WO2019024239A1 - 空调柜机及其控制方法 - Google Patents
空调柜机及其控制方法 Download PDFInfo
- Publication number
- WO2019024239A1 WO2019024239A1 PCT/CN2017/105079 CN2017105079W WO2019024239A1 WO 2019024239 A1 WO2019024239 A1 WO 2019024239A1 CN 2017105079 W CN2017105079 W CN 2017105079W WO 2019024239 A1 WO2019024239 A1 WO 2019024239A1
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- WIPO (PCT)
- Prior art keywords
- air
- windless
- component
- air outlet
- difference
- Prior art date
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Classifications
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F1/00—Room units for air-conditioning, e.g. separate or self-contained units or units receiving primary air from a central station
- F24F1/0007—Indoor units, e.g. fan coil units
Definitions
- the invention relates to the technical field of air conditioners, in particular to an air conditioner cabinet machine and a control method thereof.
- the indoor temperature gradually changes with the use time, and when the ambient temperature approaches or reaches the preset temperature, the cold current or the warm current still blows the user. Because the airflow is blown for a long time, the household feels uncomfortable.
- the main object of the present invention is to provide a control method for an air conditioner cabinet, which aims to improve the comfort of the user using the air conditioner.
- the present invention provides a control method for an air conditioner cabinet, wherein the air conditioner cabinet includes a casing, and the casing has an air outlet corresponding to the air outlet, sequentially along a height direction of the casing.
- the upper airless component and the lower windless component are provided, and the control method of the air conditioner cabinet includes the following steps:
- the upper windless component or the lower windless component is turned off according to the current working mode.
- the method further comprises:
- the step of closing the upper windless component or the lower windless component according to the current working mode specifically includes:
- the upper windless component is turned off
- the windless component is turned off.
- the method further includes:
- the preset area is an area of the air supply area of the air conditioner cabinet near the air outlet position
- the air conditioner cabinet comprises an upper infrared detector and an intermediate infrared detector, the upper infrared detector is disposed at an upper portion of the air outlet, and the middle infrared detector is disposed at a middle portion of the air outlet;
- the step of detecting whether there is a child in the preset area specifically includes:
- the upper infrared detector detects whether there is a heat source in the detection area
- the mid-infrared detector detects whether there is a heat source in the detection area
- the mid-infrared detector detects that a heat source is approaching, it is determined that there is a child in the preset area.
- the upper windless component comprises an upper wind deflector for left and right wind guides
- the lower windless component comprises a lower wind deflector for left and right wind guides, the upper wind deflector and the lower wind deflector
- a plurality of ventilation holes for airflow are provided on the upper;
- the step of closing the upper windless component or the lower windless component according to the current working mode specifically includes:
- the absolute value of the difference between the current indoor temperature and the preset temperature is the current temperature difference, and the difference between the first preset temperature difference and the current temperature difference is a relative temperature difference;
- the upper windless component comprises upper and lower air guiding upper louvers
- the lower windless component comprises upper and lower air guiding lower louvers
- the upper louver and the lower louver are provided with a plurality of airflow passages. Vents;
- the step of closing the upper windless component or the lower windless component according to the current working mode specifically includes:
- the absolute value of the difference between the current indoor temperature and the preset temperature is the current temperature difference, and the difference between the first preset temperature difference and the current temperature difference is a relative temperature difference;
- the deflection angle between the upper or lower louver and the air outlet plane is adjusted to adjust the degree of windlessness.
- the upper windless component comprises an upper windless door
- the lower windless component comprises a lower windless door
- the upper windless door and the lower windless door A plurality of ventilation holes for airflow are provided on the upper;
- the step of closing the upper windless component or the lower windless component according to the current working mode specifically includes:
- the absolute value of the difference between the current indoor temperature and the preset temperature is the current temperature difference, and the difference between the first preset temperature difference and the current temperature difference is a relative temperature difference;
- the position of the upper windless door body or the lower windless door body relative to the air outlet is adjusted to adjust the degree of windlessness.
- the present invention further provides an air conditioner cabinet comprising: a casing, an upper windless component, a lower windless component, a memory, a processor, and stored on the memory and operable in the process The control program of the air conditioner cabinet running on the device, wherein:
- An air outlet is opened on the surface of the casing
- the upper windless component and the lower windless component are sequentially disposed along the air outlet, and the upper windless component is closed and opened to control whether there is no wind feeling on the upper part of the air outlet, and the lower windless component is closed and Open and control the lower part of the air outlet to have a sense of no wind;
- control program of the air conditioner cabinet is implemented by the processor to implement a control method of the air conditioner cabinet, and the control method of the air conditioner cabinet includes the following steps:
- the upper windless component or the lower windless component is turned off according to the current working mode.
- the upper windless component comprises one or more of an upper air deflector having a vent hole, a louver having a vent hole, and an upper windless door having a vent hole;
- the lower windless component includes one or more of a lower air deflector having a vent hole, a lower louver having a vent hole, and a lower windless door having a vent hole.
- the air conditioner cabinet is a cross flow air conditioner cabinet, and the air outlet is opened along a length direction of the casing.
- the present invention further provides a computer readable storage medium, wherein the computer readable storage medium stores a control program of the air conditioner cabinet, and the control program of the air conditioner cabinet is implemented by the processor to implement a control method of the air conditioner cabinet.
- the control method of the air conditioner cabinet includes the following steps:
- the upper windless component or the lower windless component is turned off according to the current working mode.
- the air conditioner cabinet in order to quickly adjust the indoor temperature, the air conditioner cabinet is normally supplied at full speed; after the air conditioner cabinet works for a period of time, the current indoor temperature is obtained, and the current indoor ambient temperature and the preset temperature are compared; when the indoor temperature and the preheating When the absolute value of the temperature difference is less than or equal to the first preset temperature difference, the upper windless component or the lower windless component is turned off according to the current working mode, so that the user enjoys the comfort of the windless feeling at an appropriate timing. That is, the technical solution of the present invention can satisfy the requirement of the user to quickly adjust the temperature, and can give the user a comfortable windless feeling at an appropriate timing.
- FIG. 1 is a schematic structural view showing that the windless component and the lower windless component are simultaneously opened on the air conditioner cabinet of the present invention
- FIG. 2 is a schematic structural view showing that the windless component is closed on the air conditioner cabinet of the present invention, and the windless component is opened;
- FIG. 3 is a schematic structural view showing that the windless component is opened on the air conditioner cabinet of the present invention, and the windless component is closed;
- FIG. 4 is a schematic structural view showing that the windless component and the lower windless component are simultaneously closed on the air conditioner cabinet of the present invention
- FIG. 5 is a schematic structural view of an air deflector and a lower air deflector on the air conditioner cabinet;
- Figure 6 is a schematic enlarged view of the structure at A in Figure 5;
- Figure 7 is a schematic enlarged view of the structure B in Figure 5;
- Figure 8 is a schematic view showing the structure of the louver and the lower louver on the air conditioner cabinet
- FIG. 9 is a schematic structural view showing the wind-free door body and the lower wind-free door body simultaneously closed on the air-conditioning cabinet machine of the present invention.
- Figure 10 is a schematic view showing the internal structure of the air conditioner cabinet of the present invention.
- Label Name Label Name 100 Housing 110 Air outlet 210 Windless component 220 Lower windless component 310 Upper air deflector assembly 320 Lower air deflector assembly 311 Upper wind deflector 321 Lower air deflector 330 Upper mount 340 motor 350 Lower mount 410 Top hundred leaf assembly 420 Lower louver assembly 510 Upper door assembly 511 Windless door 520 Lower door assembly 521 Windless door
- first”, “second”, and the like in the present invention are used for the purpose of description only, and are not to be construed as indicating or implying their relative importance or implicitly indicating the number of technical features indicated.
- features defining “first” and “second” may include at least one of the features, either explicitly or implicitly.
- the technical solutions between the various embodiments may be combined with each other, but must be based on the realization of those skilled in the art, and when the combination of the technical solutions is contradictory or impossible to implement, it should be considered that the combination of the technical solutions does not exist. It is also within the scope of protection required by the present invention.
- the present invention mainly relates to a structure, a control method, and a functional improvement of a cross flow air conditioner cabinet.
- the following mainly improves the function from the improvement of the structure and the control method, and the cross flow air conditioner cabinet of the present invention. working principle.
- the cross flow air conditioner cabinet includes a housing 100, an air inlet assembly, a heat exchange assembly 610, a air supply assembly 620, and a wind guide assembly, wherein the air inlet assembly, the heat exchange assembly 610, the air supply assembly 620, and the air guide assembly are both shelled
- the body 100 is fixedly connected. The specific connection relationship and positional relationship between the above components are described below.
- the housing 100 is disposed in a columnar shape in the up and down direction.
- the left side, the right side, and/or the rear side of the housing 100 are provided with an air inlet 120.
- the air inlet 120 can extend along the height direction of the housing 100.
- the front side of the housing 100 is opened.
- the air outlet 110 There is an air outlet 110, and the air outlet 110 extends in the height direction of the casing 100, and a duct is formed between the air inlet 120 and the air outlet 110.
- the air inlet assembly may include a style grille, a filter net, and the like, and the air inlet assembly is disposed at a position corresponding to the air inlet 120 on the housing 100 along the length direction of the air inlet 120.
- the heat exchange assembly 610 may include a heat exchanger 611, a heat exchanger 611 bracket, and an electric auxiliary heat. The heat exchange assembly 610 is disposed in the air passage corresponding to the air outlet 110 along the height direction of the housing 100.
- the blower assembly 620 may include a cross flow wind wheel 621 for driving a wind turbine motor or the like of the cross flow wind wheel 621, wherein the cross flow wind wheel 621 is disposed in the air passage along the height direction of the casing 100.
- the air supply assembly 620 includes a wind deflector assembly, a louver assembly, and a door assembly, and the like.
- the air deflector assembly, the louver assembly, and the door assembly are disposed on the housing 100 along the length of the air outlet 110.
- the position of the tuyere 110 is to guide the direction of the airflow of the cross-flow air conditioner.
- the wind deflector assembly is located between the louver assembly and the door assembly.
- the position of the louver assembly and the deflector assembly can be adjusted according to actual needs.
- the cross-flow wind wheel 621 may include an upper wind wheel and a lower wind wheel, and are disposed in the air channel along the height direction of the casing 100.
- the upper wind wheel and the lower wind wheel are separately driven by different motors, so that the rotation speeds of the upper wind wheel and the lower wind wheel can be Different; the rotation axes of the upper and lower wind wheels can be coaxial to improve the airflow stability, or can be set to different axes according to actual needs.
- the air duct at this time may be an integral air duct, and of course, the upper air duct and the lower air duct may be formed corresponding to the upper wind wheel and the lower wind wheel.
- the air deflector assembly may include an upper air deflector assembly 310 and a lower air deflector assembly 320, and the upper air deflector assembly 310 and the lower air deflector assembly 320 are disposed along the length of the air outlet 110.
- the air deflector assembly 310 and the lower air deflector assembly 320 are separately driven by different motors to separately control the air supply; the upper air deflector assembly 310 and the lower air deflector assembly 320 may be located on the same working plane ( The working plane is not an absolute plane. It is only used to describe the spatial position of the two air deflectors. It can also be set in different working planes according to actual needs.
- the air outlet 110 is divided into an upper air outlet 111 and a lower air outlet 112, and the air is controlled by the upper air deflector assembly 310 and the lower air deflector assembly 320, respectively.
- the air deflector assembly as the upper air deflector assembly 310 and the lower air deflector assembly 320, the air supply conditions of the upper and lower portions of the air outlet 110 can be adjusted according to actual needs.
- the air deflector is a windless wind deflector
- the upper air deflector assembly 310 and the lower air deflector assembly 320 can realize the windless air supply of the upper air outlet 111 and the lower air outlet 112, respectively.
- the wind deflector as the windless wind deflector as an example
- the windless air supply of the lower air outlet 112 is realized, and the traditional air outlet 111 is sent.
- the air supply speed of the upper and lower air outlets 112 of the wind wheel is equivalent, and the wind pressure at the lower part of the air duct is gradually increased due to the wind output of the lower air outlet 112, and the wind pressure at the lower part of the air duct is greater than that of the upper air duct.
- the air supply speed of the upper and lower air outlets 112 of the wind wheel is equivalent, and the wind pressure at the upper part of the air duct is gradually increased due to the obstruction of the air outlet 111, and the wind pressure at the upper part of the air duct is greater than that of the lower air duct.
- the wind pressure is applied, a part of the airflow in the upper part of the air duct flows to the lower part of the air duct, so that the wind pressure in the lower part of the air duct increases, so that the wind speed of the air outlet 112 is increased, and the air supply distance is also increased.
- both the upper air deflector assembly 310 and the lower air deflector assembly 320 are closed for windless air supply, the wind pressure in the entire air duct is increased.
- the louver assembly may include a top louver assembly 410 and a lower louver assembly 420, and the upper louver assembly 410 and the lower louver assembly 420 are both disposed at the air outlet 110 along the length of the air outlet 110; the upper louver assembly 410 and the lower louver assembly 420 are respectively Different motors are separately driven to control the air supply separately; the upper louver assembly 410 and the lower louver assembly 420 may be located in the same working plane (the working plane is not an absolute plane, only used to describe the spatial position of the two sets of louvers), or may be Actually need to be set in different work planes.
- the air outlet 110 is divided into an upper air outlet 111 and a lower air outlet 112, and the air is controlled by the upper louver assembly 410 and the lower louver assembly 420, respectively.
- the louver assembly as the upper louver assembly 410 and the lower louver assembly 420, the air supply conditions of the upper and lower portions of the air outlet 110 can be adjusted according to actual needs.
- the louver is a windless louver
- the upper louver assembly 410 and the lower louver assembly 420 can realize the windless sensible air supply of the upper air outlet 111 and the lower air outlet 112, respectively.
