WO2018040552A1 - 导风装置、空调柜机及其送风方法 - Google Patents

导风装置、空调柜机及其送风方法 Download PDF

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Publication number
WO2018040552A1
WO2018040552A1 PCT/CN2017/078304 CN2017078304W WO2018040552A1 WO 2018040552 A1 WO2018040552 A1 WO 2018040552A1 CN 2017078304 W CN2017078304 W CN 2017078304W WO 2018040552 A1 WO2018040552 A1 WO 2018040552A1
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WO
WIPO (PCT)
Prior art keywords
air
deflector
windless
guiding
guide
Prior art date
Application number
PCT/CN2017/078304
Other languages
English (en)
French (fr)
Inventor
叶海林
毛先友
Original Assignee
芜湖美智空调设备有限公司
美的集团股份有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from CN201610792164.1A external-priority patent/CN106369672B/zh
Priority claimed from CN201610785240.6A external-priority patent/CN106247453B/zh
Application filed by 芜湖美智空调设备有限公司, 美的集团股份有限公司 filed Critical 芜湖美智空调设备有限公司
Publication of WO2018040552A1 publication Critical patent/WO2018040552A1/zh

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Classifications

    • 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
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F13/00—Details common to, or for air-conditioning, air-humidification, ventilation or use of air currents for screening
    • F24F13/08—Air-flow control members, e.g. louvres, grilles, flaps or guide plates

Definitions

  • the invention relates to the technical field of air conditioners, in particular to an air guiding device, an air conditioner cabinet machine and a method for supplying air.
  • the air guiding device of the present invention is used for an air conditioner, and the air guiding device includes:
  • a guide grill having a wind deflector for guiding the flow of the airflow
  • a windless deflector having a flow guide for reducing wind speed
  • the conductive style grid and the windless deflector are arranged side by side, and a gap is formed between the conductive style grid and the windless deflector.
  • the grille further includes a wind guide frame, the air deflector is disposed in the air guide frame, and two ends of the air deflector are rotatably connected to the air guide frame.
  • the air guiding member comprises a flow guiding hole penetrating through the windless deflector, the number of the guiding holes is plural, and the plurality of the guiding holes are arranged on the windless deflector .
  • the air guiding device is arranged in a ring shape;
  • the windless deflector is an elongated plate arranged in an arc shape in a width direction;
  • the guide style grid is an elongated grid arranged in an arc shape in a width direction;
  • One side of the windless deflector is fixedly connected to one side of the conductive grille.
  • the extending direction of the width of the conductive grid and the extending direction of the width of the windless deflector are on the same ellipse or circle.
  • the air guiding device further comprises an annular reinforcing rib
  • the arc at the junction of the annular reinforcing rib and the guiding style grid is equivalent to the arc in the width direction of the guiding style grating;
  • the arc at the junction of the annular rib and the windless baffle is equivalent to the arc of the windless baffle in the width direction.
  • the circumferential angle corresponding to the width direction of the windless deflector is 90° ⁇ 150°;
  • the circumferential angle corresponding to the width direction of the conductive grid is 90° ⁇ 150°.
  • the guiding style grating and the windless deflector enclose a guiding cavity, and the guiding cavity has an air inlet opening along a length direction of the guiding style grating.
  • the conductive style grid and the windless deflector are integrally formed.
  • the invention further provides an air conditioner cabinet comprising:
  • a housing having an air inlet, an air outlet, and an air passage between the air inlet and the air outlet;
  • An air guiding device wherein the air guiding device is disposed in the air passage corresponding to the air outlet;
  • the heat exchanger and the air guiding device are both disposed along a length direction of the housing;
  • the air guiding device comprises:
  • a guide grill having a wind deflector for guiding the flow of the airflow
  • a windless deflector having a flow guide for reducing wind speed
  • the conductive style grid and the windless deflector are arranged side by side, and a gap is formed between the conductive style grid and the windless deflector.
  • the air guiding device further comprises:
  • An upper end plate wherein a plate surface of the upper end plate is simultaneously fixedly connected to a top of the guide grille of the air guiding device and a top of the windless deflector;
  • a plate surface of the lower end plate is simultaneously fixedly connected with a bottom of the guide grille and a bottom of the windless deflector;
  • the upper end plate and the lower end plate are rotatably coupled with respect to the housing, and an axis of rotation of the air guiding device is disposed in parallel with an axis of the housing.
  • the upper end plate and/or the lower end plate are provided with a finite rib, and the position of the rib corresponding to the limiting rib on the casing is provided with a limiting post for defining a range of movement of the limiting rib.
  • the air guiding device further comprises an upper rotating shaft and a lower rotating shaft;
  • the upper rotating shaft is disposed on a surface of the upper end plate facing away from the guiding style grid along a longitudinal direction of the housing, and the first mounting hole is opened on the housing corresponding to the upper rotating shaft;
  • the lower rotating shaft is disposed on a surface of the lower end plate facing away from the guide grille along a longitudinal direction of the housing, and a second mounting hole is defined in the housing corresponding to the lower rotating shaft.
  • the air conditioner cabinet further includes a driving motor that drives the rotation of the air guiding device;
  • the driving motor is disposed below the second mounting hole, and a driving shaft of the driving motor is fixedly connected to the lower rotating shaft.
  • the invention further provides a method for air supply of an air conditioner cabinet, the air conditioner cabinet includes a casing having an air inlet vent; the air guiding assembly, the air guiding component is disposed corresponding to the air outlet, and the air guiding component includes a guide Wind grille and windless deflector;
  • the air supply method of the air conditioner cabinet includes the following steps:
  • the guiding style grid and the windless deflector enclose a wind guiding cavity, and the air guiding cavity has an air inlet;
  • the step of flowing the airflow from the air inlet from the airflow grille comprises:
  • the command is a windless air supply command
  • rotating the air guiding assembly to allow airflow from the guide grill to enter the air guiding chamber, and the air guiding flow from the windless deflector Cavity.
  • the guiding style grid and the windless deflector enclose a wind guiding cavity
  • the air guiding cavity has an air inlet
  • the wind guiding cavity is provided with a wind deflecting plate that isolates the air guiding cavity
  • the step of flowing the airflow from the air inlet from the airflow grille comprises:
  • the wind deflector When the command is a windless air supply command, the wind deflector is rotated to allow airflow from the air inlet to enter the air guiding chamber, and the air guiding chamber is discharged from the airless deflector.
  • the guiding style grid and the windless deflector enclose a wind guiding cavity, and the wind guiding cavity is provided with a pendulum;
  • the method further includes:
  • the pendulum is rotated to adjust the blowing direction and the blowing speed.
  • the guide style grid comprises a wind guide frame and a wind deflector rotatably connected to the air guide frame;
  • the method further includes:
  • the air deflector is rotated to adjust the air supply direction and the air supply speed.
  • the invention further provides an air conditioner cabinet machine, the air conditioner cabinet machine comprising:
  • a housing having an air inlet and an air outlet
  • the air guiding assembly is disposed corresponding to the air outlet, and the air guiding assembly comprises a guiding style grid and a windless deflector;
  • the control device includes:
  • a receiving module configured to receive a blowing instruction
  • a determining module configured to determine whether the current air blowing command is a windless air blowing command
  • a blower module configured to: when the command is a windless air supply command, an airflow entering the casing from the air inlet port flows out from the windless deflector; when the command is not a windless air supply When instructed, airflow entering the housing from the air inlet exits the guide grill.
  • the air guiding device can perform normal air supply and windless air supply according to the user's needs, when the temperature in the room approaches or reaches the user's
  • the airless deflector is arranged corresponding to the air outlet, so that the airflow passing through the air guiding device is softer, and the user feels more comfortable when the airflow is blown to the user.
  • FIG. 1 is a schematic structural view of an air conditioner cabinet according to an embodiment of the present invention.
  • FIG. 2 is a schematic structural view of an embodiment of the internal structure of FIG. 1;
  • FIG. 3 is a schematic structural view of another embodiment of the internal structure of FIG. 1;
  • FIG. 4 is a schematic structural view of an air guiding device according to an embodiment of the present invention.
  • Figure 5 is a partial enlarged view of a portion A in Figure 1;
  • Figure 6 is a partial enlarged view of B in Figure 1;
  • FIG. 7 is a schematic flow chart of an air blowing method of an air conditioner according to an embodiment of the present invention.
  • Fig. 8 is a block diagram showing the structure of an air conditioner of an air conditioner according to the present invention.
  • Label name Label name 100 case 110 Inlet 120 Air outlet 200 Air guiding device 210 Guide style grid 220 Windless deflector 230 Air inlet 240 Air guiding chamber 250 Reinforcement 260 Upper end plate 270 Upper shaft 280a Limit rib 280b Limit rib 130 Limit column 300 Cross flow wind wheel 400 Heat Exchanger 500 Control device
  • 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” or “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 invention mainly proposes an air guiding device, which is mainly used in an air conditioner cabinet machine to increase the air supply mode of the air conditioner cabinet machine, and provides a windless air supply function for the air conditioner cabinet machine, and meets the requirements of the user for temperature regulation, Allow users to enjoy the soft wind to enhance the user experience.
  • the cross flow wind wheel 300 of the air conditioner cabinet is disposed in the air passage between the air inlet 110 and the air outlet 120.
