WO2024159765A1 - 一种导风板以及空调器 - Google Patents
一种导风板以及空调器 Download PDFInfo
- Publication number
- WO2024159765A1 WO2024159765A1 PCT/CN2023/119823 CN2023119823W WO2024159765A1 WO 2024159765 A1 WO2024159765 A1 WO 2024159765A1 CN 2023119823 W CN2023119823 W CN 2023119823W WO 2024159765 A1 WO2024159765 A1 WO 2024159765A1
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- WO
- WIPO (PCT)
- Prior art keywords
- air
- guide plate
- air guide
- plate body
- plate
- Prior art date
Links
- 230000003014 reinforcing effect Effects 0.000 claims description 8
- 230000000694 effects Effects 0.000 description 17
- 238000010438 heat treatment Methods 0.000 description 15
- 238000000034 method Methods 0.000 description 14
- 230000008569 process Effects 0.000 description 14
- 238000001816 cooling Methods 0.000 description 10
- 238000010586 diagram Methods 0.000 description 10
- 230000002708 enhancing effect Effects 0.000 description 6
- 230000002452 interceptive effect Effects 0.000 description 4
- 230000001965 increasing effect Effects 0.000 description 3
- 230000005540 biological transmission Effects 0.000 description 2
- 230000000295 complement effect Effects 0.000 description 2
- 238000012423 maintenance Methods 0.000 description 2
- 238000004519 manufacturing process Methods 0.000 description 2
- 101001121408 Homo sapiens L-amino-acid oxidase Proteins 0.000 description 1
- 102100026388 L-amino-acid oxidase Human genes 0.000 description 1
- 101100012902 Saccharomyces cerevisiae (strain ATCC 204508 / S288c) FIG2 gene Proteins 0.000 description 1
- 101100233916 Saccharomyces cerevisiae (strain ATCC 204508 / S288c) KAR5 gene Proteins 0.000 description 1
- 238000004378 air conditioning Methods 0.000 description 1
- 238000007664 blowing Methods 0.000 description 1
- 238000007599 discharging Methods 0.000 description 1
- 238000013178 mathematical model Methods 0.000 description 1
- 238000005259 measurement Methods 0.000 description 1
- 238000012986 modification Methods 0.000 description 1
- 230000004048 modification Effects 0.000 description 1
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
- F24F1/0011—Indoor units, e.g. fan coil units characterised by air outlets
- F24F1/0014—Indoor units, e.g. fan coil units characterised by air outlets having two or more outlet openings
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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
- F24F1/0043—Indoor units, e.g. fan coil units characterised by mounting arrangements
- F24F1/0057—Indoor units, e.g. fan coil units characterised by mounting arrangements mounted in or on a wall
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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
- F24F11/00—Control or safety arrangements
- F24F11/70—Control systems characterised by their outputs; Constructional details thereof
- F24F11/72—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure
- F24F11/79—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure for controlling the direction of the supplied air
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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
- 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
- F24F13/10—Air-flow control members, e.g. louvres, grilles, flaps or guide plates movable, e.g. dampers
- F24F13/14—Air-flow control members, e.g. louvres, grilles, flaps or guide plates movable, e.g. dampers built up of tilting members, e.g. louvre
-
- 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
- F24F13/32—Supports for air-conditioning, air-humidification or ventilation units
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F2130/00—Control inputs relating to environmental factors not covered by group F24F2110/00
Definitions
- the present invention relates to the technical field of air conditioning, and in particular to an air guide plate and an air conditioner.
- the air guide plate requires a large movement space for rotation, and in order to ensure that the appearance size of the air conditioner remains unchanged, it is necessary to reduce the material of the shell, which may lead to lower shell strength and affect the service life of the air conditioner.
- the air guide plate is unevenly stressed during rotation, which can easily lead to unsmooth rotation of the air guide plate or even jamming, affecting the user experience.
- the problem solved by the present invention is how to reduce the movement space required for the air guide plate to rotate, and ensure that the air guide plate is evenly stressed during the rotation process, so as to avoid the situation where the air guide plate rotates unsmoothly or even freezes, thereby improving the user experience.
- the present invention provides an air deflector, which is applied to an air conditioner.
- the air deflector includes a plate body, the cross section of the plate body is arranged in an arc shape, and the rotation axis of the plate body is located on the mid-perpendicular line of the longest chord of the plate body.
- the air deflector provided by the present invention uses a plate body whose rotation axis is located on the mid-perpendicular line of the longest chord of the plate body, so it can reduce the movement space required for the rotation of the air deflector, and ensure that the air deflector is uniformly stressed during the rotation process, avoiding the situation that the air deflector rotates unsmoothly or even freezes, thereby improving the user experience.