- louver as a windless louver as an example
- the windless air supply of the lower air outlet 112 and the conventional air supply of the upper air outlet 111 are realized.
- the air supply speed of the upper and lower air outlets 112 of the wind wheel is equivalent, and the wind pressure at the lower part of the air duct is gradually increased due to the wind output of the lower air outlet 112, and the wind pressure at the lower part of the air duct is greater than that of the upper air duct.
- the wind pressure at the upper part of the air duct gradually increases, and the wind pressure at the upper part of the air duct is greater than that of the lower air duct.
- the wind pressure is applied, a part of the airflow in the upper part of the air duct flows to the lower part of the air duct, so that the wind pressure in the lower part of the air duct increases, so that the wind speed of the air outlet 112 is increased, and the air supply distance is also increased.
- both the upper louver assembly 410 and the lower louver assembly 420 are closed for windless air supply, the wind pressure in the entire air passage is increased.
- the door body assembly may include an upper door body assembly 510 and a lower door body assembly 520, and the upper door body assembly 510 and the lower door body assembly 520 are both disposed at the air outlet 110 along the length of the air outlet 110; the upper door body assembly 510 and the lower door body
- the components 520 are separately driven by different motors to separately control the air supply; the upper door body assembly 510 and the lower door body assembly 520 can be located on the same working plane (the working plane is not an absolute plane, and is only used to illustrate the spatial position of the two groups of door bodies). ), can also be set in different work planes according to actual needs.
- the air outlet 110 is divided into an upper air outlet 111 and a lower air outlet 112, and the air is controlled by the upper door assembly 510 and the lower door assembly 520, respectively.
- the air supply conditions of the upper and lower portions of the air outlet 110 can be adjusted according to actual needs.
- the upper door body assembly 510 and the lower door body assembly 520 can realize the windless air supply of the upper air outlet 111 and the lower air outlet 112, respectively.
- the windless air supply of the lower air outlet 112 and the conventional air supply of the upper air outlet 111 are realized.
- the air supply speed of the upper and lower air outlets 112 of the wind wheel is equivalent, and the wind pressure at the lower part of the air duct is gradually increased due to the wind output of the lower air outlet 112, and the wind pressure at the lower part of the air duct is greater than that of the upper air duct.
- the wind pressure at the upper part of the air duct gradually increases, and the wind pressure at the upper part of the air duct is greater than that of the lower air duct.
- the wind pressure is applied, a part of the airflow in the upper part of the air duct flows to the lower part of the air duct, so that the wind pressure in the lower part of the air duct increases, so that the wind speed of the air outlet 112 is increased, and the air supply distance is also increased.
- the upper door body assembly 510 and the lower door body assembly 520 are both closed for windless air supply, the wind pressure in the entire air passage is increased.
- the air deflector assembly is divided into an upper air deflector assembly 310 and a lower air deflector assembly 320 as an example for specific description.
- the upper air deflector assembly 310 and the lower air deflector assembly 320 are both opened. At this time, according to the current working state, the air is blown at full force to quickly achieve the purpose of cooling or warming up. Specifically, in the cooling mode, the cold air is fully delivered to rapidly cool the current environment to increase the speed at which the air conditioner reduces the temperature; in the heating mode, the hot air is fully transmitted to accelerate the current environment to increase the air conditioner. High temperature speed.
- the operation of the upper wind deflector assembly 310 and the lower air deflector assembly 320 is controlled according to the current working mode and the detected triggering conditions.
- the cooling mode in order to prevent the high-speed cold air from blowing directly to the legs, feet, etc., the lower air deflector assembly 320 is closed to achieve a windless feeling in the lower part of the air conditioner cabinet and a high-speed air supply in the upper part.
- the heating mode in order to avoid the hot air blowing the head and the face while the warm air is warming, the upper air deflector assembly is closed and the lower air deflector assembly is opened.
- the cooling mode and the heating mode when the air conditioner detects that the child is close to the air outlet 110 of the air conditioner, the lower air deflector assembly 320 is closed to prevent the cold wind or the hot water from directly blowing the child.
- the upper air deflector assembly 310 and the lower air deflector assembly 320 are simultaneously closed, so as to realize the overall windless feeling of the air conditioner, so that the user enjoy comfortable temperatures without being blown straight.
- the door body assembly and the louver assembly can be realized in a manner of realizing the upper windless feeling and the lower windless feeling, and the implementation manner is respectively controlling the upper louver assembly 410.
- the lower louver assembly 420 which controls the upper door body assembly 510, the lower door body assembly 520, and the like, respectively.
- the above time is used as a trigger condition for triggering the opening and closing of the upper air deflector assembly 310 and the lower air deflector assembly 320.
- the triggering condition can also be the operating frequency of the compressor, the rotational speed of the wind turbine, the current Ambient temperature and so on.
- the upper airless component 210 and the lower windless component 220 are adjusted by using the ambient temperature as a trigger condition, that is, the operation of the upper windless component 210 and the lower windless component 220 is controlled by detecting the temperature.
- the upper windless component 210 includes one or more of an upper air deflector 311 having a vent hole, a louver having a vent hole, and an upper windless door 510 having a vent hole.
- the lower windless component 220 includes one or more of a lower air deflector 321 having a vent hole, a lower louver having a vent hole, and a lower windless door 521 having a vent hole. That is, the components included in the windless component 220 can be set according to different actual conditions to meet the windless requirements for use.
- the upper windless component 210 and the lower windless component 220 are all turned on. That is to say, the upper windless component 210 and the lower windless component 220 do not realize the windless air supply, so that the air conditioner cabinet can supply air at full speed to achieve rapid heating and cooling. It should be noted that the windless component in the present application is opened, which means that the windless component opens the air outlet 110 and does not interfere with the air supply form.
- the current indoor temperature There are many ways to obtain the current indoor temperature, such as detection by a temperature detecting device. After the indoor temperature is obtained, the detected current indoor temperature and the preset temperature are compared, and the preset temperature may be a reference temperature set by the user, or may be an indoor target temperature set by the user when the user is turned on.
- the air conditioner cabinet controls the upper windless component 210 and the lower windless component 220 according to the temperature difference between the current indoor temperature and the preset temperature.
- the upper windless component 210 or the lower windless component 220 is turned off according to the current working mode.
- the absolute value of the difference between the indoor temperature and the preset temperature is less than or equal to the first preset temperature difference, indicating that the indoor ambient temperature at this time is not particularly different from the temperature expected by the user, or is compared to the indoor environment before starting the machine.
- the temperature has been greatly adjusted.
- the user does not want some parts to be blown straight, for example, the head does not want to be blown by the hot air, and the foot does not want to be blown by the cold wind.
- the windless air supply can be realized by closing the upper windless component 210 or by turning off the windless component 220 to achieve the lower windless air supply. That is, the user's needs can be satisfied by controlling the upper windless component 210 and the lower windless component 220.
- the absolute value of the difference between the indoor temperature and the preset temperature is greater than the first preset temperature difference, it indicates that the indoor ambient temperature at this time is different from the temperature expected by the user, or is compared with the indoor ambient temperature before the start-up. There are no major adjustments. At this time, the user needs more rapid temperature rise and temperature reduction to meet the urgently needed temperature adjustment. Therefore, the upper windless component 210 and the lower windless component 220 continue to be in an open state at this time, so that the air conditioner cabinet is still at a high speed. Air supply.
- the air conditioner cabinet in order to quickly adjust the indoor temperature, the air conditioner cabinet is normally supplied at full speed; when the air conditioner cabinet is working for a certain period of time (for imaginary numbers, it is not limited to a specific length of time, and may be several minutes or several hours) After obtaining the current indoor temperature and comparing the current indoor ambient temperature with the preset temperature; when the absolute value of the difference between the indoor temperature and the preset temperature is less than or equal to the first preset temperature difference, the windlessness is turned off according to the current working mode.
- the component 210 or the lower windless component 220 enables the user to enjoy the comfort of the windless feeling at a suitable timing, that is, the technical solution of the present invention can satisfy the requirement of the user to quickly adjust the temperature, and at the right time. Give the user a comfortable, windless feel.
- the method further includes:
- the upper windless component 210 and the lower windless component 220 are simultaneously turned off.
- the absolute value of the difference between the indoor temperature and the preset temperature is less than or equal to the second preset temperature difference, indicating that the indoor ambient temperature at this time is very close to the temperature expected by the user, or has reached the desired temperature within the range allowed by the error, or It is said that the indoor ambient temperature has been greatly adjusted compared to before the start-up. At this time, the ambient temperature has basically satisfied the user's needs, and no high-speed air supply is required. At this time, the user does not want to be blown directly by the airflow.
- the windless air supply can be realized by turning off the upper windless component 210 and turning off the windless component 220 to achieve the lower windless air supply. That is, the user's needs can be satisfied by controlling the upper windless component 210 and the lower windless component 220.
- the second preset temperature difference is small, that is, the current ambient temperature is very close to or equivalent to the preset temperature.
- the user can enjoy the full windless air supply at the right time, so that the user can enjoy the comfortable enjoyment, avoid the long-term blowing of the user, avoid the air conditioning disease, and is beneficial to the user's health.
- Use an air conditioner Use an air conditioner.
- the upper windless component 210 or the upper windless component 210 is turned off.
- the step of turning off the upper windless component 210 or the lower windless component 220 according to the current working mode specifically includes:
- the upper windless component 210 When the current working mode is the heating mode, and the absolute value of the difference between the indoor temperature and the preset temperature is less than or equal to the first preset temperature difference, the upper windless component 210 is turned off.
- the user does not want high-temperature air to directly blow the upper part of the human body, the head, etc., and it is desirable that the heating is blown to the lower part or the foot of the human body to achieve the purpose of warming off and warming the foot.
- the upper windless component 210 by turning off the upper windless component 210, the air flows out from the upper air outlet 111 through the vent hole, so that the upper part of the air conditioner cabinet realizes the windless air supply.
- the user is allowed to use the air conditioner cabinet in a healthy and comfortable manner.
- the lower windless component 220 When the current working mode is the cooling mode, and the absolute value of the difference between the indoor temperature and the preset temperature is less than or equal to the first preset temperature difference, the lower windless component 220 is turned off.
- the user does not want the low-temperature air to directly blow the lower part of the human body, the foot, and the like, and it is desirable to cool the upper part or the face of the human body so that the user can directly experience the coolness.
- the lower windless component 220 by closing the lower windless component 220, the air flows out from the lower portion of the air outlet 110 through the ventilation hole, so that the lower part of the air conditioner cabinet realizes the windless air supply.
- the user is allowed to use the air conditioner cabinet in a healthy and comfortable manner.
- the method further comprises:
- the preset area is an area of the air supply area of the air conditioner cabinet near the air outlet 110;
- the preset area is an area close to the air outlet of the air conditioner cabinet, and the specific value of the air outlet 110 may be set according to actual conditions, and may be 1 meter, 2 meters, 3 meters or 4 meters, etc., no special restrictions here.
- There are many tools for detecting whether there are children in the preset area For example, by installing a camera, the camera captures the image and compares it with the data stored in the database. When the result of the comparison is that the captured image is a child image, it is judged.
- the person close to the air outlet 110 is a child.
- the database can be the database that comes with the air conditioner cabinet, or it can be the cloud database. Of course, in some embodiments, it can also be judged by providing a plurality of infrared detecting devices along the height direction of the housing 100.
- the windless component 220 is turned off. If it is detected that there is a child in the preset area, the windless component 220 is turned off, so that the lower part of the air outlet 110 realizes the windless air supply, so as to prevent the airflow from directly blowing the child nearby, thereby effectively protecting the child; When the assembly 220 is closed, the lower portion of the lower air outlet 112 is also blocked to prevent the child from lifting the hand into the air conditioner to avoid a safety accident.
- the air conditioner cabinet includes an upper infrared detector and a mid-infrared detector.
- the upper infrared detector is disposed at an upper portion of the air outlet 110, and the middle infrared detector is disposed at the air outlet 110.
- the step of detecting whether there is a child in the preset area specifically includes:
- the upper infrared detector detects whether there is a heat source in the detection area; the upper infrared detector is disposed at the top of the air outlet 110, and can detect the heat source at a higher position in the preset area, and the upper infrared detector is at a higher position in the preset area.
- no heat source it means that no one is currently in the preset area, or there is no one in the higher position of the preset area.
- the mid-infrared detector detects whether there is a heat source in the detection area; the mid-infrared detector is disposed in the middle of the air outlet 110, and can detect the heat source in the middle and lower positions of the preset area, and the infrared detector is in the middle and the bottom of the preset area. When the position detects the heat source, it means that there are people in the middle and lower positions of the preset area.
- the mid-infrared detector detects that a heat source is approaching, it is determined that there is a child in the preset area.
- the detection of the upper infrared detector and the detection of the lower infrared detector can be performed simultaneously, without prioritization; of course, in some embodiments, the infrared detector can be detected first, or the mid-infrared detector, for different starting points. Test first.
- the upper windless component 210 includes an upper wind deflecting plate 311 for guiding the wind
- the lower windless sensing component 220 includes a lower wind deflecting plate 321 for guiding the wind to the left and right.
- a plurality of ventilation holes for airflow are formed on the upper air deflector 311 and the lower air deflector 321;
- the step of turning off the upper windless component 210 or the lower windless component 220 according to the current working mode specifically includes:
- the absolute value of the difference between the current indoor temperature and the preset temperature is the current temperature difference, and the difference between the first preset temperature difference and the current temperature difference is a relative temperature difference;
- the deflection angle between the upper air deflector 311 or the lower air deflector 321 and the plane of the air outlet 110 is adjusted to adjust the degree of windlessness.
- the relative temperature difference is a positive value, that is, the difference between the current temperature difference and the first preset temperature difference, and does not include the coincidence. Or do the difference between the two, take the absolute value.