  • the heat exchanger 400 of the air conditioner cabinet corresponds to the air inlet 110, and the wind turbine 300 is disposed in the casing.
  • the air outlet 110 extends in the height direction of the housing 100.
  • the air guiding device 200 is used for an air conditioner, and the air guiding device 200 includes:
  • a style grating 210 having a wind deflector for guiding the flow of airflow
  • a windless baffle 220 having a flow guiding member for reducing the wind speed
  • the conductive style grid 210 and the windless deflector 220 are arranged side by side, and a gap is formed between the conductive style grid 210 and the windless deflector 220.
  • the air deflector is disposed along the length direction of the conductive grill 210, and flows along the panel surface of the wind deflector when the airflow passes through the conductive grill 210.
  • the airless deflector 220 is exemplified by an arc-shaped baffle.
  • the airless deflector 220 is provided with a flow guiding member.
  • the shape and size of the deflector are not particularly limited herein, and the wind speed can be reduced.
  • the deflector is exemplified by a guide rib, and a plurality of guide ribs enclose a plurality of air passages connecting the air duct of the air conditioner and the outside of the air conditioner. The airflow flows through the air duct to a designated area of the user.
  • the air passage may have a bent portion, that is, the air flow passage is guided and the wind speed is lowered by changing the flow direction of the air passage.
  • a plurality of restricting holes penetrating through the plate surface may be formed on the windless deflector 220.
  • the aperture of the air inlet end of the current limiting hole is smaller than the aperture of the air outlet end of the current limiting hole, so that the current limiting hole becomes a speed reducing hole.
  • the guide style grid 210 is arranged in an arc shape, and the windless deflector 220 is arranged in an arc shape. After the guide style grid 210 and the windless deflector 220 are arranged side by side along the respective length directions, one side of the two is connected to each other. There is a gap between the other side.
  • the guiding style grid 210 and the windless deflector 220 enclose a guiding cavity 240, and the guiding cavity 240 is disposed along the length direction of the guiding style grid 210 and the windless deflector 220, and the guiding cavity 240 has along the direction
  • An air inlet 230 is formed in the longitudinal direction of the style grill 210.
  • the first sidewall of the flow guiding cavity 240 is formed by the guide grill 210, and the second sidewall is formed by the windless deflector 220.
  • the circumference of the guiding cavity 240 is removed from the first sidewall and the second sidewall. The remaining portion is the air inlet 230 (the gap between the guide grill 210 and the airless deflector 220).
  • the airflow can enter the guide cavity 240 surrounded by the guide grille 210 and the airless deflector 220 through the air inlet 230 (gap), and flow out from the guide grille 210.
  • the airflow can also The guide cavity 240 enters the flow guiding cavity 240 and then flows out of the airless deflector 220.
  • the flow direction of the airflow is unchanged, and the position between the guide grille 210, the airless deflector 220, and the air inlet 230 is changed by rotating the air guiding device 200.
  • the positions of the conductive fence 210, the windless deflector 220, and the air inlet 230 can be maintained, and the air supply in different modes can be realized by changing the flow direction of the airflow.
  • the wind deflector has a plurality of positions, each of the different positions corresponds to one air passage, one air passage connects the air inlet 230 and the airless deflector 220, and the other air passage connects the air inlet 230 and the guide grill 210.
  • One of the air ducts is a communication guide grill 210 and a windless deflector 220. In this way, different air passages can be formed by controlling different positions of the wind deflector, and different air supply modes can be realized.
  • the conductive style grid 210 and the airless deflector 220 may not surround the flow guiding cavity 240. In different modes, only the corresponding mode air blowing mechanism needs to be moved to the air outlet 120. Just fine. For example, when the air is blown normally, the guide grille 210 is disposed corresponding to the air outlet 120, and when the wind is not blown, the windless deflector 220 is moved to the corresponding air outlet 120.
  • the air guiding device 200 can perform normal air supply and windless air supply according to user needs, when the temperature in the room is close. Or when the preset temperature of the user is reached, the airless deflector 220 is disposed corresponding to the air outlet 120, so that the airflow passing through the air guiding device 200 is softer, and the user feels more comfortable when the airflow is blown to the user.
  • the air guide grille further includes a wind guide frame, the air deflector is disposed in the air guide frame, and the two ends of the air guide plate are The wind guide frame is connected in rotation.
  • the air guiding frame is a rectangular frame formed by splicing a plurality of horizontal frame bars and vertical frame bars.
  • the number of air deflectors is plural, and a plurality of air deflectors are arranged along the length direction of the horizontal frame strips.
  • Each air deflector is arranged along the length direction of the vertical frame strips, and a rotating hole is formed on the horizontal frame strips, and the wind deflecting plates are arranged. The two ends are inserted into the through hole, so that the wind deflector is rotatably connected to the horizontal frame strip.
  • the air deflector is driven by a motor, and the motor is electrically connected to the control device 500 of the air conditioner.
  • the air guiding member includes a flow guiding hole penetrating through the windless deflector 220, and the number of the guiding holes is plural, and the plurality of the guiding currents
  • the holes are arranged on the windless deflector 220.
  • the diameter of the inlet section of the diversion hole is smaller than the aperture of the outlet section of the diversion hole, and is gradually expanded from the inlet end to the outlet end. This is so that the airflow can be smoothly and decelerated through the diversion holes. When the airflow passes through the restriction hole, the wind speed decreases.
  • the air volume on the windward side of the windless deflector 220 is greater than the air volume on the leeward side, that is, when the airflow passes through the windless deflector 220, the air volume cut back. That is, the windless deflector 220 slows down the wind speed and reduces the air volume, so that the wind blown to the user is softer and more comfortable.
  • the air guiding device 200 is arranged in a ring shape;
  • the windless deflector 220 is an elongated plate arranged in an arc shape in the width direction;
  • the guide style grid 210 is an elongated grid arranged in an arc shape in the width direction;
  • One side of the windless baffle 220 is fixedly connected to one side of the guide grill 210.
  • the air guiding frame of the guiding style grid 210 is arranged in an arc shape, and specifically, the horizontal frame strip is arranged in an arc shape.
  • the width of the windless deflector 220 in the width direction is equivalent to the arc of the length of the transverse frame strip.
  • One side of the windless baffle 220 is fixedly connected to a longitudinal frame strip, and the connection manner can be various, such as a buckle, a screw, and an adhesive.
  • the windless baffle 220 and the air guiding frame are integrally formed.
  • the windless deflector 220 and the guide grille 210 may be integrally formed.
  • the direction in which the width of the conductive grid 210 extends and the direction in which the width of the windless deflector 220 extends are on the same ellipse or circle.
  • the circumferential angle corresponding to the width direction of the windless deflector 220 is 90° ⁇ 150°;
  • the circumferential angle corresponding to the width direction of the conductive style grid 210 is 90° to 150°.
  • the extension direction of the width of the windless baffle 220 is on the same circumference as the extending direction of the width direction of the guide grille 210.
  • the arc of the windless deflector 220 in the width direction is the same as the arc of the width direction of the guide grille 210, and the line connecting the ends of the windless deflector 220 in the width direction and the center of the circle forms a fan shape, and the central angle of the fan shape It is 90° ⁇ 150°, taking 120° as an example.
  • the connection between the two ends of the guide style grid 210 in the width direction and the center of the circle forms a fan shape, and the central angle of the fan shape is 90° to 150°, taking 120° as an example.
  • the center angle corresponding to the gap between the conductive fence 210 and the airless deflector 220 is also 120°. Of course, the angle can be adjusted according to actual needs.
  • the air guiding device 200 further includes an annular reinforcing rib 250.
  • the arc at the junction of the annular bead 250 and the guide grid 210 is equivalent to the arc in the width direction of the guide grill 210.
  • the arc at the junction of the annular rib 250 and the windless deflector 220 is equivalent to the arc of the windless baffle 220 in the width direction.
  • the annular reinforcing rib 250 is disposed on the inner wall surface of the flow guiding cavity 240 along the windless deflector 220 and the conductive grill 210.
  • the outer wall surface of the annular reinforcing rib 250 is in contact with the surface of the windless baffle 220, and is fixedly connected to the side of the guide grill 210 facing the flow guiding cavity 240.
  • the annular bead 250 can be fixed to the windless baffle 220 and the guide grill 210, such as by a snap connection, a screw connection, or the like.
  • a card slot is formed on the windless baffle 220 and the guide grille 210, and the annular bead 250 is inserted in the card slot.
  • the wind-free baffle 220 and/or the guide grill 210 transmits the load to the annular reinforcing rib 250, and the reinforcing rib 250 occurs.
  • the elastic deformation is carried to carry the load.
  • the reinforcing rib 250 returns to the elastic deformation, and the internal deformation force is transmitted out for the next load.
  • the present invention also provides an air conditioner cabinet comprising a housing 100, a heat exchanger 400 and an air guiding device 200.
  • the specific structure of the air guiding device 200 refers to the above embodiment, since the air conditioner cabinet adopts the above All the technical solutions of all the embodiments, therefore, at least have all the beneficial effects brought by the technical solutions of the above embodiments, and will not be further described herein.
  • the housing 100 has an air inlet 110, an air outlet 120, and an air passage between the air inlet 110 and the air outlet 120.