- the rotation axis of the plate body does not coincide with the center of the plate body, so that the rotation trajectory of the plate body does not coincide with the arc extension direction of the plate body, thereby facilitating the use of the plate body to adjust the air outlet direction of the air conditioner, thereby achieving a variety of air outlet modes for the air conditioner.
- the inner diameter of the plate body ranges from 27 mm to 30 mm; and/or the distance between the center of the plate body and the rotation axis of the plate body ranges from 7.8 mm to 9.2 mm.
- Reasonable inner diameter of the plate body and the distance between the center of the plate body and the rotation axis of the plate body can minimize the movement space required for the air guide plate to rotate while ensuring the air guide effect, and prevent the air guide plate from interfering with the components in the air conditioner hanging machine.
- the plate body is densely provided with a plurality of first micropores, the first micropores are used for the outlet airflow to pass through, and the angle formed between the outlet directions of any two first micropores is less than or equal to 42 degrees.
- the air volume and wind speed of the outlet airflow flowing out of the first micropores are extremely low, and the outlet airflow flows out slowly from the plurality of first micropores to realize the zero wind sense outlet function of the air conditioner, and ensure the heat exchange effect when the zero wind sense outlet is used.
- the air guide plate also includes a connecting block, which is connected to the inner concave surface of the plate body, and the connecting block is used to be rotatably connected to the mounting frame.
- the air guide plate further comprises reinforcing ribs connected between the plate body and the connecting block.
- the reinforcing ribs are used to increase the connection strength between the plate body and the connecting block, thereby increasing the strength of the entire air guide plate and preventing the air guide plate from being deformed or broken.
- the present invention provides an air conditioner, comprising a housing and the above-mentioned air guide plate, wherein the housing is provided with an air guide space, an air outlet is provided on the outside of the air guide space, and the air guide plate is rotatably installed in the air guide space, and the air guide plate is used to guide the air flow blown into the air guide space and discharge it from the air outlet, and the air guide plate comprises a plate body, the cross section of the plate body is arranged in an arc shape, and the rotation axis of the plate body is located on the mid-perpendicular line of the longest chord of the plate body.
- the air conditioner can reduce the time required for the air guide plate to rotate The movement space can be increased and the force on the air guide plate can be evenly distributed during the rotation process to avoid the situation that the air guide plate rotates unsmoothly or even freezes, thus improving the user experience.
- the housing includes a middle frame and a front panel, the front panel is mounted on the outside of the middle frame, an auxiliary air outlet channel is formed between the front panel and the middle frame, the air guide plate is also used to guide the outlet airflow into the auxiliary air outlet channel, the front panel is densely provided with a plurality of second micropores, the second micropores are connected to the auxiliary air outlet channel, and the second micropores are used to discharge the outlet airflow in the auxiliary air outlet channel.
- the air volume and wind speed of the outlet airflow flowing out of the second micropores are extremely low, and the outlet airflow slowly flows out of the second micropores on the front panel to achieve the zero wind sense air outlet function of the air conditioner.
- the first air guide plate has a first rotation axis
- the second air guide plate has a second rotation axis
- the first rotation axis is parallel to the second rotation axis and is arranged at an interval
- the first air guide plate is arranged closer to the front panel relative to the second air guide plate
- the first rotation axis is located obliquely above the second rotation axis, so that the air guiding functions of the first air guide plate and the second air guide plate complement each other, further enhancing the air guiding effect and improving the user experience.
- FIG1 is a schematic structural diagram of an air guide plate installed on a mounting frame according to a first embodiment of the present invention
- FIG. 4 is a schematic structural diagram of an air conditioner according to a second embodiment of the present invention.
- FIG. 5 is a cross-sectional view of an air conditioner according to a second embodiment of the present invention.
- FIG. 6 is a schematic structural diagram of the air conditioner according to the second embodiment of the present invention when it is in a zero wind sense mode
- FIG. 7 is a schematic structural diagram of the air conditioner according to the second embodiment of the present invention when it is in enhanced heating mode;
- FIG. 8 is a schematic structural diagram of the air conditioner according to the second embodiment of the present invention when it is in a normal heating mode
- FIG. 9 is a schematic structural diagram of the air conditioner according to the second embodiment of the present invention when it is in cooling mode
- FIG. 10 is a schematic structural diagram of the air conditioner according to the second embodiment of the present invention when it is in a constant temperature mode
- FIG. 11 is a schematic structural diagram of the air conditioner according to the second embodiment of the present invention when it is in a dual-zone air supply mode.
