least one of the pump control unit, the vibration control unit, the light control unit, the fog control unit, the light control unit or the wind control unit according to relevant instructions or signals.

8. The air conditioning equipment control system according to claim 7, characterized in that: The relevant instructions include: increase flame range instruction, decrease flame range instruction, increase flame clarity instruction, decrease flame clarity instruction, increase flame brightness instruction, decrease flame brightness instruction; The operating parameters of the atomizing assembly include the atomizing amount, the operating parameters of the fan device include the wind speed, and the parameters of the projected light include the brightness of the projected light; If the control unit receives the instruction to increase the flame range, the control unit sends a control instruction to the wind control unit to increase the wind speed; If the control unit receives the instruction to reduce the flame range, the control unit sends a control instruction to the wind control unit to reduce the wind speed; If the control unit receives the flame clarity increase instruction, the control unit sends a control instruction to the mist control unit to increase the atomization amount; If the control unit receives the flame clarity reduction instruction, the control unit sends a control instruction to the mist control unit to reduce the atomization amount; If the control unit receives the flame brightness increase instruction, the control unit sends a control instruction to the light control unit to increase the brightness of the projected light; If the control unit receives the instruction to reduce the flame brightness, the control unit sends a control instruction to the light control unit to reduce the brightness of the projected light.

9. The air conditioning equipment control system according to claim 7, characterized in that: Also includes: An audio module, configured to play audio; The control unit is configured to send a control instruction to at least one of the pump control unit, the vibration control unit, the light control unit, the fog control unit, the light control unit or the wind control unit according to the audio signal of the audio module.

10. An air conditioning device, characterized in that: The invention comprises an air conditioning equipment control system according to any one of claims 1 to 9.

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