  • the heat exchanger 400 is disposed in the air passage corresponding to the air inlet 110.
  • the air guiding device 200 is disposed in the air duct corresponding to the air outlet 120; the heat exchanger 400 and the air guiding device 200 are disposed along a longitudinal direction of the casing 100.
  • the heat exchanger 400 can sufficiently exchange heat with the airflow, and at the same time, the airflow after the sufficient heat exchange is under the action of the air guiding device 200. , can be quickly and stably output from the air conditioner cabinet.
  • the air guiding device 200 further includes: an upper end plate 260, a plate surface of the upper end plate 260 simultaneously with the top of the guide grill 210 of the air guiding device 200
  • the top of the windless baffle 220 is fixedly connected.
  • the lower end plate, a plate surface of the lower end plate is simultaneously fixedly connected to the bottom of the guide grill 210 and the bottom of the windless deflector 220.
  • the upper end plate 260 and the lower end plate are rotatably connected with respect to the housing 100, and an axis of rotation of the air guiding device 200 is disposed in parallel with an axis of the housing 100.
  • an upper rotating shaft 270 is disposed on the surface of the upper end plate 260 facing away from the windless deflector 220, and a rotating hole is disposed on the housing 100 corresponding to the upper rotating shaft 270, and the upper rotating shaft 270 is mounted on the rotating shaft In the hole.
  • a lower rotating shaft is disposed on a surface of the lower end plate facing away from the windless deflector 220, and a rotating hole is disposed on the housing 100 at a position corresponding to the lower rotating shaft, and the lower rotating shaft is installed in the rotating hole.
  • the upper shaft 270 and the lower shaft are coaxial.
  • the air guiding device 200 further includes an upper rotating shaft 270 and a lower rotating shaft, and the upper rotating shaft 270 is disposed along a longitudinal direction of the housing 100 on a surface of the upper end plate 260 facing away from the guide grill 210
  • the first mounting hole is defined in the housing 100 corresponding to the upper rotating shaft 270.
  • the lower rotating shaft is disposed on the surface of the lower end plate facing away from the guiding style grid 210 along the longitudinal direction of the housing 100.
  • the housing 100 is provided with a second mounting hole corresponding to the lower rotating shaft.
  • the lower rotating shaft of the lower end plate of the air guiding device 200 can be detachably connected with the lower end plate to improve the adaptability of the installation of the air guiding device 200, and the mountability of the air guiding device 200 can be improved.
  • the upper end plate 260 and/or the lower end plate are provided with a finite rib 280 (a, b) corresponding to the limiting rib 280 (a)
  • the position of b) is provided with a limit post 130 for defining the range of movement of the limit rib 280 (a, b).
  • the limiting rib 280a is disposed along the upper surface of the upper end plate 260 and/or the lower end plate.
  • the limiting rib 280a and the upper rotating shaft 270 are disposed on the same plate.
  • the limiting rib 280b is disposed on the lower end plate, the limiting rib 280b and the lower rotating shaft are disposed on the same plate surface.
  • the limiting post 130 is disposed on the housing 100 corresponding to the limiting rib 280 (a, b). It can be understood that the housing 100 not only includes the housing 100 outside the air conditioner cabinet, but also includes a structure such as an air outlet frame, that is, the air guiding device 200, the limiting post 130, and the like can be connected to the air outlet frame.
  • the limiting ribs 280 (a, b) abut the limiting column 130, and the limiting column 130 defines the limit rib 280 (a, b) to move further, and the rotation of the air guiding device 200 is limited by the limit post 130.
  • the limit position of the rotation of the air guiding device 200 is defined by the arrangement of the limiting ribs 280 (a, b) and the limiting post 130, and the rotation angle of the air guiding device 200 is prevented from being excessively large.
  • the air conditioner cabinet further includes a drive motor that drives the wind guide 200 to rotate.
  • the driving motor is disposed below the second mounting hole, and a driving shaft of the driving motor is fixedly connected to the lower rotating shaft.
  • the drive motor is disposed directly below the air guiding device 200.
  • the drive motor may also be disposed at the top of the air guiding device 200.
  • a motor mounting position is provided below the second mounting hole, and the drive motor is mounted in the motor mounting position.
  • the lower shaft extends through the second mounting hole to the motor mounting position, and the driving shaft of the driving motor and the lower shaft are fixedly connected by the coupling.
  • the fastening can also be fixed by other fastening methods.
  • the invention further provides a method for air supply of an air conditioner, the air conditioner comprising a casing having an air outlet of the air inlet; a wind guiding component, wherein the air guiding component is disposed corresponding to the air outlet, and the air guiding component comprises a guiding style a grid and a windless deflector;
  • the air supply method of the air conditioner comprises the following steps:
  • the present invention further provides a method for air supply of an air conditioner
  • the air conditioner includes a housing 100 having an air outlet 120 of the air inlet 110, and an air guiding assembly 200.
  • the air guiding assembly 200 is disposed corresponding to the air outlet 120.
  • the wind assembly 200 includes a guide grill 210 and a windless deflector 220.
  • the air supply method of the air conditioner includes the following steps:
  • the receiving module 310 may be a wireless communication module or a wired communication module, that is, a manner in which the receiving module receives an instruction, which may be received by wire or wirelessly, and wireless receiving is taken as an example.
  • the terminal that the client sends the command may be a remote controller or a mobile phone, and only needs to establish an electrical connection with the receiving module 310, and may send an instruction to the receiving module 310.
  • the receiving module When the receiving module receives the instruction, it is determined whether the instruction is a windless sense command, wherein the manner of the judgment may be various.
  • a mapping table of signals and instructions can be established. Different instructions correspond to different signal strengths, and different signal strengths correspond to different air conditioning operating modes. For example, the first signal strength corresponds to the normal air supply mode, and the second signal strength corresponds to the windless air supply mode.
  • the air conditioner When receiving the different commands, the air conditioner performs different air supply modes according to the corresponding different signal strengths.
  • the air supply module controls the airflow entering from the air inlet 110 of the casing 100 to flow out from the windless deflector 220.
  • the airless deflector 220 is provided with a plurality of overflow holes, so that the airflow is softened, thereby ensuring that the airflow after the heat exchange can enter the room. , can give users a comfortable feeling.
  • the air supply module controls the airflow entering from the air inlet 110 of the housing 100 to flow out from the guide grill 210.
  • the guide style grid 210 only serves as a flow guiding, the air flow can flow out from the guide style grid 210 at a large wind speed.
  • the guide grill 210 is provided with a plurality of air deflectors, and the airflow is delivered to a user-specified area by the air deflector.
  • windless air supply and common air supply there are many ways to achieve windless air supply and common air supply.
  • One way is to move the windless deflector 220 and the position of the style grille, and the wind direction is unchanged. At this time, the wind in the same direction, in the windless mode, moves the windless deflector 220 to the flow of the wind, and the wind flows out of the air conditioner through the windless deflector 220; in the normal air supply mode, the mobile delivery style The flow from the grid to the wind is upward, and the wind flows out of the air conditioner through the delivery grille, wherein the movement can be rotated.
  • the position of the airless baffle 220 and the style grille is unchanged, and the flow path of the airflow is switched by adding a baffle to change the flow direction of the airflow.
  • the moving deflector switches the direction of the flow path, and directs the airflow to the airless deflector 220, and the wind flows out of the air conditioner through the airless deflector 220; in the normal air supply mode, the mobile deflector Switching the direction of the flow channel, directing the airflow to the delivery grille, and the wind flows out of the air conditioner through the grille.
  • the user by determining whether the received signal is a windless air supply command, the user is supplied with air according to the determination result, and when the received windless air supply command is received, the airflow after the heat exchange is guided to the windless
  • the deflector 220 is configured to allow the airflow to flow out of the air conditioner through the windless deflector 220; when the normal air supply command is received, the heat exchanged airflow is directed to the delivery grille to allow the airflow to pass through the delivery style.
  • the grid flows out of the air conditioner; so that the user can adjust the air supply mode of the air conditioner cabinet according to the real-time demand to meet the needs of the user, which is beneficial to the user to better experience the air conditioner cabinet.
  • the guide style grid 210 and the airless baffle 220 are enclosed to form an air guiding chamber 240, the air guiding chamber 240 has an air inlet 230;
  • the step of flowing the airflow entering the air inlet 110 from the guide grille 210 specifically includes:
  • the air guiding assembly 200 When the instruction is not a windless air supply command, the air guiding assembly 200 is rotated to allow airflow from the air inlet 230 to enter the air guiding cavity 240, and the air guiding flow is exhausted from the guide grill 210 Cavity 240;
  • the conductive style grid 210 and the windless deflector 220 are both disposed in an elongated shape, and the air inlet 230 is opened along the length direction of the conductive grid 210.
  • the first air blowing unit rotates the air guiding assembly 200 to connect the air inlet 230 to the air passage of the air conditioner, and the airflow enters the air guiding chamber 240 from the air inlet 230, and the air guiding
  • the grid 210 flows out of the air guiding chamber 240, and the airflow is delivered to the area designated by the user under the action of the guide grill 210.
  • the air guiding assembly 200 When the command is a windless air supply command, the air guiding assembly 200 is rotated to allow airflow from the guide grill 210 into the air guiding chamber 240 to flow out from the windless deflector 220.