- 10-air conditioner 100-air guide plate; 110-plate body; 111-first micropore; 112-inner concave surface; 113-outer convex surface; 120-connecting block; 130-reinforcement rib; 140-first air guide plate; 150-second air guide plate; 200-housing; 210-air guide space; 220-air outlet; 230-middle frame; 240-front panel; 241-second micropore; 250-auxiliary air outlet channel; 300-mounting frame; 400-drive motor; 410-first drive motor; 420-second drive motor; 500-volute air duct; 600-crossflow fan.
- an embodiment of the present invention provides an air deflector 100 for realizing an air deflection function. It can reduce the movement space required for the air deflector 100 to rotate, and ensure that the air deflector 100 is evenly stressed during the rotation process, thereby preventing the air deflector 100 from rotating unsmoothly or even stuck, thereby improving the user experience.
- the air guide plate 100 is applied to an air conditioner mounted on a wall in a room.
- the air conditioner mounted on a wall can blow hot air or cold air into the room to achieve a heating or cooling function.
- the air guide plate 100 is used to guide the airflow when the air conditioner is on-hook to the outside, so as to adjust the air outlet direction of the air conditioner to meet the needs of users.
- the air guide plate 100 can be applied to air conditioner cabinets or mobile air conditioners, and the application scenarios of the air guide plate 100 are not specifically limited.
- the air guide plate 100 includes a plate body 110, a connecting block 120 and a reinforcing rib 130.
- the cross section of the plate body 110 along its width direction is arranged in an arc shape.
- the plate body 110 arranged in an arc shape has a small wind resistance and has a good air guiding effect. Both sides of the plate body 110 can guide the air to improve the diversity of the air outlet mode of the air conditioner.
- the plate body 110 is relatively provided with an inner concave surface 112 and an outer convex surface 113.
- the connecting block 120 is connected to the inner concave surface 112 of the plate body 110.
- the connecting block 120 is used to be rotatably connected to the mounting frame 300.
- the connecting block 120 is used to support the plate body 110, and the plate body 110 is used to guide the air.
- the connecting block 120 has a rotation axis, which is the rotation axis of the entire air guide plate 100.
- the connecting block 120 can rotate along its rotation axis relative to the mounting frame 300, and the mounting frame 300 can limit the connecting block 120, thereby limiting the plate body 110, ensuring that the plate body 110 can rotate along the rotation axis of the plate body 110 driven by the connecting block 120, thereby preventing the plate body 110 from tilting or deflecting.
- the rotation axis of the plate body 110 is located on the perpendicular midline of the longest chord of the plate body 110, and the longest chord of the plate body 110 is the chord corresponding to the arc of the plate body 110.
- the aforementioned perpendicular midline is not a perpendicular midline in an absolute sense.
- a line is drawn connecting the midpoint of the longest chord of the plate body 110 and the rotation axis of the plate body 110.
- the movement space required for the rotation of the entire air guide plate 100 can be minimized, thereby reducing the movement space required for the rotation of the air guide plate 100.
- the rotation axis of the plate body 110 located on the perpendicular midline can ensure that the air guide plate 100 is evenly stressed during the rotation process, avoiding the situation where the rotation is not smooth or even stuck, thereby improving the user experience.
- the reinforcing rib 130 is connected between the plate body 110 and the connecting block 120.
- the reinforcing rib 130 is used to improve the connection strength between the plate body 110 and the connecting block 120, thereby improving the strength of the entire air guide plate 100 and preventing the air guide plate 100 from being deformed or broken.
- there are multiple connecting blocks 120 which are arranged at intervals on the plate body 110, and the multiple connecting blocks 120 are used to be rotatably connected with the mounting frame 300, so as to further improve the stability of the cooperation between the air guide plate 100 and the mounting frame 300, and prevent the air guide plate 100 from being separated from the mounting frame 300.
- the rotation axis of the plate body 110 does not coincide with the center of the plate body 110, so that the rotation trajectory of the plate body 110 does not coincide with the arc extension direction of the plate body 110, so that it is convenient to use the plate body 110 to adjust the air outlet direction of the air conditioner, and realize the diversity of the air outlet mode of the air conditioner.
- the center of the plate body 110 is located on the perpendicular midline of the longest chord of the plate body 110, and the rotation axis of the plate body 110 is located between the plate body 110 and the center of the plate body 110, that is, the center of the plate body 110 is set on the side of the rotation axis of the plate body 110 away from the plate body 110, so as to further reduce the movement space required for the air guide plate 100 to rotate, and prevent the air guide plate 100 from interfering with the parts in the air conditioner during the rotation process.