- the number of the upper air deflector 311 and the lower air deflector 321 is plural, and the plurality of upper air deflectors 311 are arranged along the width direction of the air outlet 110, and each of the upper air deflectors 311 extends along the longitudinal direction of the air outlet 110.
- the upper air deflector 311 swings left and right to realize the left and right air guides on the upper portion of the air outlet 110.
- each lower air guiding plate 321 is arranged along the width direction of the air outlet 110, and each lower air guiding plate 321 extends along the longitudinal direction of the air outlet 110.
- the lower air guiding plate 321 swings left and right to realize left and right air guiding in the lower portion of the air outlet 110.
- the angle of deflection of each of the upper air deflector 311 or the lower air deflector 321 is different, and the air volume passing through the air vents is different, and the effect of no wind feeling is also different, that is, the deflection angles of the upper air deflector 311 and the lower air deflector 321 are affected.
- the degree of windlessness of the air conditioner The smaller the deflection angle is, the larger the area covering the air outlet 110 is.
- the degree of windlessness is adjusted, thereby adapting to different relative temperature differences, so that the temperature is quickly adjusted and improved.
- the high degree of comfort is unified, which helps users to use air-conditioner cabinets more comfortably.
- the upper windless component 210 includes upper and lower wind deflecting upper louvers
- the lower windless component 220 includes upper and lower wind deflecting lower louvers, the upper louver and the Ventilation holes for airflow are provided on the louvers;
- the step of turning off the upper windless component 210 or the lower windless component 220 according to the current working mode specifically includes:
- the absolute value of the difference between the current indoor temperature and the preset temperature is the current temperature difference, and the difference between the first preset temperature difference and the current temperature difference is a relative temperature difference;
- the deflection angle between the upper or lower louver and the plane of the air outlet 110 is adjusted to adjust the degree of windlessness.
- the relative temperature difference is a positive value, that is, the difference between the current temperature difference and the first preset temperature difference, and does not include the coincidence. Or do the difference between the two, take the absolute value.
- the number of the upper louver and the lower louver is plural, and the plurality of upper louvers are arranged along the height direction of the air outlet 110, and each of the upper louvers extends in the width direction of the air outlet 110.
- the upper and lower blades swing up and down to realize the upper and lower air guides on the upper portion of the air outlet 110.
- a plurality of lower louvers are arranged along the height direction of the air outlet 110, and each lower louver extends in the width direction of the air outlet 110.
- the lower louver is swung up and down to realize the upper and lower air guides at the lower portion of the air outlet 110.
- the angle of deflection of each louver or lower louver is different.
- the air volume passing through the vent hole is different, and the effect of no wind sensation is different, that is, the deflection angle of the upper louver and the lower louver affects the degree of windlessness of the air conditioner cabinet.
- the angle between the upper and lower louvers and the plane of the air outlet 110 is very small, and the degree of windlessness is the highest, and the effect is the best; on the contrary, the larger the deflection angle, the smaller the area covering the air outlet 110, The less the airflow of the vent hole is, the worse the windless effect is.
- the angle between the upper louver and the lower louver and the air outlet 110 plane is larger, the plane of the upper louver and the lower louver and the air outlet 110 are perpendicular, for example. Very little airflow flows out through the ventilation holes, and even all the airflow does not pass through the ventilation holes. At this time, the degree of no wind is low and the effect is poor.
- the degree of windlessness is adjusted, thereby adapting to different relative temperature differences, so that the speed of quickly adjusting the temperature and improving the comfort level are unified. Together, it helps users to use air-conditioner cabinets more comfortably.
- the upper windless component 210 includes an upper windless door 510
- the lower windless component 220 includes a lower windless door 521.
- a plurality of ventilation holes for airflow are formed on the wind-sensing door body 510 and the lower wind-free door body 521;
- the step of turning off the upper windless component 210 or the lower windless component 220 according to the current working mode specifically includes:
- the absolute value of the difference between the current indoor temperature and the preset temperature is the current temperature difference, and the difference between the first preset temperature difference and the current temperature difference is a relative temperature difference;
- the position of the upper windless door body 510 or the lower windless door body 521 relative to the air outlet 110 is adjusted to adjust the degree of windlessness.
- the relative temperature difference is a positive value, that is, the difference between the current temperature difference and the first preset temperature difference, and does not include the coincidence. Or do the difference between the two, take the absolute value.
- the upper windless door body 510 is disposed along the width direction of the air outlet 110, and the upper windless door body 510 extends along the longitudinal direction of the air outlet 110.
- the wind-free door body 510 moves to the left and right, and the wind outlet 110 has no wind and wind.
- the lower wind-free door body 521 is disposed along the width direction of the air outlet 110, and the lower wind-free door body 521 extends along the longitudinal direction of the air outlet 110.
- the wind-free door body 521 moves to the left and right to realize the windless air supply in the lower portion of the air outlet 110.
- the position of the windless door body 510 or the lower windless door body 521 is different (the area covering the outlet is different), and the air volume passing through the vent hole is different, and the effect of the windless feeling is also different, that is, the windless door body 510 and
- the position of the windless door 521 in the air outlet 110 affects the degree of windlessness of the air conditioner cabinet.
- the upper windless door body 510 covers the area of the air outlet 110 and the windless area
- the door body 521 covers the area of the air outlet 110) to adjust the degree of windlessness, so as to adapt to different relative temperature differences, so that the rapid adjustment of the temperature and the improvement of the comfort height are unified, which is beneficial to the user to use the air conditioner cabinet more comfortably. machine.
- the upper air deflector assembly 310 includes an upper air deflector 311, an upper mount 330, and a drive motor 340 for driving the upper wind deflector 311.
- the upper air deflector 311 and the drive motor 340 are respectively disposed on the upper mount 330.
- the driving motor 340 is fixedly disposed on the upper fixing base 330, and the rotating shaft of the driving motor 340 is fixedly connected with the rotating shaft of the upper air guiding plate 311 to drive the upper air guiding plate 311 to rotate.
- the number of the upper air guiding plates 311 is plural, and the plurality of upper air guiding plates 311 are arranged along the length direction of the upper fixing base 330, and the rotating shaft of one end of each upper air guiding plate 311 extends into the shaft hole of the upper fixing base 330.
- the plurality of upper air guiding plates 311 are connected by a connecting rod. When one of the upper air guiding plates 311 is rotated, the other upper air guiding plates 311 are driven to rotate by the connecting rods.
- the upper air guiding plate 311 defines a plurality of ventilation holes along the thickness direction thereof, and the ventilation holes penetrate the upper air guiding plate 311.
- the air outlets 110 extend in a vertical direction
- the plurality of upper air deflectors 311 extend vertically and are distributed in a horizontal direction
- each of the upper air deflectors 311 is formed in a sheet shape, and each upper guide
- the wind plate 311 has a state of being at an angle with the vertical surface of the air outlet 110 where the air outlet 110 is located.
- the angle of the angle may be varied. Taking the first angle and the second angle as an example, in the first angle, each adjacent two upper air deflectors 311 are in contact to make the air in the air passage from the plurality of air. Ventilation holes on the wind deflector 311 are blown out.
- each upper air deflector 311 is at an angle with the vertical plane of the air outlet 110, and there is a gap between each adjacent two upper air deflectors 311, at least a portion of the air in the air duct is from each A plurality of ventilation holes on the upper air deflector 311 are blown toward the corresponding gaps, and the air outlets 110 are blown out. Of course, it can also be blown directly from the air passage through the gap.
- the angle between the upper air deflector 311 and the plane of the air outlet 110 can be set to be infinitely adjusted, that is, the range is 0 to 180 degrees, and different angles correspond to different working conditions.
- the shape of the vertical surface of the air outlet 110 is related to the shape of the casing, and the direction in which the air outlet 110 extends in the vertical direction is a curve, and the extending direction of the air outlet 110 in the horizontal direction is a curve, which can exist independently of each other.
- the direction in which the air outlet 110 extends in the vertical direction is a curve and the direction in which the air outlet 110 extends in the horizontal direction is a curve.
- the extending direction of the air outlet 110 in the horizontal direction is a curve
- the extending direction of the vertical surface of the air outlet 110 in the horizontal direction is also a curve, and at this time, each of the upper air guiding plate 311 and the air outlet 110 are vertical.
- the angle of formation refers to an angle between each of the upper air deflector 311 and the vertical tangent at the corresponding position of the vertical plane of the air outlet 110. It can be understood that the vertical surface of the air outlet 110 can also be formed into a plane. Since the plurality of upper air guiding plates 311 can rotate in the air outlet 110, the air outlets 110 have an air guiding state and a covering state. In the air guiding state, the plurality of upper air guiding plates 311 open the air outlets 110, and the air in the air ducts The air is blown out from the air outlet 110 under the guidance of the plurality of upper air deflectors 311.
- the plurality of upper air guiding plates 311 are rotated such that the adjacent two upper air guiding plates 311 are in contact or have a gap, in which case, due to the blocking condition of the plurality of upper air guiding plates 311, in the air channel Most of the wind is blown out from a plurality of ventilation holes on each of the upper air deflectors 311, thereby reducing the wind speed due to the reduction of the air outlet passages, while the plurality of ventilation holes break up the wind, so that the wind blown from the air outlets 110 is soft.
- the human body feels less windy.
- each adjacent two upper wind deflectors 311 are in contact to blow air in the air duct from the vent holes on the plurality of upper wind deflectors 311. That is, when the angle between the vertical surface of each of the upper air deflector 311 and the air outlet 110 is a first angle, each adjacent two upper air deflectors 311 are in contact to cover the air outlet 110, due to the adjacent two The upper air deflectors 311 are in contact with each other and are close to the gapless state, so that the wind in the air duct blows the air outlets 110 from the plurality of ventilation holes of each of the upper air deflectors 311.
- each upper air deflector 311 is at an angle with the vertical plane of the air outlet 110, and there is a gap between each adjacent two upper air deflectors 311, at least a portion of the air in the air duct is from each A plurality of ventilation holes on the upper air deflector 311 are blown toward the corresponding gaps, and then the air outlets 110 are blown out. That is, when the angle between the vertical surface of each of the upper air deflector 311 and the air outlet 110 is a second angle, there is a gap between each adjacent two upper air deflectors 311, and there is a gap in the air duct.
- the first angle and the second angle may be specifically set according to a specific structure of the air conditioner cabinet, for example, a specific size of the upper air deflector 311, and is not specifically limited herein.
- the first angle is from 0 degrees to 5 degrees and the second angle is from 10 degrees to 20 degrees.
- the angle between each upper wind deflector 311 and the vertical plane of the air outlet 110 is degree, which means that the upper air deflector 311 is parallel to the vertical plane of the air outlet 110, and the upper air deflector 311 is The direction of the wind is vertical to block the flow of wind.
- the air conditioner cabinet of the embodiment of the present invention by providing a plurality of ventilation holes on each of the upper air guiding plates 311, and the plurality of upper air guiding plates 311 are rotatable, the plurality of upper air guiding plates 311 can be rotated to The state of the air outlet 110 is covered, so that most of the air in the air duct blows out of the air outlet 110 from the air vent, which reduces the wind speed and disperses the flow direction of the wind, so that the wind blown from the air outlet 110 is softened to improve the comfort of the body.
- the air outlet area provided by the upper air deflector 311 is larger than the air outlet 110 on the side of the air outlet 110 near the volute (the side with a higher wind speed).
- the area of the wind on one side of the tongue (the side with the lower wind speed).
- the upper air deflector 311 realizes an air outlet area near the volute side, and there are many ways to obtain an air outlet area closer to the volute side. Two specific implementations are given below.
- the density of the opening of each of the upper air deflectors 311 is equivalent.
- the arrangement density of the upper air deflector 311 in the air outlet 110 near the volute side is greater than that of the upper air deflector 311 in the air outlet 110.
- the upper air deflector 311 has different opening density.
- the upper air deflector 311 having a large opening density is disposed on the side of the air outlet 110 near the volute, and the upper opening density is small.
- the wind plate 311 is disposed in a side of the air outlet 110 near the volute tongue.
- the opening density of the upper air deflector 311 can be arranged in a linear or non-linear manner, so that the air outlet area exhibits a predetermined regularity. In accordance with the difference in wind speed, the air outlet speed of the lower portion of the entire air outlet 110 or the lower air outlet 112 is equivalent.
- the air outlet area provided by the upper air deflector 311 is smaller than the air outlet 110 near the volute on the side of the air outlet 110 near the volute (the side with a higher wind speed).
- the area of the wind on one side (the side with the lower wind speed).
- the upper air deflector 311 realizes an air outlet area close to the volute side, and there are various ways to be smaller than the air outlet area near the volute side. Two specific implementations are given below.
- the density of the opening of each of the upper air deflectors 311 is equivalent.
- the arrangement density of the upper air deflector 311 in the air outlet 110 near the volute side is smaller than that of the upper air deflector 311 in the air outlet 110.
- the upper air deflector 311 has different opening density.
- the upper air deflector 311 having a small opening density is disposed in the air outlet 110 on the side close to the volute, and the upper opening density is large.
- the wind plate 311 is disposed in a side of the air outlet 110 near the volute tongue.
- the opening density of the upper air deflector 311 can be arranged in a linear or non-linear manner, so that the air outlet area exhibits a predetermined regularity. In accordance with the difference in wind speed, the amount of air discharged from the lower portion of the entire air outlet 110 or the lower air outlet 112 is equivalent.
- the lower air deflector assembly 320 includes a lower air deflector 321 , a lower mount 350 , and a drive motor 340 for driving the lower wind deflector 321 .
- the lower air deflector 321 and the drive motor 340 are respectively disposed on the lower mount 350 .
- the driving motor 340 is fixedly disposed on the lower fixing base 350, and the rotating shaft of the driving motor 340 is fixedly connected with the rotating shaft of the lower air guiding plate 321 to drive the lower air guiding plate 321 to rotate.