  • the air guiding chamber 240 When the command is a windless air supply command, the air guiding assembly 200 is rotated to allow airflow from the guide grill 210 into the air guiding chamber 240 to flow out from the windless deflector 220.
  • the air guiding chamber 240 When the command is a windless air supply command, the air guiding assembly 200 is rotated to allow airflow from the guide grill 210 into the air guiding chamber 240 to flow out from the windless deflector 220.
  • the air guiding chamber 240 When the command is a windless air supply command, the air guiding assembly 200 is rotated to allow airflow from the guide grill 210 into the air guiding chamber 240 to flow out from the windless deflector 220.
  • the air guiding chamber 240 When the command is
  • the second air blowing unit rotates the air guiding assembly 200 to connect the guide grille 210 with the air duct of the air conditioner, and the airflow self-guided style grill 210 enters the air guiding chamber.
  • the air flow is delivered to the room by the airless deflector 220.
  • the position of the guide style grid 210, the airless deflector 220 and the air inlet 230 is switched, and only the wind guide component needs to be rotated. 200, so that the air inlet position and the air outlet position corresponding to the air supply mode can be set to a preset position.
  • the airflow first undergoes a first-stage deceleration through the guide grill 210, and when the decelerated airflow flows out of the windless deflector 220, the wind becomes softer, making the user more Comfortable.
  • the guide grill 210 and the airless deflector 220 are enclosed to form an air guiding chamber 240.
  • the air guiding chamber 240 has an air inlet 230.
  • the air guiding chamber 240 is provided with Isolating the wind deflector of the air guiding cavity 240;
  • the step of flowing the airflow entering the air inlet 110 from the guide grille 210 specifically includes:
  • the wind deflector When the command is not a windless air supply command, the wind deflector is rotated to allow airflow from the air inlet 230 to enter the air guiding cavity 240, and flow out of the air guiding cavity 210 from the air guiding cavity 210. 240;
  • the conductive style grid 210 and the windless deflector 220 are both disposed in an elongated shape, and the air inlet 230 is opened along the length direction of the conductive grid 210.
  • the third air blowing unit rotates the wind deflector in the air guiding cavity 240, so that the air outlet air passage is formed between the air inlet 230, the wind deflector and the guide grill 210.
  • the air inlet 230 is connected to the air duct of the air conditioner, and the airflow enters the air guiding chamber 240 from the air inlet 230, and flows out of the air guiding chamber 240 from the guide grill 210, and the airflow is transmitted to the user by the guide grill 210.
  • the specified area is provided.
  • the wind deflector When the command is a windless air supply command, the wind deflector is rotated to allow airflow from the air inlet 230 to enter the air guiding cavity 240, and the air guiding flow from the windless deflector 220 Wind chamber 240.
  • the fourth air blowing unit rotates the wind deflector in the air guiding cavity 240, so that the air outlet air passage is formed in the air inlet 230, the wind deflector and the windless deflector 220.
  • the airflow enters the air guiding chamber 240 from the air inlet 230, and flows out of the air guiding chamber 240 from the airless deflector 220, and the airflow is in the airless deflector 220. Delivery to the room under the influence.
  • the position of the air outlet duct and the air outlet position can be adjusted according to the rotation of the wind deflector, so that the wind mode can be quickly and accurately adjusted. It helps users to quickly experience the patterns they need.
  • the guide grille 210 and the windless baffle 220 are enclosed to form an air guiding cavity 240, and the wind guiding cavity 240 is provided with a pendulum blade;
  • the step of flowing the airflow entering from the air inlet 110 from the airless deflector 220 when the command is a windless air supply command further includes:
  • the pendulum is rotated to adjust the blowing direction and the blowing speed.
  • the shape of the pendulum blade is not particularly limited herein, and may be rectangular, circular, or convex, and its shape is adapted to the shape of the air guiding cavity 240.
  • the air conditioner includes a plurality of pendulum blades, and the plurality of pendulum blades are arranged along the length direction of the air guiding cavity 240.
  • the swinging blade is oscillated, so that the swinging blade decelerates and guides the airflow entering the air guiding chamber 240. At this time, the swinging blade performs the second-stage deceleration.
  • the airflow entering the air guiding cavity 240 is first decelerated by the pendulum blade, and the airflow after the deceleration flows out of the windless deflector 220, the wind It will become softer and make the user more comfortable.
  • the leaf surface of the pendulum leaves is provided with a restriction hole extending through the entire pendulum.
  • the swinging blade stops swinging when it swings to a certain position. At this time, part of the airflow passes through the pendulum from the restrictor hole to "break up" the airflow, and the airflow becomes softer. Thereby it is beneficial to improve the softness of the wind.
  • the guide grill 210 includes a wind guide frame and a wind deflector rotatably connected to the wind guide frame;
  • the step of flowing the airflow entering from the air inlet 110 from the airless deflector 220 when the command is a windless air supply command further includes:
  • the air deflector is rotated to adjust the air supply direction and the air supply speed.
  • the guide grill 210 includes an air outlet frame and a plurality of air deflectors, and a plurality of air deflectors are disposed side by side in the air outlet frame, and each air guide panel is rotatably connected to the air outlet frame.
  • the airflow first enters the air guiding cavity 240 through the guide grill 210, and the air deflector swings to guide and decelerate the airflow entering the air guiding cavity 240.
  • the airflow is decelerated by the swing of the air deflector, so that the decelerated airflow is softer.
  • the wind will make the user more comfortable.
  • the wind guide can be decelerated first through the guide style grid 210, then the second stage deceleration air guide is performed through the swinging blade, and then the three-stage deceleration air guide is performed through the windless deflector 220. In order to achieve a new level of windless effect of the air conditioner.
  • an air conditioner according to the present invention includes:
  • a housing having an air inlet and an air outlet
  • the air guiding assembly is disposed corresponding to the air outlet, and the air guiding assembly comprises a guiding style grid and a windless deflector;
  • the control device 500 includes:
  • the receiving module 510 is configured to receive a blowing instruction.
  • the determining module 520 is configured to determine whether the current air blowing command is a windless air blowing command
  • the air supply module 530 is configured to: when the instruction is a windless air supply command, the airflow entering the casing from the air inlet port flows out from the airless deflector; when the instruction is not sent to the windless sense When the wind commands, the airflow entering the casing from the air inlet flows out from the guide grill.
  • the guiding style grid and the windless deflector enclose a wind guiding cavity, and the air guiding cavity has an air inlet;
  • the air supply module includes:
  • a first air supply unit configured to rotate the air guiding assembly to allow airflow from the air inlet to enter the air guiding chamber, and flow out of the air guiding chamber from the guiding style grid;
  • a second air blowing unit configured to rotate the air guiding component to allow airflow from the guiding style grid to enter the air guiding cavity, and flow out of the air guiding cavity from the airless deflector.
  • the guiding style grid and the windless deflector enclose a wind guiding cavity
  • the air guiding cavity has an air inlet
  • the wind guiding cavity is provided with a wind deflecting plate that isolates the air guiding cavity
  • the air supply module includes:
  • a third air supply unit configured to rotate the wind deflector to allow airflow from the air inlet to enter the air guiding cavity, and flow out of the air guiding cavity from the guiding style gate;
  • a fourth air supply unit is configured to rotate the wind deflector to allow airflow from the air inlet to enter the air guiding chamber, and flow out of the air guiding chamber from the airless deflector.
  • the guiding style grid and the windless deflector enclose a wind guiding cavity, and the wind guiding cavity is provided with a pendulum;
  • the air supply module includes:
  • a fifth air supply unit is configured to rotate the swinging blade to adjust a blowing direction and a blowing speed.
  • the guide style grid comprises a wind guide frame and a wind deflector rotatably connected to the air guide frame;
  • the air supply module includes:
  • a sixth air supply unit is configured to rotate the air deflector to adjust a blowing direction and a blowing speed.