- the inner diameter of the plate body 110 ranges from 27 mm to 30 mm; or, the distance between the center of the plate body 110 and the rotation axis of the plate body 110 ranges from 7.8 mm to 9.2 mm; or, when the inner diameter of the plate body 110 ranges from 27 mm to 30 mm, the distance between the center of the plate body 110 and the rotation axis of the plate body 110 ranges from 7.8 mm to 9.2 mm.
- Reasonable inner diameter of the plate body 110 and the distance between the center of the plate body 110 and the rotation axis of the plate body 110 can minimize the movement space required for the air guide plate 100 to rotate while ensuring the wind guide effect, and prevent the air guide plate 100 from interfering with the components in the air conditioner hanging machine.
- the inner diameter of the plate body 110 is 28 mm, and the distance between the center of the plate body 110 and the rotation axis of the plate body 110 is 8.82 mm, but it is not limited to this.
- the inner diameter of the plate body 110 can be 27 mm or 30 mm; the distance between the center of the plate body 110 and the rotation axis of the plate body 110 can be 7.8 mm or 9.2 mm; the inner diameter of the plate body 110 and the distance between the center of the plate body 110 and the rotation axis of the plate body 110 are not specifically limited.
- the longest chord of the plate 110 is represented as line segment AB
- the midpoint of the longest chord of the plate 110 is represented as point C
- the rotation axis of the plate 110 is represented as point D
- the plate 110 is represented as point
- the perpendicular bisector of the longest chord is represented as the straight line where the two points CD are located
- the center of the plate body 110 is represented as point E
- the inner diameter of the plate body 110 is represented as r.
- the plate body 110 is densely provided with a plurality of first micropores 111, and the first micropores 111 are used for the outlet airflow to pass through, so as to realize the zero wind feeling outlet function of the air conditioner. Specifically, when the air conditioner is in the zero wind feeling outlet state, the air guide plate 100 is closed, and the outlet airflow can flow into the room through the plurality of first micropores 111 on the plate body 110.
- the diameter of the first micropores 111 is small, the air volume and wind speed of the outlet airflow flowing out of the first micropores 111 are extremely low, and the outlet airflow flows out slowly from the plurality of first micropores 111, so as to realize the zero wind feeling outlet function of the air conditioner, and ensure the heat exchange effect when the air is discharged with zero wind feeling.
- the angle formed between the outlet directions of any two first micro-holes 111 is less than or equal to 42 degrees, that is, the angle formed between the opening directions of any two first micro-holes 111 is less than or equal to 42 degrees.
- the wind resistance caused by the first micro-holes 111 can be effectively reduced to avoid noise.
- the outlet direction of the air flow can be adjusted by using them, so that the outlet direction is more dispersed, and the effect of zero wind feeling air outlet is improved.
- the cross section of the plate body 110 of the air deflector 100 described in the embodiment of the present invention is arranged in an arc shape, and the rotation axis of the plate body 110 is located on the mid-perpendicular line of the longest chord of the plate body 110.
- the air deflector 100 provided by the present invention can reduce the movement space required for the rotation of the air deflector 100 because the rotation axis of the plate body 110 is located on the mid-perpendicular line of the longest chord of the plate body 110, and ensure that the air deflector 100 is subjected to uniform force during the rotation process, thereby avoiding the situation that the air deflector 100 rotates unsmoothly or even freezes, thereby improving the user experience.
- the present invention provides an air conditioner 10 for controlling indoor temperature.
- the air conditioner 10 includes a housing 200, a mounting frame 300, a drive motor 400 and an air guide plate 100.
- the basic structure and principle of the air guide plate 100 and the technical effects produced are the same as those of the first embodiment.
- the air conditioner 10 is a wall mounted air conditioner.
- the air conditioner 10 is mounted on a wall indoors.
- the air conditioner 10 can blow hot or cold air indoors to achieve a temperature control function.
- the air guide plate 100 is used to guide the airflow when the air conditioner 10 blows air outwards to adjust the airflow direction of the air conditioner 10.
- the air guide plate 100 can enable the air conditioner 10 to achieve different airflow modes, thereby increasing the diversity of the airflow of the air conditioner 10.
- the housing 200 is provided with an air guide space 210, and an air outlet 220 is provided on the outside of the air guide space 210.
- the air guide space 210 is used to be connected to the volute air duct 500.
- the cross-flow fan 600 installed in the volute air duct 500 can generate negative pressure to drive the outlet air flow to flow into the air guide space 210 through the volute air duct 500.