- the number of the lower air guiding plates 321 is plural, and the plurality of lower air guiding plates 321 are arranged along the longitudinal direction of the lower fixing base 350 (after the mounting, along the width direction of the air outlet 110), and the rotating shaft and the extension of one end of each lower air guiding plate 321 It is inside the shaft hole of the lower holder 350.
- the plurality of lower air guiding plates 321 are connected by a connecting rod. When the lower air guiding plate 321 is rotated, the other lower air guiding plates 321 are driven to rotate by the connecting rods.
- the lower air guiding plate 321 defines a plurality of ventilation holes along the thickness direction thereof, and the ventilation holes penetrate the lower air guiding plate 321 .
- the airflow after the heat exchange passes through the lower air deflector 321
- the airflow passing through the lower air deflector 321 is very flexible, or has a sense of breeze or no wind, but can transfer cold energy or heat energy to the indoors. air.
- the air outlets 110 extend in the vertical direction, and the plurality of lower air guiding plates 321 respectively extend vertically and are distributed in the horizontal direction, and each of the lower air guiding plates 321 is formed in a sheet shape, each of which is downwardly guided.
- the wind plate 321 has a state of being at an angle to the vertical surface of the air outlet 110 where the air outlet 110 is located.
- the angle of the angle may be varied, for example, having a third angle and a fourth angle. In the third angle, each adjacent two lower wind deflectors 321 are in contact to make air in the air passage from the plurality of Ventilation holes on the wind deflector 321 are blown out.
- each lower wind deflector 321 is at an angle to the vertical plane of the air outlet 110, and there is a gap between each adjacent two lower air deflectors 321 , at least a portion of the air in the air duct from each A plurality of ventilation holes on the lower air deflector 321 are blown toward the corresponding gaps, and the air outlets 110 are blown out. Of course, it can also be blown directly from the air passage through the gap.
- the angle between the lower air deflector 321 and the plane of the air outlet 110 can be set to be infinitely adjusted, that is, the range is 0 to 180 degrees, and different angles correspond to different working conditions.
- the shape of the vertical surface of the air outlet 110 is related to the shape of the casing, and the direction in which the air outlet 110 extends in the vertical direction is a curve, and the extending direction of the air outlet 110 in the horizontal direction is a curve, which can exist independently of each other.
- the direction in which the air outlet 110 extends in the vertical direction is a curve and the direction in which the air outlet 110 extends in the horizontal direction is a curve.
- the extending direction of the air outlet 110 in the horizontal direction is a curve
- the extending direction of the vertical surface of the air outlet 110 in the horizontal direction is also a curve, and at this time, each of the lower air guiding plate 321 and the air outlet 110 are vertical.
- the angle of formation means that there is an angle between each lower wind deflector 321 and a vertical tangent at a corresponding position on the vertical plane of the air outlet 110. It can be understood that the vertical surface of the air outlet 110 can also be formed into a plane. Since the plurality of lower air guiding plates 321 can rotate in the air outlet 110, the air outlets 110 have an air guiding state and a covering state. In the air guiding state, the plurality of lower air guiding plates 321 open the air outlets 110, and the air in the air ducts The air is blown out from the air outlet 110 under the guidance of the plurality of lower air guiding plates 321.
- the plurality of lower air guiding plates 321 are rotated such that the adjacent two lower air guiding plates 321 are in contact or have a gap, in which case, due to the blocking condition of the plurality of lower air guiding plates 321, the air ducts Most of the wind is blown out from a plurality of vent holes on each of the lower air deflectors 321 to reduce the wind speed due to the reduction of the air outlet passages, while the plurality of vent holes break up the wind, so that the wind blown from the air outlets 110 is soft.
- the human body feels less windy.
- each adjacent two lower wind deflectors 321 are in contact to blow air in the air duct from the vent holes on the plurality of lower wind deflectors 321 . That is, when the angle between the vertical surface of each of the lower air deflector 321 and the air outlet 110 is a third angle, each adjacent two lower air deflectors 321 are in contact to cover the air outlet 110, due to the adjacent two The lower air deflectors 321 are in contact with each other and are close to the gapless state, so that the wind in the air duct blows the air outlets 110 from the plurality of ventilation holes of each of the lower air deflectors 321 .
- a part of one of the lower wind deflectors 321 of each of the two adjacent lower wind deflectors 321 is placed on the other lower guide.
- On the wind plate 321 that is, a part of the adjacent two lower wind deflectors 321 are in an overlapping state.
- the adjacent two lower air deflectors 321 may not overlap.
- each lower wind deflector 321 is at an angle to the vertical plane of the air outlet 110, and there is a gap between each adjacent two lower air deflectors 321 , at least a portion of the air in the air duct from each A plurality of vent holes on the lower air deflector 321 are blown toward the corresponding gaps, and the air outlets 110 are blown out.
- each of the lower air deflector 321 and the air outlet 110 when the angle between the vertical surface of each of the lower air deflector 321 and the air outlet 110 is the fourth angle, there is a gap between each adjacent two lower air deflectors 321 without contact, and the air passage is When the wind blows toward the air outlet 110, a part of the wind flows directly through the gap, and another part of the wind flows from the plurality of ventilation holes of each lower wind deflector 321 to the gap, so that the wind flows from the plurality of ventilation holes to the gap. Disturbing the direction and speed of the wind flowing directly to the gap acts as a spoiler, thereby softening the wind blown from the air outlet 110.
- the third angle and the fourth angle can be specifically set according to the specific structure of the air conditioner cabinet, for example, the specific size of the lower air deflector 321 , and is not specifically limited herein.
- the third angle is from 0 degrees to 5 degrees and the fourth angle is from 10 degrees to 20 degrees.
- the angle between each lower wind deflector 321 and the vertical plane of the air outlet 110 is degree, which means that the lower air deflector 321 is parallel to the vertical plane of the air outlet 110, and the lower air deflector 321 is The direction of the wind is vertical to block the flow of wind.
- the plurality of lower air guiding plates 321 can be rotated to The state of the air outlet 110 is covered, so that most of the air in the air duct blows out of the air outlet 110 from the air vent, which reduces the wind speed and disperses the flow direction of the wind, so that the wind blown from the air outlet 110 is softened to improve the comfort of the body.
- the air outlet area provided by the lower air deflector 321 is larger than the air outlet area of the air outlet 110 on the side close to the volute (the side with a higher wind speed).
- the lower air deflector 321 realizes an air outlet area near the volute side, and there are many ways to obtain an air outlet area closer to the volute side. Two specific implementations are given below.
- the density of the opening of each lower wind deflector 321 is equivalent. At this time, the density of the lower wind deflector 321 in the air outlet 110 near the volute side is greater than that of the lower air deflector 321 in the air outlet 110. The density of the arrangement on the side of the volute.
- the lower air deflector 321 has different opening densities.
- the lower air deflector 321 having a large opening density is disposed on the side of the air outlet 110 near the volute, and the lower opening density is small.
- the wind plate 321 is disposed in a side of the air outlet 110 near the volute tongue.
- the opening density of the lower air deflector 321 can be arranged in a linear or non-linear manner, so that the air outlet area exhibits a predetermined regularity. In accordance with the difference in wind speed, the air outlet speed of the lower portion of the entire air outlet 110 or the lower air outlet 112 is equivalent.
- the air outlet area provided by the lower air deflector 321 is smaller than the air outlet 110 near the volute on the side of the air outlet 110 near the volute (the side with a higher wind speed).
- the area of the wind on one side (the side with the lower wind speed).
- the lower air deflector 321 realizes an air outlet area close to the volute side, and there are various ways of being smaller than the air outlet area near the volute side. Two specific implementations are given below.
- the density of the opening of each of the lower air guiding plates 321 is equivalent.
- the arrangement density of the lower air guiding plate 321 in the air outlet 110 near the volute side is smaller than that of the lower air guiding plate 321 in the air outlet 110.
- the lower air deflector 321 has different opening densities.
- the lower air deflector 321 having a small opening density is disposed on the side of the air outlet 110 near the volute, and the lower opening density is large.
- the wind plate 321 is disposed in a side of the air outlet 110 near the volute tongue.
- the opening density of the lower air deflector 321 can be arranged in a linear or non-linear manner, so that the air outlet area exhibits a predetermined regularity. In accordance with the difference in wind speed, the amount of air discharged from the lower portion of the entire air outlet 110 or the lower air outlet 112 is equivalent.
- An upper base corresponding to the upper fixing base 330 may be disposed at a lower end of the upper air guiding plate 311, and a plurality of shaft holes corresponding to the rotating shaft of the upper air guiding plate 311 are disposed on the upper base.
- the upper base and the upper fixing base 330 are fixed in the same position, and are fixedly connected to the housing 100 or the air outlet frame.
- an upper supporting flange is provided at the lower end of the upper air deflector 311, near the rotational axis of the upper air deflector 311, or at a position where the rotating shaft of the upper air deflector 311 is connected to the air guiding vane.
- the upper support flange is disposed along the circumferential direction of the rotating shaft of the upper wind deflector 311.
- the diameter of the upper support flange is larger than the diameter of the shaft hole of the upper base, and the radial dimension of the rotating shaft of the upper air deflector 311 is smaller than the diameter of the shaft hole of the upper base.
- the upper support flange is supported on the upper base to prevent friction between the rotating shaft of the upper air deflector 311 and the bottom of the shaft hole, thereby reducing the support area and reducing the upper guide wind.
- an upper support rib is disposed on a side of the upper support flange facing the upper base.
- the lower end of the lower air guiding plate 321 may be provided with a lower base corresponding to the lower fixing base 350, and the lower base is provided with a plurality of shaft holes corresponding to the rotating shaft of the lower air guiding plate 321 .
- the lower base and the lower mount 350 are fixed in the same position and are fixedly connected to the housing 100 or the air outlet frame.
- a lower support flange is provided at an upper end of the lower air deflector 321 at a position close to the rotation axis of the lower air guide plate 321, or at a position where the lower air guide plate 321 is coupled to the wind guide vane.
- the lower support flange is disposed along the circumferential direction of the lower shaft of the lower air deflector 321 .
- the diameter of the lower support flange is larger than the diameter of the shaft hole of the lower base, and the radial dimension of the lower guide shaft 321 is smaller than the diameter of the shaft hole of the lower base.
- the functions of the upper mount 330 and the lower mount 350 are integrated, even integrally formed, and the integrally formed component is a middle mount.
- the shafts are provided on both sides of the middle fixed seat, and the shaft holes on both sides can be coaxially connected, or different shafts and no communication, and can be designed according to actual needs.
- the shaft holes on both sides of the fixing seat are in communication, when the upper air guiding plate 311 and the lower air guiding plate 321 are installed, there is a gap between the rotating shaft of the upper air guiding plate 311 and the rotating shaft of the lower air guiding plate 321 . That is, the sum of the rotation axes of the upper air deflector 311 and the lower air deflector 321 is smaller than the hole depth of the shaft hole.
- the middle fixing seat is fixedly connected to the housing 100 or the air outlet frame.
- the connection between the lower end of the upper air deflector 311 and the middle mount is the same as that of the upper air deflector 311 and the upper base, and details are not described herein again.
- the connection between the upper end of the lower air guiding plate 321 and the middle fixing base is the same as that of the lower air guiding plate 321 and the lower base, and details are not described herein again.
- middle mount can be integrally formed or assembled from multiple components.
- the invention further provides an air conditioner cabinet machine, comprising: a memory and a control method of the air conditioner cabinet stored in the memory, the specific steps of the control method of the air conditioner cabinet machine refer to the above embodiment, because the air conditioner cabinet adopts All the technical solutions of all the above embodiments are provided, so that at least all the beneficial effects brought by the technical solutions of the above embodiments are not repeated herein.
- the air conditioner cabinet includes: a casing, an upper windless component 210, a lower windless component 220, a memory, a processor, and an air conditioner stored on the memory and operable on the processor
- the control program of the machine wherein: the air outlet 110 is opened on the surface of the casing; the upper windless component 210 and the lower windless component 220 are sequentially disposed along the air outlet 110, and the upper windless component 210
- the closing and opening control of the upper part of the air outlet 110 has no windless feeling, and the closing and opening of the lower windless component 220 controls whether there is no windless feeling in the lower part of the air outlet 110;
- the control program of the air conditioning cabinet is executed by the processor The steps of implementing the control method of the air conditioner cabinet.
- the present invention further provides a computer readable storage medium storing a control method of an air conditioner cabinet.
- the specific steps of the control method of the air conditioner cabinet refer to the above embodiment, because the computer readable storage medium is used. All the technical solutions of all the above embodiments are provided, so that at least all the beneficial effects brought by the technical solutions of the above embodiments are not repeated herein.
- the computer readable storage medium stores a control program of the air conditioner cabinet, and the control program of the air conditioner cabinet is implemented by the processor to implement the step of controlling the air conditioner cabinet.