Abstract

一种导风装置（200），包括：导风格栅（210），导风格栅（210）上具有用于引导气流流动的导风板；无风导流板（220），无风导流板（220）上具有用于降低风速的导流件；导风格栅（210）和无风导流板（220）并排设置，且导风格栅（210）和无风导流板（220）之间具有间隙。该导风装置（200）可以根据用户需要进行普通送风和无风感送风，当房间内的温度靠近或者达到用户的预设温度时，无风导流板（220）对应出风口（120）设置，使得经过导风装置（200）的气流更加柔和，当气流吹至用户时，用户感觉更加舒适。还公开了一种空调柜机及其送风方法。

Description

导风装置、空调柜机及其送风方法
技术领域
本发明涉及空调技术领域，特别涉及一种导风装置、空调柜机及其送风方法。
背景技术
随着人们生活水平的提高，人们对空调器的要求越来越高。现有的空调柜机，在其工作过程中，当风直吹至用户时，风力太强使用户不舒适，当将风吹至其它位置时，又不能快速的为用户降温。
发明内容
本发明的主要目的是提供一种导风装置，旨在提高用户使用空调器的舒适性。
为实现上述目的，本发明提出的导风装置，用于空调器，所述导风装置包括：
导风格栅，所述导风格栅上具有用于引导气流流动的导风板；
无风导流板，所述无风导流板上具有用于降低风速的导流件；
所述导风格栅和所述无风导流板并排设置，且所述导风格栅和所述无风导流板之间具有间隙。
优选地，所述格栅还包括导风框，所述导风板设置于所述导风框内，且所述导风板的两端与所述导风框转动连接。
优选地，所述导风件包括贯穿所述无风导流板导流孔，所述导流孔的数量为多个，多个所述导流孔排布在所述无风导流板上。
优选地，所述导风装置呈环形设置；所述无风导流板为宽度方向呈弧形设置的长条形板；
所述导风格栅为宽度方向呈弧形设置的长条形格栅；
所述无风导流板的一侧与所述导风格栅的一侧固定连接。
优选地，所述导风格栅宽度的延伸方向和所述无风导流板宽度的延伸方向位于同一椭圆或圆上。
优选地，所述导风装置还包括环形加强筋；
所述环形加强筋与所述导风格栅连接处的弧度与所述导风格栅宽度方向的弧度相当；
所述环形加强筋与所述无风导流板连接处的弧度与所述无风导流板宽度方向的弧度相当。
优选地，所述无风导流板宽度方向所对应的圆周角为90°~150°；
所述导风格栅宽度方向所对应的圆周角为90°~150°。
优选地，所述导风格栅和所述无风导流板围成导流腔，所述导流腔具有沿所述导风格栅长度方向开设的入风口。
优选地，所述导风格栅和所述无风导流板一体成型设置。
本发明进一步提供一种空调柜机，包括：
壳体，所述壳体具有进风口、出风口，以及位于所述进风口和所述出风口之间的风道；
换热器，所述换热器对应所述进风口设置于所述风道内；
导风装置，所述导风装置对应所述出风口设置于所述风道内；
所述换热器和所述导风装置均沿所述壳体的长度方向设置；
其中，所述导风装置包括：
导风格栅，所述导风格栅上具有用于引导气流流动的导风板；
无风导流板，所述无风导流板上具有用于降低风速的导流件；
所述导风格栅和所述无风导流板并排设置，且所述导风格栅和所述无风导流板之间具有间隙。
优选地，所述导风装置还包括：
上端板，所述上端板的一板面同时与所述导风装置的导风格栅的顶部和无风导流板的顶部固定连接；
下端板，所述下端板的一板面同时与所述导风格栅的底部和无风导流板的底部固定连接；
所述上端板和所述下端板相对于所述壳体转动连接，且所述导风装置的转动轴线与所述壳体的轴线平行设置。
优选地，所述上端板和/或所述下端板上设置有限位筋，所述壳体上对应所述限位筋的位置设置有用于限定所述限位筋移动范围的限位柱。
优选地，所述导风装置还包括上转轴和下转轴；
所述上转轴沿所述壳体的长度方向设置于所述上端板背离所述导风格栅的板面上，所述壳体上对应所述上转轴开设有第一安装孔；
所述下转轴沿所述壳体的长度方向设置于所述下端板背离所述导风格栅的板面上，所述壳体上对应所述下转轴开设有第二安装孔。
优选地，所述空调柜机还包括驱动所述导风装置转动的驱动电机；
所述驱动电机设置于所述第二安装孔的下方，所述驱动电机的驱动轴与所述下转轴固定连接。
本发明进一步提供一种空调柜机的送风方法，空调柜机包括具有进风口出风口的壳体；导风组件，所述导风组件对应所述出风口设置，所述导风组件包括导风格栅和无风导流板；
所述空调柜机的送风方法包括以下步骤：
接收送风指令；
判断当前送风指令是否为无风感送风指令；
若是，从所述进风口进入的气流从所述无风导流板流出；
若否，从所述进风口进入的气流从所述导风格栅流出。
优选地，所述导风格栅和无风导流板围合形成导风腔，所述导风腔具有入风口；
所述若是，从所述进风口进入的气流从所述无风导流板流出；若否，从所述进风口进入的气流从所述导风格栅流出的步骤具体包括：
当所述指令不为无风感送风指令时，转动所述导风组件，以使气流从所述入风口进入所述导风腔，从导风格栅流出所述导风腔；
当所述指令为无风感送风指令时，转动所述导风组件，以使气流从所述导风格栅进入所述导风腔，从所述无风导流板流出所述导风腔。
优选地，所述导风格栅和无风导流板围合形成导风腔，所述导风腔具有入风口；所述导风腔内设置有隔离所述导风腔的挡风板；
所述若是，从所述进风口进入的气流从所述无风导流板流出；若否，从所述进风口进入的气流从所述导风格栅流出的步骤具体包括：
当所述指令不为无风感送风指令时，转动所述挡风板，以使气流从所述入风口进入所述导风腔，从导风格栅流出所述导风腔；
当所述指令为无风感送风指令时，转动所述挡风板，以使气流从所述入风口进入所述导风腔，从所述无风导流板流出所述导风腔。
优选地，所述导风格栅和无风导流板围合形成导风腔，所述导风腔内设置有摆叶；
所述若是，从所述进风口进入的气流从所述无风导流板流出的步骤还包括：
转动所述摆叶，以调节送风方向和送风速度。
优选地，所述导风格栅包括导风框和与所述导风框转动连接的导风板；
所述若是，从所述进风口进入的气流从所述无风导流板流出的步骤还包括：
转动所述导风板，以调节送风方向和送风速度。
本发明进一步提供一种空调柜机，空调柜机包括：
具有进风口和出风口的壳体；
导风组件，所述导风组件对应所述出风口设置，所述导风组件包括导风格栅和无风导流板；
控制装置包括：
接收模块，用于接收送风指令；
判断模块，用于判断当前送风指令是否为无风感送风指令；
送风模块，用于当所述指令为无风感送风指令时，从所述进风口进入壳体的气流从所述无风导流板流出；当所述指令不为无风感送风指令时，从所述进风口进入壳体的气流从所述导风格栅流出。
本发明中，通过将导风格栅和无风导流板间隔并排设置，使得该导风装置可以根据用户需要进行普通送风和无风感送风，当房间内的温度靠近或者达到用户的预设温度时，无风导流板对应出风口设置，使得经过导风装置的气流更加柔和，当气流吹至用户时，用户感觉更加舒适。
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为本发明空调柜机一实施例的结构示意图；
图2为图1内部结构一实施例的结构示意图；
图3为图1内部结构另一实施例的结构示意图；
图4为本发明导风装置一实施例的结构示意图；
图5为图1中A处的局部放大图；
图6为图1中B处的局部放大图；
图7为本发明空调器的送风方法一实施例的流程示意图；
图8为本发明空调器空调装置的模块结构示意图。
附图标号说明：
标号 名称 标号 名称
100 壳体 110 进风口
120 出风口 200 导风装置
210 导风格栅 220 无风导流板
230 入风口 240 导风腔
250 加强筋 260 上端板
270 上转轴 280a 限位筋
280b 限位筋 130 限位柱
300 贯流风轮 400 换热器
500 控制装置
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。
本发明主要提出一种导风装置，主要应用于空调柜机中，以增加空调柜机的送风方式，为空调柜机提供无风感送风功能，在满足用户对温度调控的要求下，使用户可以享受到柔和的风，以提高用户的体验。其中，空调柜机的贯流风轮300设置在进风口110和出风口120之间的风道中，空调柜机的换热器400对应入风口110，绕贯流风轮300设置于壳体内。其中，出风口110沿壳体100的高度方向延伸。
以下将主要描述导风装置的具体结构。
参照图1至图4，在本发明实施例中，该导风装置200用于空调器，所述导风装置200包括：
导风格栅210，所述导风格栅210上具有用于引导气流流动的导风板；
无风导流板220，所述无风导流板220上具有用于降低风速的导流件；
所述导风格栅210和所述无风导流板220并排设置，且所述导风格栅210和所述无风导流板220之间具有间隙。
具体地，本实施例中，导风板沿导风格栅210的长度方向设置，当气流经过导风格栅210时，沿导风板的板面流动。无风导流板220以弧形导流板为例，无风导流板220上设置有导流件，导流件的形状和尺寸在此不做特殊限定，只需可以降低风速即可。导流件以导流筋为例，若干的导流筋围成若干连通空调器风道和空调器外部的风道。气流经过风道流向用户指定区域。其中，风道可以具有弯绕部，即通过改变风道的流向来引导气流流道并降低风速。当然，在一些实施例中，可以在无风导流板220上开设有若干贯穿其板面的限流孔，气流从限流孔经过时，风速降低，当气流穿过无风导流板220时，风量减少。其中，限流孔的进风端的孔径，小于限流孔出风端的孔径，使得限流孔成为一个减速孔。
导风格栅210呈弧形设置，无风导流板220呈弧形设置，导风格栅210和无风导流板220沿各自的长度方向并排设置后，二者的一侧相互连接，另一侧之间具有间隙。导风格栅210和无风导流板220围成导流腔240，导流腔240沿导风格栅210和无风导流板220的长度方向设置，所述导流腔240具有沿所述导风格栅210长度方向开设的入风口230。此时导流腔240的第一侧壁由导风格栅210形成，第二侧壁由无风导流板220形成，导流腔240的周围除去第一侧壁和第二侧壁之外剩余的部分为入风口230（为导风格栅210和无风导流板220之间的间隙）。
此时，气流可以通过入风口230（间隙）进入导风格栅210和无风导流板220围成的导流腔240内，并从导风格栅210流出该区域，当然，气流也可以从导风格栅210进入该导流腔240，然后从无风导流板220流出。在上述过程中，气流的流向不变，通过转动导风装置200来改变导风格栅210、无风导流板220和入风口230三者之间位置。当气流从从导风格栅210进入导流腔240，而从无风导流板220流出导流腔240时，实现导风格栅210和无风导流板220的二次导流减速，有利于提高无风感效果。
当然，在一些实施例中，可以保持导风格栅210、无风导流板220和入风口230三者的位置，通过改变气流的流向来实现不同模式下的送风。此时，需要通过增加挡风板来切换气流的流道，而达到改变气流流向的目的。挡风板具有多个位置，每一不同的位置对应一个风道，一个风道连通入风口230和无风导流板220，另一个风道则连通入风口230和导风格栅210，还有一个风道则是连通导风格栅210和无风导流板220。如此，可以通过控制挡风板的不同位置，来形成不同的风道，而实现不同的送风方式。
当然，在一些实施例中，导风格栅210和无风导流板220也可以不围成导流腔240，在不同的模式下，只需要将对应模式的送风机构移动至出风口120即可。例如，普通送风时，导风格栅210对应出风口120设置，无风感送风时，将无风导流板220移动至对应出风口120设置即可。
本实施例中，通过将导风格栅210和无风导流板220间隔并排设置，使得该导风装置200可以根据用户需要进行普通送风和无风感送风，当房间内的温度靠近或者达到用户的预设温度时，无风导流板220对应出风口120设置，使得经过导风装置200的气流更加柔和，当气流吹至用户时，用户感觉更加舒适。
为了提高导风格栅210导风减速的能力，所述格导风栅还包括导风框，所述导风板设置于所述导风框内，且所述导风板的两端与所述导风框转动连接。
具体地，本实施例中，导风框为由多根横框条和纵框条拼接而成的矩形框。导风板的数量为多条，多条导风板沿横向框条的长度方向排列，每一导风板沿纵框条的长度方向设置，在横向框条上开设有转孔，导风板的两端插入转孔内，使得导风板与横向框条转动连接。导风板由电机驱动，电机与空调器的控制装置500电连接。
为了提高无风导流板220的无风感效果，所述导风件包括贯穿所述无风导流板220导流孔，所述导流孔的数量为多个，多个所述导流孔排布在所述无风导流板220上。导流孔进风段的孔径，小于导流孔出风段的孔径，并且自进风端向出风端呈渐扩设置。如此设置，使得气流可以平稳的、减速穿过导流孔。当气流从限流孔经过时，风速降低，由于板面的阻挡作用，使得无风导流板220的迎风侧的风量大于背风侧的风量，即气流穿过无风导流板220时，风量减少。即无风导流板220减缓了风速，减少了风量，使得吹至用户身上的风更加柔和、舒适。
为了提高无风感效果，所述导风装置200呈环形设置；所述无风导流板220为宽度方向呈弧形设置的长条形板；
所述导风格栅210为宽度方向呈弧形设置的长条形格栅；
所述无风导流板220的一侧与所述导风格栅210的一侧固定连接。
具体地，本实施例中，导风格栅210的导风框呈弧形设置，具体的为横向框条呈弧形设置。无风导流板220宽度方向弧度与横向框条长度方向的弧度相当。无风导流板220的一侧边，与一纵向框条固定连接，其连接方式可以有多种，如卡扣、螺钉以及胶粘等。当然，在一些实施例中，无风导流板220和导风框一体成型设置。当导风板相对于导风框不转动时，可以将无风导流板220和导风格栅210一体成型设置。
在一些实施例中，为了产生更好的无风感效果，所述导风格栅210宽度的延伸方向和所述无风导流板220宽度的延伸方向位于同一椭圆或圆上。
其中，所述无风导流板220宽度方向所对应的圆周角为90°~150°；
所述导风格栅210宽度方向所对应的圆周角为90°~150°。
以无风导流板220宽度的延伸方向与导风格栅210宽度方向的延伸方向在同一圆周上为例。此时，无风导流板220宽度方向的弧度与导风格栅210宽度方向的弧度相同，无风导流板220的宽度方向的两端与圆心的连线形成一个扇形，扇形的圆心角为90°~150°，以120°为例。同理，导风格栅210的宽度方向的两端与圆心的连线形成一个扇形，扇形的圆心角为90°~150°，以120°为例。此时，导风格栅210和无风导流板220之间的间隙对应的圆心角也为120°。当然，角度可以根据实际需要来调节设定。
参照图5和图6，为了提高无风导流板220和导风格栅210之间的连接强度，所述导风装置200还包括环形加强筋250。所述环形加强筋250与所述导风格栅210连接处的弧度与所述导风格栅210宽度方向的弧度相当。所述环形加强筋250与所述无风导流板220连接处的弧度与所述无风导流板220宽度方向的弧度相当。
具体地，本实施例中，环形加强筋250沿无风导流板220和导风格栅210设置在导流腔240的内壁面上。环形加强筋250的外壁面与无风导流板220的板面贴合，与导风格栅210朝向导流腔240的一侧固定连接。当然，环形加强筋250与无风导流板220和导风格栅210固定的方式可以有很多，如通过卡扣连接，螺钉连接等方式。以在无风导流板220和导风格栅210上开设有卡槽为例，环形加强筋250卡设于卡槽内。
当导风装置200受到外界载荷（自身的转动载荷或者挤压载荷等）时，无风导流板220和/或导风格栅210将承受的载荷传递至环形加强筋250，加强筋250发生弹性变形以承载载荷，当无风导流板220和/或导风格栅210的载荷撤出时，加强筋250恢复弹性形变，将内部形变的力传递出去，以备下次承载。通过环形加强筋250的设置，使得导风组件200的承载能力得到大幅提升。
本发明还提出一种空调柜机，该空调柜机包括壳体100、换热器400和导风装置200，该导风装置200的具体结构参照上述实施例，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，壳体100，所述壳体100具有进风口110、出风口120，以及位于所述进风口110和所述出风口120之间的风道。换热器400，所述换热器400对应所述进风口110设置于所述风道内。导风装置200，所述导风装置200对应所述出风口120设置于所述风道内；所述换热器400和所述导风装置200均沿所述壳体100的长度方向设置。
通过将导风装置200和换热器400沿壳体100的长度方向设置，使得换热器400可以与气流充分的换热，同时，使得充分换热后的气流在导风装置200的作用下，可以快速稳定的从空调柜机输出。
为了增加导风装置200的工作稳定性，所述导风装置200还包括：上端板260，所述上端板260的一板面同时与所述导风装置200的导风格栅210的顶部和无风导流板220的顶部固定连接。下端板，所述下端板的一板面同时与所述导风格栅210的底部和无风导流板220的底部固定连接。所述上端板260和所述下端板相对于所述壳体100转动连接，且所述导风装置200的转动轴线与所述壳体100的轴线平行设置。
具体地，本实施中，在上端板260背对无风导流板220的板面上设置有上转轴270，壳体100上对应上转轴270的位置设置有转孔，上转轴270安装在转孔中。在下端板背对无风导流板220的板面上设置有下转轴，壳体100上对应下转轴的位置设置有转孔，下转轴安装在转孔中。其中，上转轴270和下转轴共轴线。通过将导风装置200的转动轴线设置为与壳体100的轴线平行，使得导风装置200的安装和工作将根据稳定。
具体地，所述导风装置200还包括上转轴270和下转轴，所述上转轴270沿所述壳体100的长度方向设置于所述上端板260背离所述导风格栅210的板面上，所述壳体100上对应所述上转轴270开设有第一安装孔。所述下转轴沿所述壳体100的长度方向设置于所述下端板背离所述导风格栅210的板面上，所述壳体100上对应所述下转轴开设有第二安装孔。
当然，在一些实施例中，导风装置200的下端板上的下转轴可以与下端板可拆卸连接，以提高导风装置200安装的适应性，可以提高导风装置200的可安装性。
为了提高导风装置200的安装稳定性，所述上端板260和/或所述下端板上设置有限位筋280(a,b)，所述壳体100上对应所述限位筋280(a,b)的位置设置有用于限定所述限位筋280(a,b)移动范围的限位柱130。
具体地，本实施例中，限位筋280a沿上端板260和/或下端板的板面设置，当上端板260上设置有限位筋280时，限位筋280a与上转轴270设置在同一板面上。当下端板上设置有限位筋280b时，限位筋280b与下转轴设置在同一板面上。限位柱130对应限位筋280(a,b)设置在壳体100上。可以理解的是，壳体100不仅仅包括空调柜机外部的壳体100，还可以包括出风框等结构，即导风装置200、限位柱130等可以与出风框连接。