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Abstract
一种空调柜机及其控制方法,所述空调柜机包括壳体(100),所述壳体(100)具有出风口(110),对应所述出风口(110),沿所述壳体(100)的高度方向依次设置有上无风感组件(210)和下无风感组件(220),空调柜机的控制方法包括以下步骤:根据预设温度同时开启上无风感组件(210)和下无风感组件(220),以使空调柜机正常送风;获取当前室内温度,比对室内温度和预设温度;当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件(210)或下无风感组件(220)。
Description
技术领域
本发明涉及空调技术领域,特别涉及一种空调柜机及其控制方法。
背景技术
现有的空调器,在使用过程中,随着使用时间的增加,室内温度逐渐发生变化,当环境温度接近或者达到预设温度时,冷流或者暖流仍然直吹用户。由于气流长期直吹,使得户感到不适。
发明内容
本发明的主要目的是提供一种空调柜机的控制方法,旨在提高用户使用空调器的舒适感。
为实现上述目的,本发明提出的一种空调柜机的控制方法,所述空调柜机包括壳体,所述壳体具有出风口,对应所述出风口,沿所述壳体的高度方向依次设置有上无风感组件和下无风感组件,空调柜机的控制方法包括以下步骤:
根据预设温度同时开启上无风感组件和下无风感组件,以使空调柜机正常送风;
获取当前室内温度,比对室内温度和预设温度;
当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件。
优选地,在所述获取当前室内温度,比对室内温度和预设温度的步骤之后还包括:
当室内温度与预设温度差值的绝对值小于或等于第二预设温差时,同时关闭上无风感组件和下无风感组件;其中,所述第二预设温差小于所述第一预设温差。
优选地,所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件的步骤具体包括:
当当前工作模式为制热模式,且室内温度与预设温度差值的绝对值小于或等于第一预设温差时,关闭上无风感组件;
当当前工作模式为制冷模式,且室内温度与预设温度差值的绝对值小于或等于第一预设温差时,关闭下无风感组件。
优选地,在所述根据预设温度同时开启上无风感组件和下无风感组件的步骤之后还包括:
检测预设区域内是否有孩童;其中,预设区域为空调柜机的送风区域靠近出风口位置的区域;
若是,则关闭下无风感组件。
优选地,空调柜机包括上红外检测器和中红外检测器,上红外检测器设置在出风口的上部,中红外检测器设置在出风口的中部;
所述检测预设区域内是否有孩童的步骤具体包括:
上红外检测器检测其检测区域内是否有热源靠近;
中红外检测器检测其检测区域内是否有热源靠近;
当上红外检测器未检测到有热源靠近,且中红外检测器检测到有热源靠近时,判断预设区域内有孩童靠近。
优选地,所述上无风感组件包括左右导风的上导风板,所述下无风感组件包括左右导风的下导风板,所述上导风板和所述下导风板上均开设若干供气流通过的通风孔;
所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件的步骤具体包括:
当前室内温度与预设温度的差值的绝对值为当前温差,第一预设温差与当前温差之间的差值为相对温差;
根据相对温差,调整所述上导风板或下导风板与所述出风口平面之间的偏转角度,以调节无风感的程度。
优选地,所述上无风感组件包括上下导风的上百叶,所述下无风感组件包括上下导风的下百叶,所述上百叶和所述下百叶上均开设若干供气流通过的通风孔;
所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件的步骤具体包括:
当前室内温度与预设温度的差值的绝对值为当前温差,第一预设温差与当前温差之间的差值为相对温差;
根据相对温差,调整所述上百叶或下百叶与所述出风口平面之间的偏转角度,以调节无风感的程度。
优选地,所述上无风感组件包括上无风感门体,所述下无风感组件包括下无风感门体,所述上无风感门体和所述下无风感门体上均开设若干供气流通过的通风孔;
所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件的步骤具体包括:
当前室内温度与预设温度的差值的绝对值为当前温差,第一预设温差与当前温差之间的差值为相对温差;
根据相对温差,调整所述上无风感门体或下无风感门体相对于所述出风口的位置,以调节无风感的程度。
本发明进一步提出一种空调柜机,所述空调柜机的包括:机壳、上无风感组件、下无风感组件、存储器、处理器及存储在所述存储器上并可在所述处理器上运行的空调柜机的控制程序,其中:
所述机壳表面开设有出风口;
所述上无风感组件和所述下无风感组件沿所述出风口依次设置,上无风感组件的关闭和打开控制出风口上部有无无风感,下无风感组件的关闭和打开控制出风口下部有无无风感;
所述空调柜机的控制程序被所述处理器执行时实现空调柜机的控制方法,该空调柜机的控制方法包括以下步骤:
根据预设温度同时开启上无风感组件和下无风感组件,以使空调柜机正常送风;
获取当前室内温度,比对室内温度和预设温度;
当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件。
优选地,所述上无风感组件包括开设有通风孔的上导风板、开设有通风孔的上百叶以及开设有通风孔的上无风感门体中一个或多个;
所述下无风感组件包括开设有通风孔的下导风板、开设有通风孔的下百叶以及开设有通风孔的下无风感门体中一个或多个。
优选地,所述空调柜机为贯流空调柜机,所述出风口沿所述壳体的长度方向开设。
本发明进一步提出一种计算机可读存储介质,所述计算机可读存储介质上存储有空调柜机的控制程序,所述空调柜机的控制程序被处理器执行时实现空调柜机的控制方法,该空调柜机的控制方法包括以下步骤:
根据预设温度同时开启上无风感组件和下无风感组件,以使空调柜机正常送风;
获取当前室内温度,比对室内温度和预设温度;
当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件。
本发明技术方案中,为了快速调节室内温度,空调柜机正常全速送风;在空调柜机工作一段时间后,获取当前室内温度,并比较当前室内环境温度和预设温度;当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件,使得用户在合适的时机享受到无风感带来的舒适感,即本发明的技术方案,既可以满足用户快速调节温度的需求,又可以在合适的时机给予用户舒适的无风感。
附图说明
为了更清楚地说明本发明实施例或现有技术中的技术方案,下面将对实施例或现有技术描述中所需要使用的附图作简单地介绍,显而易见地,下面描述中的附图仅仅是本发明的一些实施例,对于本领域普通技术人员来讲,在不付出创造性劳动的前提下,还可以根据这些附图示出的结构获得其他的附图。
图1为本发明空调柜机上无风感组件和下无风感组件同时打开的结构示意图;
图2为本发明空调柜机上无风感组件关闭,下无风感组件打开的结构示意图;
图3为本发明空调柜机上无风感组件打开,下无风感组件关闭的结构示意图;
图4为本发明空调柜机上无风感组件和下无风感组件同时关闭的结构示意图;
图5为发明空调柜机上导风板和下导风板的结构示意图;
图6为图5中A处的放大结构示意图;
图7为图5中B处的放大结构示意图;
图8为发明空调柜机上百叶和下百叶的结构示意图;
图9为本发明空调柜机上无风感门体和下无风感门体同时关闭的结构示意图;
图10为本发明空调柜机的内部结构示意图。
附图标号说明:
标号 | 名称 | 标号 | 名称 |
100 | 壳体 | 110 | 出风口 |
210 | 上无风感组件 | 220 | 下无风感组件 |
310 | 上导风板组件 | 320 | 下导风板组件 |
311 | 上导风板 | 321 | 下导风板 |
330 | 上固定座 | 340 | 驱动电机 |
350 | 下固定座 | 410 | 上百叶组件 |
420 | 下百叶组件 | 510 | 上门体组件 |
511 | 上无风感门体 | 520 | 下门体组件 |
521 | 下无风感门体 |
本发明目的的实现、功能特点及优点将结合实施例,参照附图做进一步说明。
具体实施方式
下面将结合本发明实施例中的附图,对本发明实施例中的技术方案进行清楚、完整地描述,显然,所描述的实施例仅仅是本发明的一部分实施例,而不是全部的实施例。基于本发明中的实施例,本领域普通技术人员在没有作出创造性劳动前提下所获得的所有其他实施例,都属于本发明保护的范围。
需要说明,本发明实施例中所有方向性指示(诸如上、下、左、右、前、后……)仅用于解释在某一特定姿态(如附图所示)下各部件之间的相对位置关系、运动情况等,如果该特定姿态发生改变时,则该方向性指示也相应地随之改变。
另外,在本发明中涉及“第一”、“第二”等的描述仅用于描述目的,而不能理解为指示或暗示其相对重要性或者隐含指明所指示的技术特征的数量。由此,限定有“第一”、“第二”的特征可以明示或者隐含地包括至少一个该特征。另外,各个实施例之间的技术方案可以相互结合,但是必须是以本领域普通技术人员能够实现为基础,当技术方案的结合出现相互矛盾或无法实现时应当认为这种技术方案的结合不存在,也不在本发明要求的保护范围之内。
参照图1至图4,本发明主要涉及贯流空调柜机的结构、控制方法和功能改进,下面主要从结构和控制方法的改进来体现功能的改进,以及本发明中贯流空调柜机的工作原理。
贯流空调柜机包括壳体100,进风组件、换热组件610、送风组件620以及导风组件,其中,进风组件、换热组件610、送风组件620以及导风组件均与壳体100固定连接。下面介绍上述各组件之间的具体连接关系和位置关系。壳体100沿上下方向呈柱状设置,壳体100的左侧、右侧和/或后侧开设有进风口120,进风口120可以沿壳体100的高度方向延伸;壳体100的前侧开设有出风口110,出风口110沿壳体100的高度方向延伸,在进风口120和出风口110之间形成有风道。进风组件可以包括进风格栅、过滤网等,进风组件沿进风口120的长度方向,设置在壳体100上对应进风口120的位置。换热组件610可以包括换热器611、换热器611支架以及电辅热等,换热组件610沿壳体100的高度方向对应出风口110设置于风道内。送风组件620可以包括贯流风轮621,用于驱动贯流风轮621的风轮电机等,其中,贯流风轮621沿壳体100的高度方向设置于风道内。送风组件620包括导风板组件、百叶组件,以及门体组件等等,其中,导风板组件、百叶组件以及门体组件均沿出风口110的长度方向,设置于壳体100上对应出风口110的位置,以引导贯流空调柜机的出风方向。导风板组件位于百叶组件和门体组件之间,当然,在一些实施中百叶组件和导风板组件的位置,可以根据实际需求进行调整。
其中,贯流风轮621可以包括上风轮和下风轮,且均沿壳体100的高度方向设置于风道内,上风轮和下风轮分别由不同的电机单独驱动,使得上风轮和下风轮的转速可以不同;上、下风轮的转动轴线可以同轴以提高气流稳定性,也可以根据实际需要设置为不同轴。此时的风道可以为一个整体的风道,当然也可以对应上风轮和下风轮形成上风道和下风道。通过将贯流风轮621设置为上风轮和下风轮
,使得出风口110上部和出风口110下部的出风情况可以根据实际需要进行调整。
参照图4至图9导风板组件可以包括上导风板组件310和下导风板组件320,且上导风板组件310和下导风板组件320均沿出风口110的长度方向设置于出风口110处;上导风板组件310和下导风板组件320分别由不同的电机单独驱动,单独控制送风;上导风板组件310和下导风板组件320可以位于同一工作平面(工作平面并非绝对意义的平面,仅用于说明两组导风板的空间位置)内,也可以根据实际需要设置在不同的工作平面内。此时,出风口110被分为上出风口111和下出风口112,分别由上导风板组件310和下导风板组件320控制送风。通过将导风板组件设置为上导风板组件310和下导风板组件320,使得出风口110的上部和下部的送风情况可以根据实际需要进行调整。当导风板为无风感导风板时,上导风板组件310和下导风板组件320可以分别实现上出风口111和下出风口112的无风感送风。以导风板为无风感导风板为例,当在某一工况下,关闭下导风板组件320时,实现下出风口112的无风感送风,上出风口111的传统送风。在此过程中,风轮对上、下出风口112的送风速度相当,由于下出风口112出风受阻,使得风道下部的风压逐渐增加,当风道下部的风压大于上部风道的风压时,风道下部的气流将有一部分流向风道上部,使得风道上部的风压增加,从而使得上出风口111的出风风速得到增加,送风距离也得到增加。同理,当在某一工况下,关闭上导风板组件310时,实现上出风口111的无风感送风,上出风口111的传统送风。在此过程中,风轮对上、下出风口112的送风速度相当,由于上出风口111出风受阻,使得风道上部的风压逐渐增加,当风道上部的风压大于下部风道的风压时,风道上部的气流将有一部分流向风道下部,使得风道下部的风压增加,从而使得下出风口112的出风风速得到增加,送风距离也得到增加。当然,当上导风板组件310和下导风板组件320都关闭进行无风感送风时,整个风道内的风压都会增加。