空调工作过程时，导风装置200转动切换送风模式的过程中，当导风装置200转动到预设位置时，限位筋280(a,b)与限位柱130抵接，限位柱130限定限位筋280(a,b)进一步移动，此时导风装置200的转动受到限位柱130的限定。通过限位筋280(a,b)和限位柱130的设置，来限定导风装置200转动的极限位置，避免导风装置200转动角度过大。
为了合理的利用空调柜机内的空间，所述空调柜机还包括驱动所述导风装置200转动的驱动电机。所述驱动电机设置于所述第二安装孔的下方，所述驱动电机的驱动轴与所述下转轴固定连接。
本实施例中，驱动电机设置在导风装置200的正下方，当然，在一些实施例中，也可以将驱动电机设置在导风装置200的顶部。在第二安装孔的下方设置有电机安装位，驱动电机安装于电机安装位中。下转轴穿过第二安装孔延伸至电机安装位，驱动电机的驱动轴与下转轴通过联轴器固定连接，当然，也可以通过其它紧固方式固定连接。通过将驱动电机设置在第二安装孔的正下方，在保证驱动电机可以稳定可靠的驱动导风装置200的同时，也提高了空调器内部的空间利用率。
本发明进一步提供一种空调器的送风方法，空调器包括具有进风口出风口的壳体；导风组件，所述导风组件对应所述出风口设置，所述导风组件包括导风格栅和无风导流板；所述空调器的送风方法包括以下步骤：
本发明进一步提供一种空调器的送风方法，空调器包括具有进风口110出风口120的壳体100；导风组件200，所述导风组件200对应所述出风口120设置，所述导风组件200包括导风格栅210和无风导流板220。
所述空调器的送风方法包括以下步骤：
S100：接收送风指令；
本实施例中，接收模块310可以为无线通信模块，也可以为有线通信模块，即接收模块接收指令的方式，既可以通过有线接收，也可以通过无线接收，以无线接收为例。那么，客户发送指令的终端，可以为遥控器或者移动电话，只需要与接收模块310建立电连接，可以给接收模块310发送指令即可。
S200：判断当前送风指令是否为无风感送风指令；
当接收模块接收到指令时，判断该指令是否为无风感指令，其中，判断的方式可以有多种。可以建立一个信号和指令的映射表，不同的指令对应不同的信号强度，不同的信号强度对应不同的空调运行模式。例如，第一信号强度对应普通送风模式，第二信号强度对应无风感送风模式，空调器在接收到不同指令时，根据对应的不同的信号强度执行不同的送风模式。
S300：若是，从所述进风口110进入的气流从所述无风导流板220流出；
若否，从所述进风口110进入的气流从所述导风格栅210流出。
当控制装置500接收到的是无风感指令时，送风模块控制从壳体100的进风口110进入的气流从无风导流板220流出。此时，由于无风导流板220上开设有若干的过流孔，换热后的气流从过流孔经过，使得气流变得柔和，从而，在保证换热后的气流可以进入房间的同时，又可以给用户以舒适的感觉。
当控制装置500接收到的是普通送风指令时，送风模块控制从壳体100的进风口110进入的气流从导风格栅210流出。此时，由于导风格栅210仅起到导流作用，气流可以较大的风速从导风格栅210流出。导风格栅210上设置有多块导风板，在导风板的作用下，气流输送至用户指定的区域。
其中，实现无风送风和普通送风的方式有很多，一种方式是通过移动无风导流板220和送风格栅的位置，风向不变。此时同一流向的风，在无风感模式下，移动无风导流板220至风的流向上，风通过无风导流板220流出空调器；在普通送风模式下，移动送风格栅至风的流向上，风通过送风格栅流出空调器，其中移动的方式可以转动。
另一方式，无风导流板220和送风格栅的位置不变，通过增加导流板来切换气流的流道，而改变气流的流向。无风感模式下，移动导流板切换流道的方向，将气流引导至无风导流板220，风通过无风导流板220流出空调器；在普通送风模式下，移动导流板切换流道的方向，将气流引导至送风格栅，风通过送风格栅流出空调器。
本实施例中，通过判断接收的信号是否为无风感送风指令，根据判断结果为用户送风，当接收到的为无风感送风指令时，将换热后的气流引导至无风导流板220，以使气流经过无风导流板220流出空调器；当接收到的为普通送风指令时，将换热后的气流引导至送风格栅，以使气流经过送风格栅流出空调器；使得用户可以根据实时的需求，调整空调柜机的送风模式，以满足自身的需求，有利于用户更好的体验空调柜机。
为了增加无风感的效果，所述导风格栅210和无风导流板220围合形成导风腔240，所述导风腔240具有入风口230；
所述当所述指令为无风感送风指令时，从所述进风口110进入的气流从所述无风导流板220流出；当所述指令不为无风感送风指令时，从所述进风口110进入的气流从所述导风格栅210流出的步骤具体包括：
当所述指令不为无风感送风指令时，转动所述导风组件200，以使气流从所述入风口230进入所述导风腔240，从导风格栅210流出所述导风腔240；
具体地，本实施例中，导风格栅210和无风导流板220均呈长条形设置，入风口230沿导风格栅210的长度方向开设。当接收到的指令为普通送风指令时，第一送风单元转动导风组件200，以使入风口230与空调器的风道连通，气流自入风口230进入导风腔240，从导风格栅210流出导风腔240，气流在导风格栅210的作用下输送至用户指定的区域。
当所述指令为无风感送风指令时，转动所述导风组件200，以使气流从所述导风格栅210进入所述导风腔240，从所述无风导流板220流出所述导风腔240。
当接收的指令为无风感送风指令时，第二送风单元转动导风组件200，以使导风格栅210与空调器的风道连通，气流自导风格栅210进入导风腔240，从导无风导流板220流出导风腔240，气流在无风导流板220的作用下输送至房间内。
本实施例中，通过将导风格栅210和无风导流板220围成环形，使得导风格栅210、无风导流板220和入风口230位置的切换，只需要转动导风组件200以使与送风模式对应的进风位置和出风位置到预设的位置即可。在本实施例中的无风感模式下，气流先经过导风格栅210进行一级减速，减速后的气流再从无风导流板220流出时，风将变得更加柔和，使得用户更加舒适。
为了增加无风感的效果，所述导风格栅210和无风导流板220围合形成导风腔240，所述导风腔240具有入风口230；所述导风腔240内设置有隔离所述导风腔240的挡风板；
所述当所述指令为无风感送风指令时，从所述进风口110进入的气流从所述无风导流板220流出；当所述指令不为无风感送风指令时，从所述进风口110进入的气流从所述导风格栅210流出的步骤具体包括：
当所述指令不为无风感送风指令时，转动所述挡风板，以使气流从所述入风口230进入所述导风腔240，从导风格栅210流出所述导风腔240；
具体地，本实施例中，导风格栅210和无风导流板220均呈长条形设置，入风口230沿导风格栅210的长度方向开设。当接收到的指令为普通送风指令时，第三送风单元转动导风腔240内的挡风板，使得出风风道形成于入风口230、挡风板和导风格栅210之间，以使入风口230与空调器的风道连通，气流自入风口230进入导风腔240，从导风格栅210流出导风腔240，气流在导风格栅210的作用下输送至用户指定的区域。
当所述指令为无风感送风指令时，转动所述挡风板，以使气流从所述入风口230进入所述导风腔240，从所述无风导流板220流出所述导风腔240。
当接收的指令为无风感送风指令时，第四送风单元转动导风腔240内的挡风板，使得出风风道形成于入风口230、挡风板和无风导流板220之间，以使入风口230与空调器的风道连通，气流自入风口230进入导风腔240，从导无风导流板220流出导风腔240，气流在无风导流板220的作用下输送至房间内。
本实施例中，通过将挡风板设置在导风腔240内，使得出风风道的位置和出风位置可以随着挡风板的转动而调整，便于快速、准确的调整出风模式，有利于用户快速的体验到需要的模式。
为了增加无风感的效果，所述导风格栅210和无风导流板220围合形成导风腔240，所述导风腔240内设置有摆叶；
所述当所述指令为无风感送风指令时，从所述进风口110进入的气流从所述无风导流板220流出的步骤还包括：
转动所述摆叶，以调节送风方向和送风速度。
具体地，本实施例中，摆叶的形状在此不做特殊限定，矩形、圆形、凸圆形均可，其形状与导风腔240的形状适配。空调器包括多个摆叶，多个摆叶沿导风腔240的长度方向排列。当空调器处于无风感送风模式时，摆动摆叶，使摆叶对进入导风腔240的气流进行减速和导向，此时，摆叶作进行二级减速。
通过摆叶的设置，在本实施例中的无风感模式下，进入导风腔240的气流先经过摆叶进行二级减速，减速后的气流再从无风导流板220流出时，风将变得更加柔和，使得用户更加舒适。
当然，在一些实施例中，摆叶的叶面上开设有贯穿整个摆叶的限流孔。为了实现更好的无风感模式，摆叶摆动至一定位置时停止摆动，此时，部分气流从限流孔中穿过摆叶，以将气流“打散”，是气流变得更加柔和，从而有利于提高风的柔和性。
为了增加无风感的效果，所述导风格栅210包括导风框和与所述导风框转动连接的导风板；
所述当所述指令为无风感送风指令时，从所述进风口110进入的气流从所述无风导流板220流出的步骤还包括：
转动所述导风板，以调节送风方向和送风速度。
具体地，本实施例中，导风格栅210包括出风框和若干导风板，若干导风板并排设置在出风框内，且每一导风板均与出风框转动连接。无风感模式下，气流先经过导风格栅210进入导风腔240，此时导风板摆动以对进入导风腔240的气流导向并减速。通过导风板的摆动对气流进行减速，使得减速后的气流更加柔和，当气流从无风导流板220流出时，风将使用户更加舒适。
当然，在一些实施例中，可以先经过导风格栅210一级减速导风，再经过摆叶进行二级减速导风，然后经过无风导流板220进行三级减速导风。以使空调器的无风感效果达到一个新的高度。
为实现上述目的，本发明提出的空调器，该空调器包括：
具有进风口和出风口的壳体；
导风组件，所述导风组件对应所述出风口设置，所述导风组件包括导风格栅和无风导流板；
控制装置500包括：
接收模块510，用于接收送风指令；
判断模块520，用于判断当前送风指令是否为无风感送风指令；
送风模块530，用于当所述指令为无风感送风指令时，从所述进风口进入壳体的气流从所述无风导流板流出；当所述指令不为无风感送风指令时，从所述进风口进入壳体的气流从所述导风格栅流出。
优选地，所述导风格栅和无风导流板围合形成导风腔，所述导风腔具有入风口；
送风模块包括：
第一送风单元，用于转动所述导风组件，以使气流从所述入风口进入所述导风腔，从导风格栅流出所述导风腔；
第二送风单元，用于转动所述导风组件，以使气流从所述导风格栅进入所述导风腔，从所述无风导流板流出所述导风腔。
优选地，所述导风格栅和无风导流板围合形成导风腔，所述导风腔具有入风口；所述导风腔内设置有隔离所述导风腔的挡风板；
送风模块包括：
第三送风单元，用于转动所述挡风板，以使气流从所述入风口进入所述导风腔，从导风格栅流出所述导风腔；
第四送风单元，用于转动所述挡风板，以使气流从所述入风口进入所述导风腔，从所述无风导流板流出所述导风腔。
优选地，所述导风格栅和无风导流板围合形成导风腔，所述导风腔内设置有摆叶；
当所述空调器处于无风感送风模式时，所述送风模块包括：
第五送风单元，用于转动所述摆叶，以调节送风方向和送风速度。
优选地，所述导风格栅包括导风框和与所述导风框转动连接的导风板；
当所述空调器处于无风感送风模式时，所述送风模块包括：
第六送风单元，用于转动所述导风板，以调节送风方向和送风速度。
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 (20)

  1. 一种导风装置，用于空调器，其特征在于，所述导风装置包括：
    导风格栅，所述导风格栅上具有用于引导气流流动的导风板；
    无风导流板，所述无风导流板上具有用于降低风速的导流件；
    所述导风格栅和所述无风导流板并排设置，且所述导风格栅和所述无风导流板之间具有间隙。
  2. 如权利要求1所述的导风装置，其特征在于，所述格栅还包括导风框，所述导风板设置于所述导风框内，且所述导风板的两端与所述导风框转动连接。
  3. 如权利要求1所述的导风装置，其特征在于，所述导风件包括贯穿所述无风导流板导流孔，所述导流孔的数量为多个，多个所述导流孔排布在所述无风导流板上。
  4. 如权利要求1所述的导风装置，其特征在于，所述导风装置呈环形设置；所述无风导流板为宽度方向呈弧形设置的长条形板；
    所述导风格栅为宽度方向呈弧形设置的长条形格栅；
    所述无风导流板的一侧与所述导风格栅的一侧固定连接。
  5. 如权利要求4所述的导风装置，其特征在于，所述导风格栅宽度的延伸方向和所述无风导流板宽度的延伸方向位于同一椭圆或圆上。
  6. 如权利要求4所述的导风装置，其特征在于，所述导风装置还包括环形加强筋；
    所述环形加强筋与所述导风格栅连接处的弧度与所述导风格栅宽度方向的弧度相当；
    所述环形加强筋与所述无风导流板连接处的弧度与所述无风导流板宽度方向的弧度相当。
  7. 如权利要求4所述的导风装置，其特征在于，
    所述无风导流板宽度方向所对应的圆周角为90°~150°；
    所述导风格栅宽度方向所对应的圆周角为90°~150°。
  8. 如权利要求1所述的导风装置，其特征在于，
    所述导风格栅和所述无风导流板围成导流腔，所述导流腔具有沿所述导风格栅长度方向开设的入风口。
  9. 如权利要求8所述的导风装置，其特征在于，所述导风格栅和所述无风导流板一体成型设置。
  10. 一种空调柜机，其特征在于，包括：
    壳体，所述壳体具有进风口、出风口，以及位于所述进风口和所述出风口之间的风道；
    换热器，所述换热器对应所述进风口设置于所述风道内；
    如权利要求1所述的导风装置，所述导风装置对应所述出风口设置于所述风道内；
    所述换热器和所述导风装置均沿所述壳体的长度方向设置。
  11. 如权利要求10所述的空调柜机，其特征在于，所述导风装置还包括：
    上端板，所述上端板的一板面同时与所述导风装置的导风格栅的顶部和无风导流板的顶部固定连接；
    下端板，所述下端板的一板面同时与所述导风格栅的底部和无风导流板的底部固定连接；
    所述上端板和所述下端板相对于所述壳体转动连接，且所述导风装置的转动轴线与所述壳体的轴线平行设置。
  12. 如权利要求11所述的空调柜机，其特征在于，所述上端板和/或所述下端板上设置有限位筋，所述壳体上对应所述限位筋的位置设置有用于限定所述限位筋移动范围的限位柱。
  13. 如权利要求11所述的空调柜机，其特征在于，所述导风装置还包括上转轴和下转轴；
    所述上转轴沿所述壳体的长度方向设置于所述上端板背离所述导风格栅的板面上，所述壳体上对应所述上转轴开设有第一安装孔；
    所述下转轴沿所述壳体的长度方向设置于所述下端板背离所述导风格栅的板面上，所述壳体上对应所述下转轴开设有第二安装孔。
  14. 如权利要求13所述的空调柜机，其特征在于，所述空调柜机还包括驱动所述导风装置转动的驱动电机；
    所述驱动电机设置于所述第二安装孔的下方，所述驱动电机的驱动轴与所述下转轴固定连接。
  15. 一种空调柜机的送风方法，其特征在于，空调器包括具有进风口出风口的壳体；导风组件，所述导风组件对应所述出风口设置，所述导风组件包括导风格栅和无风导流板；
    所述空调器的送风方法包括以下步骤：
    接收送风指令；
    判断当前送风指令是否为无风感送风指令；
    若是，从所述进风口进入的气流从所述无风导流板流出；
    若否，从所述进风口进入的气流从所述导风格栅流出。
  16. 如权利要求15所述的空调柜机的送风方法，其特征在于，所述导风格栅和无风导流板围合形成导风腔，所述导风腔具有入风口；
    所述若是，从所述进风口进入的气流从所述无风导流板流出；若否，从所述进风口进入的气流从所述导风格栅流出的步骤具体包括：
    当所述指令不为无风感送风指令时，转动所述导风组件，以使气流从所述入风口进入所述导风腔，从导风格栅流出所述导风腔；
    当所述指令为无风感送风指令时，转动所述导风组件，以使气流从所述导风格栅进入所述导风腔，从所述无风导流板流出所述导风腔。
  17. 如权利要求15所述的空调柜机的送风方法，其特征在于，所述导风格栅和无风导流板围合形成导风腔，所述导风腔具有入风口；所述导风腔内设置有隔离所述导风腔的挡风板；
    所述若是，从所述进风口进入的气流从所述无风导流板流出；若否，从所述进风口进入的气流从所述导风格栅流出的步骤具体包括：
    当所述指令不为无风感送风指令时，转动所述挡风板，以使气流从所述入风口进入所述导风腔，从导风格栅流出所述导风腔；
    当所述指令为无风感送风指令时，转动所述挡风板，以使气流从所述入风口进入所述导风腔，从所述无风导流板流出所述导风腔。
  18. 如权利要求15所述的空调柜机的送风方法，其特征在于，
    所述导风格栅和无风导流板围合形成导风腔，所述导风腔内设置有摆叶；
    所述若是，从所述进风口进入的气流从所述无风导流板流出的步骤还包括：
    转动所述摆叶，以调节送风方向和送风速度。
  19. 如权利要求15所述的空调柜机的送风方法，其特征在于，所述导风格栅包括导风框和与所述导风框转动连接的导风板；
    所述若是，从所述进风口进入的气流从所述无风导流板流出的步骤还包括：
    转动所述导风板，以调节送风方向和送风速度。
  20. 一种空调柜机，其特征在于，空调柜机包括：
    具有进风口和出风口的壳体；
    导风组件，所述导风组件对应所述出风口设置，所述导风组件包括导风格栅和无风导流板；
    控制装置包括：
    接收模块，用于接收送风指令；
    判断模块，用于判断当前送风指令是否为无风感送风指令；
    送风模块，用于当所述指令为无风感送风指令时，从所述进风口进入壳体的气流从所述无风导流板流出；当所述指令不为无风感送风指令时，从所述进风口进入壳体的气流从所述导风格栅流出。
PCT/CN2017/078304 2016-08-31 2017-03-27 导风装置、空调柜机及其送风方法 WO2018040552A1 (zh)

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