百叶组件可以包括上百叶组件410和下百叶组件420,且上百叶组件410和下百叶组件420均沿出风口110的长度方向设置于出风口110处;上百叶组件410和下百叶组件420分别由不同的电机单独驱动,单独控制送风;上百叶组件410和下百叶组件420可以位于同一工作平面(工作平面并非绝对意义的平面,仅用于说明两组百叶的空间位置)内,也可以根据实际需要设置在不同的工作平面内。此时,出风口110被分为上出风口111和下出风口112,分别由上百叶组件410和下百叶组件420控制送风。通过将百叶组件设置为上百叶组件410和下百叶组件420,使得出风口110的上部和下部的送风情况可以根据实际需要进行调整。当百叶为无风感百叶时,上百叶组件410和下百叶组件420可以分别实现上出风口111和下出风口112的无风感送风。以百叶为无风感百叶为例,当在某一工况下,关闭下百叶组件420时,实现下出风口112的无风感送风,上出风口111的传统送风。在此过程中,风轮对上、下出风口112的送风速度相当,由于下出风口112出风受阻,使得风道下部的风压逐渐增加,当风道下部的风压大于上部风道的风压时,风道下部的气流将有一部分流向风道上部,使得风道上部的风压增加,从而使得上出风口111的出风风速得到增加,送风距离也得到增加。同理,当在某一工况下,关闭上百叶组件410时,实现上出风口111的无风感送风,下出风口112的传统送风。在此过程中,风轮对上、下出风口的送风速度相当,由于上出风口111出风受阻,使得风道上部的风压逐渐增加,当风道上部的风压大于下部风道的风压时,风道上部的气流将有一部分流向风道下部,使得风道下部的风压增加,从而使得下出风口112的出风风速得到增加,送风距离也得到增加。当然,当上百叶组件410和下百叶组件420都关闭进行无风感送风时,整个风道内的风压都会增加。
门体组件可以包括上门体组件510和下门体组件520,且上门体组件510和下门体组件520均沿出风口110的长度方向设置于出风口110处;上门体组件510和下门体组件520分别由不同的电机单独驱动,单独控制送风;上门体组件510和下门体组件520可以位于同一工作平面(工作平面并非绝对意义的平面,仅用于说明两组门体的空间位置)内,也可以根据实际需要设置在不同的工作平面内。此时,出风口110被分为上出风口111和下出风口112,分别由上门体组件510和下门体组件520控制送风。通过将门体组件设置为上门体组件510和下门体组件520,使得出风口110的上部和下部的送风情况可以根据实际需要进行调整。当门体为无风感门体时,上门体组件510和下门体组件520可以分别实现上出风口111和下出风口112的无风感送风。以门体为无风感门体为例,当在某一工况下,关闭下门体组件520时,实现下出风口112的无风感送风,上出风口111的传统送风。在此过程中,风轮对上、下出风口112的送风速度相当,由于下出风口112出风受阻,使得风道下部的风压逐渐增加,当风道下部的风压大于上部风道的风压时,风道下部的气流将有一部分流向风道上部,使得风道上部的风压增加,从而使得上出风口111的出风风速得到增加,送风距离也得到增加。同理,当在某一工况下,关闭上门体组件510时,实现上出风口111的无风感送风,下出风口112的传统送风。在此过程中,风轮对上、下出风口的送风速度相当,由于上出风口111出风受阻,使得风道上部的风压逐渐增加,当风道上部的风压大于下部风道的风压时,风道上部的气流将有一部分流向风道下部,使得风道下部的风压增加,从而使得下出风口112的出风风速得到增加,送风距离也得到增加。当然,当上门体组件510和下门体组件520都关闭进行无风感送风时,整个风道内的风压都会增加。
下面以导风板组件分为上导风板组件310和下导风板组件320为例进行具体介绍。
刚开机时,上导风板组件310和下导风板组件320均打开,此时根据当前的工作状态,全力送风,以快速的达到降温或升温目的。具体地,在制冷模式下,全力输送冷风,以使当前环境快速降温,以提高空调器降低温度的速度;在制热模式下,全力输送热风,以使当前环境快速升温,以提高空调器升高温度的速度。
开机一段时间后,根据当前工作模式和所检测的触发条件来控制控制上导风板组件310和下导风板组件320的工作情况。在制冷模式下,为了防止高速冷风直吹腿、足等,将下导风板组件320关闭,以实现空调柜机下部无风感,上部高速送风。在制热模式下,为了避免热风直吹头和脸,同时暖风暖足,将上部导风板组件关闭,下部导风板组件打开。在制冷模式和制热模式下,当空调器检测到有孩童靠近空调器的出风口110时,关闭下导风板组件320,以避免冷风或热水直吹孩童。
开机较长时间,环境问题达到预设温度时,不论是制冷模式还是制热模式,上导风板组件310和下导风板组件320同时关闭,以实现空调器的全面无风感,使得用户在不被直吹的情况下,可以享受到舒适的温度。
值得说明的是,实现上部无风感和下部无风感的方式,除了上述的导风板组件可以实现之外,门体组件和百叶组件均可以实现,其实现方式为分别控制上百叶组件410和下百叶组件420,分别控制上门体组件510和下门体组件520等。
另外,以上将时间作为触发打开和关闭上导风板组件310和下导风板组件320的触发条件,可以理解的是,该触发条件还可以为压缩机的工作频率,风机的转速,当前的环境温度等等。
下面以环境温度作为触发条件,来调节上无风感组件210和下无风感组件220,即通过检测温度来控制上无风感组件210和下无风感组件220的工作情况。
根据预设温度同时开启上无风感组件210和下无风感组件220,以使空调柜机正常送风;
具体地,本实施例中,上无风感组件210包括开设有通风孔的上导风板311、开设有通风孔的上百叶以及开设有通风孔的上无风感门体510中一个或多个。即上无风感组件210所包括的零部件可以根据不同的实际情况进行设置,以满足用于的无风感要求为准。下无风感组件220包括开设有通风孔的下导风板321、开设有通风孔的下百叶以及开设有通风孔的下无风感门体521中一个或多个。即下无风感组件220所包括的零部件可以根据不同的实际情况进行设置,以满足用于的无风感要求为准。刚开启空调器时,为了快速的升温或者降温,上无风感组件210和下无风感组件220全部开启。即此时上无风感组件210和下无风感组件220不实现无风感送风,使空调柜机全速送风以达到快速升温和降温的目的。值得说明的是,本申请中的无风感组件开启,指的是无风感组件打开出风口110,不干预送风形式。
获取当前室内温度,比对室内温度和预设温度;
获取当前室内温度的方式有很多,如通过温度检测装置检测等。在获取室内温度后,比较所检测的当前室内温度和预设温度,预设温度可以为用户另外设置的一个参考温度,也可以为用户开机时所设置的室内目标温度。空调柜机根据当前室内温度和预设温度的温差来控制上无风感组件210和下无风感组件220。
当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件210或下无风感组件220。室内温度与预设温度差值的绝对值小于或等于第一预设温差,说明此时的室内环境温度距离用户所期望的温度已经相差不是特别大,或者说,相较于开机前,室内环境温度已经有较大的调整。此时,用户不希望一些部位被直吹,例如头不希望被热风直吹,脚不希望被冷风直吹。可以通过关闭上无风感组件210以实现上部的无风感送风,或者关闭下无风感组件220以实现下部的无风感送风。即可以通过控制上无风感组件210和下无风感组件220来满足用户的需求。
当室内温度与预设温度差值的绝对值大于第一预设温差时,说明此时的室内环境温度距离用户所期望的温度相差较大,或者说,相较于开机前,室内环境温度还没有较大的调整。此时,用户更需要的是快速升温和降温,以满足急需的温度调整,因此,此时的上无风感组件210和下无风感组件220均继续处于开启状态,使得空调柜机依然高速送风。
本实施例中,开机时,为了快速调节室内温度,空调柜机正常全速送风;在空调柜机工作一段时间(为虚数,并不限定具体时长,可以为几分钟,也可以为几个小时)后,获取当前室内温度,并比较当前室内环境温度和预设温度;当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件210或下无风感组件220,使得用户在合适的时机享受到无风感带来的舒适感,即本发明的技术方案,既可以满足用户快速调节温度的需求,又可以在合适的时机给予用户舒适的无风感。
为了进一步的满足用户的需求,以进一步提高用户的舒适感,在所述获取当前室内温度,比对室内温度和预设温度的步骤之后还包括:
当室内温度与预设温度差值的绝对值小于或等于第二预设温差时,同时关闭上无风感组件210和下无风感组件220;其中,所述第二预设温差小于所述第一预设温差。
具体地,本实施例中,当室内温度与预设温度差值的绝对值小于或等于第二预设温差时,同时关闭上无风感组件210和下无风感组件220。室内温度与预设温度差值的绝对值小于或等于第二预设温差,说明此时的室内环境温度距离用户所期望的温度已经非常接近,或者在误差允许的范围内已经达到期望温度,或者说,相较于开机前,室内环境温度已经有非常大的调整。此时,环境温度已经基本满足用户的需求,不再需要高速送风,此时,用户不希望被气流直吹。可以通过关闭上无风感组件210以实现上部的无风感送风,和关闭下无风感组件220以实现下部的无风感送风。即可以通过控制上无风感组件210和下无风感组件220来满足用户的需求。其中,第二预设温差较小,即当前环境温度与预设温度非常接近或者相当。
通过第二预设温差的设置,使得用户在合适的时机可以享受到全无风感送风,使得用户既得到舒适的享受,又可以避免用户长期吹出,避免出现空调病,有利于用户健康的使用空调柜机。
为了满足用户不同的需求,关闭上无风感组件210或者上无风感组件210。
所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件210或下无风感组件220的步骤具体包括:
当当前工作模式为制热模式,且室内温度与预设温度差值的绝对值小于或等于第一预设温差时,关闭上无风感组件210。本实施例中,用户不希望高温的空气直吹人体的上部、头部等,希望暖气吹至人体的下部或者脚部,以达到暖退、暖脚的目的。此时,通过关闭上无风感组件210,以使空气从上出风口111经过通风孔流出,以使空调柜机上部实现无风感送风。使得用户健康、舒适的使用空调柜机。
当当前工作模式为制冷模式,且室内温度与预设温度差值的绝对值小于或等于第一预设温差时,关闭下无风感组件220。本实施例中,用户不希望低温的空气直吹人体的下部、脚部等,希望冷却吹至人体的上部或者脸部,以使用户可以直接的体验到凉爽。此时,通过关闭下无风感组件220,以使空气从出风口110下部经过通风孔流出,以使空调柜机下部实现无风感送风。使得用户健康、舒适的使用空调柜机。
为了保护好孩童,避免孩童由于被冷风吹太久而着凉,在所述根据预设温度同时开启上无风感组件210和下无风感组件220的步骤之后还包括:
检测预设区域内是否有孩童;其中,预设区域为空调柜机的送风区域靠近出风口110位置的区域;
具体地,本实施例中,预设区域为靠近空调柜机出风口110周边的区域,至于距离出风口110的具体数值,可以根据实际情况进行设置,可以为1米、2米、3米或4米等,在此不做特殊限定。检测预设区域内是否有孩童的工具有很多,例如,通过安装摄像头,摄像头采集图像后与存储在数据库中的数据进行比对,当比对的结果为所采集的图像为孩童图像时,判断靠近出风口110的人为孩童。其中,数据库可以为空调柜机自带的数据库,也可以为云端数据库。当然,在一些实施例中,还可以通过沿壳体100的高度方向设置多个红外检测装置来判断。
若是,则关闭下无风感组件220。如果当检测到预设区域内有孩童时,关闭下无风感组件220,使出风口110下部实现无风感送风,以避免气流直吹附近的孩童,从而有效保护孩童;当下无风感组件220关闭时,也将下出风口112下部封堵,以防止孩童将手升入空调器内,避免出现安全事故。
下面详细介绍通过红外检测器来判断是否为孩童的方法,空调柜机包括上红外检测器和中红外检测器,上红外检测器设置在出风口110的上部,中红外检测器设置在出风口110的中部;
所述检测预设区域内是否有孩童的步骤具体包括:
上红外检测器检测其检测区域内是否有热源靠近;上红外检测器设在出风口110的顶部,可以检测预设区域较高位置的热源,当上红外检测器,在预设区域较高位置没有检测到热源时,说明当前没有人在预设区域内,或者,在预设区域的较高位置没有人。
中红外检测器检测其检测区域内是否有热源靠近;中红外检测器设在出风口110的中部,可以检测预设区域中、下位置的热源,当中红外检测器,在预设区域中、下位置检测到热源时,说明在预设区域的中、下位置有人。
当上红外检测器未检测到有热源靠近,且中红外检测器检测到有热源靠近时,判断预设区域内有孩童靠近。
上红外检测器的检测和下红外检测器的检测,可以同时进行,没有先后顺序;当然,在一些实施例中,出于不同的出发点,也可以上红外检测器先检测,或者中红外检测器先检测。
为了进一步提高无风感送风的准确度,所述上无风感组件210包括左右导风的上导风板311,所述下无风感组件220包括左右导风的下导风板321,所述上导风板311和所述下导风板321上均开设若干供气流通过的通风孔;
所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件210或下无风感组件220的步骤具体包括:
当前室内温度与预设温度的差值的绝对值为当前温差,第一预设温差与当前温差之间的差值为相对温差;
根据相对温差,调整所述上导风板311或下导风板321与所述出风口110平面之间的偏转角度,以调节无风感的程度。
具体地,本实施中,相对温差为正值,即为当前温差与第一预设温差之间的差额,不包括符合。或者为二者做差,取绝对值。上导风板311和下导风板321的数量为多个,多个上导风板311沿出风口110的宽度方向排布,每一上导风板311沿出风口110的长度方向延伸。上导风板311左右摆动实现出风口110上部的左右导风。同理,多个下导风板321沿出风口110的宽度方向排布,每一下导风板321沿出风口110的长度方向延伸。下导风板321左右摆动实现出风口110下部的左右导风。每一上导风板311或下导风板321偏转的角度不同,通过通风孔的风量不同,无风感的效果也不同,即上导风板311和下导风板321的偏转角度,影响着空调柜机的无风感程度。偏转角度越小,覆盖出风口110的面积越大,经过通风孔的气流越多,无风感效果越好,当上导风板311和下导风板321将出风口110全部覆盖时,所有的气流都经通风孔流出,此时,上导风板311和下导风板321与出风口110平面之间的夹角非常小,无风感程度最高,效果最好;反之,偏转角度越大,覆盖出风口110的面积越小,经过通风孔的气流越少,无风感效果越差,当导风板和下导风板321与出风口110平面之间的夹角较大时,以上导风板311和下导风板321与出风口110平面垂直为例,此时,很少的气流经通风孔流出,甚至所有的气流都不经通风孔,此时,无风感程度低,效果差。
本实施例中,通过调节上导风板311和下导风板321与出风口110平面之间的夹角,来调节无风感的程度,从而适应不同的相对温差,使得快速调节温度和提高舒适感高度的统一在一起,有利于用户更加舒适的使用空调柜机。
为了进一步提高无风感送风的准确度,所述上无风感组件210包括上下导风的上百叶,所述下无风感组件220包括上下导风的下百叶,所述上百叶和所述下百叶上均开设若干供气流通过的通风孔;
所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件210或下无风感组件220的步骤具体包括:
当前室内温度与预设温度的差值的绝对值为当前温差,第一预设温差与当前温差之间的差值为相对温差;
根据相对温差,调整所述上百叶或下百叶与所述出风口110平面之间的偏转角度,以调节无风感的程度。
具体地,本实施中,相对温差为正值,即为当前温差与第一预设温差之间的差额,不包括符合。或者为二者做差,取绝对值。上百叶和下百叶的数量为多个,多个上百叶沿出风口110的高度方向排布,每一上百叶沿出风口110的宽度方向延伸。上百叶上下摆动实现出风口110上部的上下导风。同理,多个下百叶沿出风口110的高度方向排布,每一下百叶沿出风口110的宽度方向延伸。下百叶上下摆动实现出风口110下部的上下导风。每一上百叶或下百叶偏转的角度不同,通过通风孔的风量不同,无风感的效果也不同,即上百叶和下百叶的偏转角度,影响着空调柜机的无风感程度。偏转角度越小,覆盖出风口110的面积越大,经过通风孔的气流越多,无风感效果越好,当上百叶和下百叶将出风口110全部覆盖时,所有的气流都经通风孔流出,此时,上百叶和下百叶与出风口110平面之间的夹角非常小,无风感程度最高,效果最好;反之,偏转角度越大,覆盖出风口110的面积越小,经过通风孔的气流越少,无风感效果越差,当上百叶和下百叶与出风口110平面之间的夹角较大时,以上百叶和下百叶与出风口110平面垂直为例,此时,很少的气流经通风孔流出,甚至所有的气流都不经通风孔,此时,无风感程度低,效果差。
本实施例中,通过调节上百叶和下百叶与出风口110平面之间的夹角,来调节无风感的程度,从而适应不同的相对温差,使得快速调节温度和提高舒适感高度的统一在一起,有利于用户更加舒适的使用空调柜机。
为了进一步提高无风感送风的准确度,所述上无风感组件210包括上无风感门体510,所述下无风感组件220包括下无风感门体521,所述上无风感门体510和所述下无风感门体521上均开设若干供气流通过的通风孔;
所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件210或下无风感组件220的步骤具体包括:
当前室内温度与预设温度的差值的绝对值为当前温差,第一预设温差与当前温差之间的差值为相对温差;
根据相对温差,调整所述上无风感门体510或下无风感门体521相对于所述出风口110的位置,以调节无风感的程度。
具体地,本实施中,相对温差为正值,即为当前温差与第一预设温差之间的差额,不包括符合。或者为二者做差,取绝对值。上无风感门体510沿出风口110的宽度方向设置,上无风感门体510沿出风口110的长度方向延伸。上无风感门体510左右移动,实现出风口110上部无风感出风。同理,下无风感门体521沿出风口110的宽度方向设置,下无风感门体521沿出风口110的长度方向延伸。下无风感门体521左右移动实现出风口110下部的无风感送风。上无风感门体510或下无风感门体521的位置不同(覆盖出口的面积不同),通过通风孔的风量不同,无风感的效果也不同,即上无风感门体510和下无风感门体521在出风口110中的位置,影响着空调柜机的无风感程度。位于出风口110中间覆盖出风口110的面积越大,经过通风孔的气流越多,无风感效果越好,当上无风感门体510和下无风感门体521将出风口110全部覆盖时,所有的气流都经通风孔流出,此时,无风感程度最高,效果最好;反之,位置在出风口110一侧时,覆盖出风口110的面积越小,经过通风孔的气流越少,无风感效果越差,当上无风感门体510和下无风感门体521与出风口110平面的重合度较小时,很少的气流经通风孔流出,甚至所有的气流都不经通风孔,此时,无风感程度低,效果差。
本实施例中,通过调节上无风感门体510和下无风感门体521与出风口110平面之间的重合度(上无风感门体510覆盖出风口110的面积和下无风感门体521覆盖出风口110的面积),来调节无风感的程度,从而适应不同的相对温差,使得快速调节温度和提高舒适感高度的统一在一起,有利于用户更加舒适的使用空调柜机。
下面具体介绍上导风板组件310和下导风板组件320的安装和连接关系。
上导风板组件310包括上导风板311、上固定座330以及用于驱动上导风板311转动的驱动电机340,上导风板311和驱动电机340分别设置于上固定座330的两侧,驱动电机340固定设置在上固定座330上,且驱动电机340的转轴与一上导风板311的转轴固定连接,以驱动一上导风板311转动。上导风板311的数量为多个,多个上导风板311沿上固定座330的长度方向排列,每一上导风板311一端的转轴与延伸至上固定座330的轴孔内。多个上导风板311之间通过连杆连接,当其中一上导风板311转动时,通过连杆驱动其它上导风板311转动。上导风板311上开设若干沿其厚度方向的通风孔,通风孔贯穿上导风板311。当换热后的气流穿过上导风板311时,使通过上导风板311的气流非常柔合,或者说,有微风感或无风感,但是有可以将冷能或者热能传递至室内空气。
值得说明的是,出风口110在竖直方向上延伸,多个上导风板311分别竖直延伸且在水平方向上分布设置,每个上导风板311形成为片状,每个上导风板311具有与出风口110所在的出风口110竖直面成夹角的状态。夹角的度数范围可以有很多,以具有第一角度和第二角度为例,在第一角度内,每相邻两个上导风板311接触以使风道内的空气从所述多个上导风板311上的通风孔吹出。在第一角度,每相邻两个上导风板311中的其中一个上导风板311的一部分搭在另一个所述上导风板311上。在第二角度内,每个上导风板311与出风口110竖直面成夹角,且每相邻的两个上导风板311之间具有间隙,风道内的至少一部分空气从每个上导风板311上的多个通风孔吹向与其对应的间隙后吹出所述出风口110。当然,也可以直接从风道经过间隙吹出。当相邻上导风板311之间的间隙较大时,无风感效果较弱;当相邻上导风板311之间的间隙较小时,无风感效果较强。因此,上导风板311与出风口110平面之间的夹角可以设置为无极调节,即其范围为0~180度,不同的角度对应不同的工况需求。
可以理解的是,出风口110竖直面的形状与机壳的形状相关,出风口110竖直方向上延伸方向为曲线,和出风口110水平方向上的延伸方向为曲线,可以相互独立存在。以出风口110竖直方向上延伸方向为曲线和出风口110水平方向上的延伸方向为曲线同时存在为例。当出风口110在水平方向方向上的延伸方向为曲线时,则出风口110竖直面在水平方向上的延伸方向也为曲线,此时每个上导风板311与出风口110竖直面成夹角指的是每个上导风板311与出风口110竖直面相应位置处的竖直切线之间具有夹角。当然可以理解的是,出风口110竖直面还可以形成为平面。由于多个上导风板311可以在出风口110内转动,因此出风口110具有导风状态和覆盖状态,在导风状态时,多个上导风板311打开出风口110,风道内的空气在多个上导风板311的导引下从出风口110吹出。在覆盖状态时,多个上导风板311转动至使得相邻的两个上导风板311接触或者具有间隙,在该情况下,由于多个上导风板311的阻挡情况,风道内的大部分风从每个上导风板311上的多个通风孔吹出,从而由于出风通道的减小,降低风速,同时多个通风孔将风打散,使得从出风口110吹出的风柔和,人体感受到的风感较低。
具体而言,在第一角度内,每相邻两个上导风板311接触以使风道内的空气从多个上导风板311上的通风孔吹出。也就是说,在每个上导风板311与出风口110竖直面的夹角为第一角度时,每相邻两个上导风板311接触而覆盖出风口110,由于相邻的两个上导风板311之间接触而接近无间隙状态,因此风道内的风从每个上导风板311的多个通风孔吹出出风口110。其中为了进一步保证两个上导风板311之间的无间隙状态,在第一角度,每相邻两个上导风板311中的其中一个上导风板311的一部分搭在另一个上导风板311上,也就是说,相邻的两个上导风板311的一部分处于重叠状态。
在第二角度内,每个上导风板311与出风口110竖直面成夹角,且每相邻的两个上导风板311之间具有间隙,风道内的至少一部分空气从每个上导风板311上的多个通风孔吹向与其对应的间隙后吹出出风口110。也就是说,在每个上导风板311与出风口110竖直面的夹角为第二角度时,每相邻的两个上导风板311之间不接触而具有间隙,风道内的风在吹向出风口110时,一部分风会直接流经该间隙,另一部分风从每个上导风板311的多个通风孔流向该间隙,从而从多个通风孔流向该间隙的风会扰乱直接流向间隙的风的方向和速度,起到扰流的作用,从而使得从出风口110吹出的风柔和。
其中可以理解的是,该第一角度和第二角度可以根据空调柜机的具体结构例如上导风板311的具体尺寸进行具体设定,这里就不做具体限定。在本发明的一些示例中,第一角度为0度-5度,第二角度为10度-20度。可以理解的是,每个上导风板311与出风口110竖直面之间的夹角为度,指的是上导风板311平行于出风口110竖直面,上导风板311与出风方向呈垂直状态以阻挡风的流动。根据本发明实施例的空调柜机,通过在每个上导风板311上设有多个通风孔,且多个上导风板311可转动,从而可以将多个上导风板311转动至覆盖出风口110的状态,使得风道内的大部分空气从通风孔吹出出风口110,降低了风速且打散风的流向,使得从出风口110吹出的风柔和而提高体感舒适度。
为了进一步提高出风速度的均匀性,上导风板311提供的出风面积,在出风口110靠近蜗壳的一侧(风速较高的一侧)的出风面积,大于出风口110靠近蜗舌一侧(风速较低的一侧)的出风面积。
上导风板311实现靠近蜗壳侧的出风面积,大于靠近蜗舌侧的出风面积的方式有多种,下面举两个具体的实现方式。
第一种,每一上导风板311的开孔密度相当,此时,上导风板311在出风口110内靠近蜗壳侧的排布密度,大于上导风板311在出风口110内靠近蜗舌侧的排布密度。
第二种,上导风板311的开孔密度不同,此时,将开孔密度大的上导风板311设置在出风口110内靠近蜗壳的一侧,将开孔密度小的上导风板311设置在出风口110内靠近蜗舌的一侧。当然,在此种情况下,可以将上导风板311的开孔密度按照线性或者非线性的规律排列,使得出风面积呈现预设的规律。配合风速的不同,以使整个出风口110下部,或者说下出风口112的出风速度相当。
为了进一步提高出风量的均匀性,上导风板311提供的出风面积,在出风口110靠近蜗壳的一侧(风速较高的一侧)的出风面积,小于出风口110靠近蜗舌一侧(风速较低的一侧)的出风面积。
上导风板311实现靠近蜗壳侧的出风面积,小于靠近蜗舌侧的出风面积的方式有多种,下面举两个具体的实现方式。
第一种,每一上导风板311的开孔密度相当,此时,上导风板311在出风口110内靠近蜗壳侧的排布密度,小于上导风板311在出风口110内靠近蜗舌侧的排布密度。
第二种,上导风板311的开孔密度不同,此时,将开孔密度小的上导风板311设置在出风口110内靠近蜗壳的一侧,将开孔密度大的上导风板311设置在出风口110内靠近蜗舌的一侧。当然,在此种情况下,可以将上导风板311的开孔密度按照线性或者非线性的规律排列,使得出风面积呈现预设的规律。配合风速的不同,以使整个出风口110下部,或者说下出风口112的出风量相当。
下导风板组件320包括下导风板321、下固定座350以及用于驱动下导风板321转动的驱动电机340,下导风板321和驱动电机340分别设置于下固定座350的两侧,驱动电机340固定设置在下固定座350上,且驱动电机340的转轴与一下导风板321的转轴固定连接,以驱动一下导风板321转动。下导风板321的数量为多个,多个下导风板321沿下固定座350的长度方向(安装后沿出风口110的宽度方向)排列,每一下导风板321一端的转轴与延伸至下固定座350的轴孔内。多个下导风板321之间通过连杆连接,当其中一下导风板321转动时,通过连杆驱动其它下导风板321转动。下导风板321上开设若干沿其厚度方向的通风孔,通风孔贯穿下导风板321。当换热后的气流穿过下导风板321时,使通过下导风板321的气流非常柔合,或者说,有微风感或无风感,但是又可以将冷能或者热能传递至室内空气。
值得说明的是,出风口110在竖直方向上延伸,多个下导风板321分别竖直延伸且在水平方向上分布设置,每个下导风板321形成为片状,每个下导风板321具有与出风口110所在的出风口110竖直面成夹角的状态。夹角的度数范围可以有很多,以具有第三角度和第四角度为例,在第三角度内,每相邻两个下导风板321接触以使风道内的空气从所述多个下导风板321上的通风孔吹出。在第三角度,每相邻两个下导风板321中的其中一个下导风板321的一部分搭在另一个所述下导风板321上。在第四角度内,每个下导风板321与出风口110竖直面成夹角,且每相邻的两个下导风板321之间具有间隙,风道内的至少一部分空气从每个下导风板321上的多个通风孔吹向与其对应的间隙后吹出所述出风口110。当然,也可以直接从风道经过间隙吹出。当相邻下导风板321之间的间隙较大时,无风感效果较弱;当相邻下导风板321之间的间隙较小时,无风感效果较强。因此,下导风板321与出风口110平面之间的夹角可以设置为无极调节,即其范围为0~180度,不同的角度对应不同的工况需求。
可以理解的是,出风口110竖直面的形状与机壳的形状相关,出风口110竖直方向上延伸方向为曲线,和出风口110水平方向上的延伸方向为曲线,可以相互独立存在。以出风口110竖直方向上延伸方向为曲线和出风口110水平方向上的延伸方向为曲线同时存在为例。当出风口110在水平方向方向上的延伸方向为曲线时,则出风口110竖直面在水平方向上的延伸方向也为曲线,此时每个下导风板321与出风口110竖直面成夹角指的是每个下导风板321与出风口110竖直面相应位置处的竖直切线之间具有夹角。当然可以理解的是,出风口110竖直面还可以形成为平面。由于多个下导风板321可以在出风口110内转动,因此出风口110具有导风状态和覆盖状态,在导风状态时,多个下导风板321打开出风口110,风道内的空气在多个下导风板321的导引下从出风口110吹出。在覆盖状态时,多个下导风板321转动至使得相邻的两个下导风板321接触或者具有间隙,在该情况下,由于多个下导风板321的阻挡情况,风道内的大部分风从每个下导风板321上的多个通风孔吹出,从而由于出风通道的减小,降低风速,同时多个通风孔将风打散,使得从出风口110吹出的风柔和,人体感受到的风感较低。
具体而言,在第三角度内,每相邻两个下导风板321接触以使风道内的空气从多个下导风板321上的通风孔吹出。也就是说,在每个下导风板321与出风口110竖直面的夹角为第三角度时,每相邻两个下导风板321接触而覆盖出风口110,由于相邻的两个下导风板321之间接触而接近无间隙状态,因此风道内的风从每个下导风板321的多个通风孔吹出出风口110。其中为了进一步保证两个下导风板321之间的无间隙状态,在第三角度,每相邻两个下导风板321中的其中一个下导风板321的一部分搭在另一个下导风板321上,也就是说,相邻的两个下导风板321的一部分处于重叠状态。当然,在一些实施例中,只要保证相邻两下导风板321之间没有间隙,相邻两下导风板321可以不搭接。
在第四角度内,每个下导风板321与出风口110竖直面成夹角,且每相邻的两个下导风板321之间具有间隙,风道内的至少一部分空气从每个下导风板321上的多个通风孔吹向与其对应的间隙后吹出出风口110。也就是说,在每个下导风板321与出风口110竖直面的夹角为第四角度时,每相邻的两个下导风板321之间不接触而具有间隙,风道内的风在吹向出风口110时,一部分风会直接流经该间隙,另一部分风从每个下导风板321的多个通风孔流向该间隙,从而从多个通风孔流向该间隙的风会扰乱直接流向间隙的风的方向和速度,起到扰流的作用,从而使得从出风口110吹出的风柔和。
其中可以理解的是,该第三角度和第四角度可以根据空调柜机的具体结构例如下导风板321的具体尺寸进行具体设定,这里就不做具体限定。在本发明的一些示例中,第三角度为0度-5度,第四角度为10度-20度。可以理解的是,每个下导风板321与出风口110竖直面之间的夹角为度,指的是下导风板321平行于出风口110竖直面,下导风板321与出风方向呈垂直状态以阻挡风的流动。根据本发明实施例的空调柜机,通过在每个下导风板321上设有多个通风孔,且多个下导风板321可转动,从而可以将多个下导风板321转动至覆盖出风口110的状态,使得风道内的大部分空气从通风孔吹出出风口110,降低了风速且打散风的流向,使得从出风口110吹出的风柔和而提高体感舒适度。
为了进一步提高出风速度的均匀性,下导风板321提供的出风面积,在出风口110靠近蜗壳的一侧(风速较高的一侧)的出风面积,大于出风口110靠近蜗舌一侧(风速较低的一侧)的出风面积。
下导风板321实现靠近蜗壳侧的出风面积,大于靠近蜗舌侧的出风面积的方式有多种,下面举两个具体的实现方式。
第一种,每一下导风板321的开孔密度相当,此时,下导风板321在出风口110内靠近蜗壳侧的排布密度,大于下导风板321在出风口110内靠近蜗舌侧的排布密度。
第二种,下导风板321的开孔密度不同,此时,将开孔密度大的下导风板321设置在出风口110内靠近蜗壳的一侧,将开孔密度小的下导风板321设置在出风口110内靠近蜗舌的一侧。当然,在此种情况下,可以将下导风板321的开孔密度按照线性或者非线性的规律排列,使得出风面积呈现预设的规律。配合风速的不同,以使整个出风口110下部,或者说下出风口112的出风速度相当。
为了进一步提高出风量的均匀性,下导风板321提供的出风面积,在出风口110靠近蜗壳的一侧(风速较高的一侧)的出风面积,小于出风口110靠近蜗舌一侧(风速较低的一侧)的出风面积。
下导风板321实现靠近蜗壳侧的出风面积,小于靠近蜗舌侧的出风面积的方式有多种,下面举两个具体的实现方式。
第一种,每一下导风板321的开孔密度相当,此时,下导风板321在出风口110内靠近蜗壳侧的排布密度,小于下导风板321在出风口110内靠近蜗舌侧的排布密度。
第二种,下导风板321的开孔密度不同,此时,将开孔密度小的下导风板321设置在出风口110内靠近蜗壳的一侧,将开孔密度大的下导风板321设置在出风口110内靠近蜗舌的一侧。当然,在此种情况下,可以将下导风板321的开孔密度按照线性或者非线性的规律排列,使得出风面积呈现预设的规律。配合风速的不同,以使整个出风口110下部,或者说下出风口112的出风量相当。
关于上导风板311下端和下导风板321上端的连接。
上导风板311下端可以设置与上固定座330对应的上底座,上底座上设置有若干与上导风板311转轴对应的轴孔。上底座和上固定座330固定的位置相同,与壳体100或出风框固定连接。在上导风板311的下端,靠近上导风板311转轴的位置,或者在上导风板311转轴与导风叶连接的位置,设置有上支撑凸缘。上支撑凸缘沿上导风板311转轴的周向设置。上支撑凸缘的直径大于上底座的轴孔的直径,上导风板311转轴的径向尺寸小于上底座的轴孔的直径。当上导风板311在电机的驱动下转动时,上支撑凸缘支撑在上底座上,避免上导风板311转轴与轴孔底部产生摩擦,减小了支撑面积,减小了上导风板311转动时所需要克服的摩擦力。当然,在一些实施例中,为了减小上支撑凸缘与上底座的接触面积,在上支撑凸缘面向上底座的一侧设置上支撑筋。通过上支撑筋的设置,进一步减小了支撑面积,使得上导风板311转动时所需要克服的摩擦力进一步得到减小。
下导风板321上端可以设置与下固定座350对应的下底座,下底座上设置有若干与下导风板321转轴对应的轴孔。下底座和下固定座350固定的位置相同,与壳体100或出风框固定连接。在下导风板321的上端,靠近下导风板321转轴的位置,或者在下导风板321转轴与导风叶连接的位置,设置有下支撑凸缘。下支撑凸缘沿下导风板321转轴的周向设置。下支撑凸缘的直径大于下底座的轴孔的直径,下导风板321转轴的径向尺寸小于下底座的轴孔的直径。当下导风板321在电机的驱动下转动时,下支撑凸缘支撑在下底座上,避免下导风板321转轴与轴孔底部产生摩擦,减小了支撑面积,减小了下导风板321转动时所需要克服的摩擦力。当然,在一些实施例中,为了减小下支撑凸缘与下底座的接触面积,在下支撑凸缘面向下底座的一侧设置下支撑筋。通过下支撑筋的设置,进一步减小了支撑面积,使得下导风板321转动时所需要克服的摩擦力进一步得到减小。
在一些实施例中,上固定座330和下固定座350的功能集成在一起,甚至一体成型设置,一体成型后的部件为中固定座。中固定座的两侧都设置有轴孔,两侧的轴孔可以同轴连通,也可以不同轴、不连通,可根据实际需求进行设计。当中固定座两侧的轴孔连通时,当上导风板311和下导风板321安装后,上导风板311转轴和下导风板321转轴之间具有间隙。即上导风板311转轴和下导风板321转轴之和小于轴孔的孔深。
中固定座与壳体100或者出风框固定连接。上导风板311下端与中固定座的连接,与上导风板311与上底座的连接方式相同,在此不再赘述。下导风板321上端与中固定座的连接,与下导风板321与下底座的连接方式相同,在此不再赘述。
值得说明的是,中固定座可以一体成型设置,也可以由多个部件装配而成。
本发明进一步提出一种空调柜机,该空调柜机包括存储器和存储在存储器中的空调柜机的控制方法,该空调柜机的控制方法的具体步骤参照上述实施例,由于本空调柜机采用了上述所有实施例的全部技术方案,因此至少具有上述实施例的技术方案所带来的所有有益效果,在此不再一一赘述。其中,所述空调柜机的包括:机壳、上无风感组件210、下无风感组件220、存储器、处理器及存储在所述存储器上并可在所述处理器上运行的空调柜机的控制程序,其中:所述机壳表面开设有出风口110;所述上无风感组件210和所述下无风感组件220沿所述出风口110依次设置,上无风感组件210的关闭和打开控制出风口110上部有无无风感,下无风感组件220的关闭和打开控制出风口110下部有无无风感;所述空调柜机的控制程序被所述处理器执行时实现空调柜机的控制方法的步骤。
本发明进一步提出一种计算机可读存储介质,该计算机可读存储介质存储有空调柜机的控制方法,该空调柜机的控制方法的具体步骤参照上述实施例,由于本计算机可读存储介质采用了上述所有实施例的全部技术方案,因此至少具有上述实施例的技术方案所带来的所有有益效果,在此不再一一赘述。所述计算机可读存储介质上存储有空调柜机的控制程序,所述空调柜机的控制程序被处理器执行时实现空调柜机的控制方法的步骤。
以上所述仅为本发明的优选实施例,并非因此限制本发明的专利范围,凡是在本发明的发明构思下,利用本发明说明书及附图内容所作的等效结构变换,或直接/间接运用在其他相关的技术领域均包括在本发明的专利保护范围内。
Claims (12)
- 一种空调柜机的控制方法,其特征在于,所述空调柜机包括壳体,所述壳体具有出风口,对应所述出风口,沿所述壳体的高度方向依次设置有上无风感组件和下无风感组件,空调柜机的控制方法包括以下步骤:根据预设温度同时开启上无风感组件和下无风感组件,以使空调柜机正常送风;获取当前室内温度,比对室内温度和预设温度;当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件。
- 如权利要求1所述的空调柜机的控制方法,其特征在于,在所述获取当前室内温度,比对室内温度和预设温度的步骤之后还包括:当室内温度与预设温度差值的绝对值小于或等于第二预设温差时,同时关闭上无风感组件和下无风感组件;其中,所述第二预设温差小于所述第一预设温差。
- 如权利要求1所述的空调柜机的控制方法,其特征在于,所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件的步骤具体包括:当当前工作模式为制热模式,且室内温度与预设温度差值的绝对值小于或等于第一预设温差时,关闭上无风感组件;当当前工作模式为制冷模式,且室内温度与预设温度差值的绝对值小于或等于第一预设温差时,关闭下无风感组件。
- 如权利要求1所述的空调柜机的控制方法,其特征在于,在所述根据预设温度同时开启上无风感组件和下无风感组件的步骤之后还包括:检测预设区域内是否有孩童;其中,预设区域为空调柜机的送风区域靠近出风口位置的区域;若是,则关闭下无风感组件。
- 如权利要求4所述的空调柜机的控制方法,其特征在于,空调柜机包括上红外检测器和中红外检测器,上红外检测器设置在出风口的上部,中红外检测器设置在出风口的中部;所述检测预设区域内是否有孩童的步骤具体包括:上红外检测器检测其检测区域内是否有热源靠近;中红外检测器检测其检测区域内是否有热源靠近;当上红外检测器未检测到有热源靠近,且中红外检测器检测到有热源靠近时,判断预设区域内有孩童靠近。
- 如权利要求1所述的空调柜机的控制方法,其特征在于,所述上无风感组件包括左右导风的上导风板,所述下无风感组件包括左右导风的下导风板,所述上导风板和所述下导风板上均开设若干供气流通过的通风孔;所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件的步骤具体包括:当前室内温度与预设温度的差值的绝对值为当前温差,第一预设温差与当前温差之间的差值为相对温差;根据相对温差,调整所述上导风板或下导风板与所述出风口平面之间的偏转角度,以调节无风感的程度。
- 如权利要求1所述的空调柜机的控制方法,其特征在于,所述上无风感组件包括上下导风的上百叶,所述下无风感组件包括上下导风的下百叶,所述上百叶和所述下百叶上均开设若干供气流通过的通风孔;所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件的步骤具体包括:当前室内温度与预设温度的差值的绝对值为当前温差,第一预设温差与当前温差之间的差值为相对温差;根据相对温差,调整所述上百叶或下百叶与所述出风口平面之间的偏转角度,以调节无风感的程度。
- 如权利要求1所述的空调柜机的控制方法,其特征在于,所述上无风感组件包括上无风感门体,所述下无风感组件包括下无风感门体,所述上无风感门体和所述下无风感门体上均开设若干供气流通过的通风孔;所述当室内温度与预设温度差值的绝对值小于或等于第一预设温差时,根据当前工作模式关闭上无风感组件或下无风感组件的步骤具体包括:当前室内温度与预设温度的差值的绝对值为当前温差,第一预设温差与当前温差之间的差值为相对温差;根据相对温差,调整所述上无风感门体或下无风感门体相对于所述出风口的位置,以调节无风感的程度。
- 一种空调柜机,其特征在于,所述空调柜机的包括:机壳、上无风感组件、下无风感组件、存储器、处理器及存储在所述存储器上并可在所述处理器上运行的空调柜机的控制程序,其中:所述机壳表面开设有出风口;所述上无风感组件和所述下无风感组件沿所述出风口依次设置,上无风感组件的关闭和打开控制出风口上部有无无风感,下无风感组件的关闭和打开控制出风口下部有无无风感;所述空调柜机的控制程序被所述处理器执行时实现如权利要求1至3中任一项所述的空调柜机的控制方法的步骤。
- 如权利要求9所述的空调柜机,其特征在于,所述上无风感组件包括开设有通风孔的上导风板、开设有通风孔的上百叶以及开设有通风孔的上无风感门体中一个或多个;所述下无风感组件包括开设有通风孔的下导风板、开设有通风孔的下百叶以及开设有通风孔的下无风感门体中一个或多个。
- 如权利要求9所述的空调柜机,其特征在于,所述空调柜机为贯流空调柜机,所述出风口沿所述壳体的长度方向开设。
- 一种计算机可读存储介质,其特征在于,所述计算机可读存储介质上存储有空调柜机的控制程序,所述空调柜机的控制程序被处理器执行时实现如权利要求1所述的空调柜机的控制方法的步骤。
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