- the air guide plate 100 is rotatably installed in the air guide space 210, and the air guide plate 100 is used to guide the outlet air flow blown into the air guide space 210 and discharge it from the air outlet 220, so as to achieve the function of adjusting the air outlet direction of the air conditioner 10.
- the housing 200 includes a middle frame 230 and a front panel 240.
- the front panel 240 is installed on the outside of the middle frame 230, and the front panel 240 is used to shield the middle frame 230 to improve the aesthetics of the entire air conditioner 10.
- An auxiliary air outlet channel 250 is formed between the front panel 240 and the middle frame 230.
- the air guide plate 100 is also used to guide the outlet air flow into the auxiliary air outlet channel 250.
- the front panel 240 is densely provided with a plurality of second micropores 241.
- the second micropores 241 are connected to the auxiliary air outlet channel 250.
- the second micropores 241 are used for discharging the outlet air flow in the auxiliary air outlet channel 250.
- the outlet air flow in the auxiliary air outlet channel 250 can flow out through a plurality of second micropores 241 at the same time. Since the diameter of the second micropores 241 is small, the air volume and wind speed of the outlet air flow flowing out of the second micropores 241 are extremely low. The outlet air flow slowly flows out from the second micropores 241 on the front panel 240 to realize the zero wind feeling air outlet function of the air conditioner 10.
- the mounting frame 300 is detachably connected to the middle frame 230, the air guide plate 100 is rotatably mounted on the mounting frame 300, the mounting frame 300 is used to carry the air guide plate 100, and the air guide plate 100 is used to rotate relative to the mounting frame 300 to guide the outgoing air flow.
- the driving motor 400 is mounted on the housing 200 and is transmission-connected to the air guide plate 100, and the driving motor 400 is used to drive the air guide plate 100 to rotate, so as to realize the electronically controlled adjustment of the rotation angle of the air guide plate 100.
- the first air guide plate 140 has a first rotation axis
- the second air guide plate 150 has a second rotation axis.
- the first rotation axis is parallel to the second rotation axis and is arranged at intervals, so that the wind guiding functions of the first air guide plate 140 and the second air guide plate 150 complement each other, further enhance the wind guiding effect, and improve the user experience.
- the first air guide plate 140 is arranged close to the front panel 240 relative to the second air guide plate 150, that is, the first air guide plate 140 is arranged on the side of the second air guide plate 150 close to the front panel 240, and the first rotation axis is located obliquely above the second rotation axis (the up and down direction is the vertical direction).
- the second air guide plate 150 is used to guide the outlet air flow toward the area where the first air guide plate 140 is located, and the first air guide plate 140 is used to guide the outlet air flow toward the auxiliary air outlet channel 250, so that the outlet air flow continuously enters the auxiliary air outlet channel 250, so that the outlet air flow continuously flows out from the second micropores 241, and the zero wind sense air outlet function is achieved.
- multiple air guide plates may also be used as long as the functions of the first air guide plate 140 and the second air guide plate 150 can be met.
- the first drive motor 410 is connected to the first air guide plate 140 by transmission, and is used to drive the first air guide plate 140 to rotate.
- the second drive motor 420 is connected to the second air guide plate 150 by transmission, and is used to drive the second air guide plate 150 to rotate.
- the first drive motor 410 and the second drive motor 420 operate independently, that is, the actions of the first air guide plate 140 and the second air guide plate 150 do not interfere with each other. The user can operate only the first air guide plate 140 without operating the second air guide plate 150, or only operate the second air guide plate 150 without operating the first air guide plate 140, so as to improve the diversity of air output of the air conditioner 10.
- the air conditioner 10 has six modes, namely, zero wind sense mode, enhanced heating mode, ordinary heating mode, cooling mode, constant temperature mode and dual-zone air supply mode.
- the air volume and air speed of the zero wind sense mode are extremely low, and the user can hardly feel the direct blowing of the air flow, and the comfort level is relatively high.
- This mode can be used for both heating and cooling, and is suitable for scenes where the user is sleeping or working; the air volume and air speed of the enhanced heating mode are relatively high, and the air flow is blown out to the ground in a vertical downward direction, and then diffuses from the ground to the surroundings and upwards to quickly achieve the heating function.
- the air volume and air speed of the ordinary heating mode are relatively high, and the air flow is blown downward along the first direction, and the heat continues to diffuse downward to achieve the heating maintenance function, which is suitable for the scene where the indoor temperature needs to be maintained after it rises to a certain level;
- the air volume and air speed of the cooling mode are relatively high, and the air flow is blown downward along the second direction, and the coldness continues to diffuse downward to achieve the cooling maintenance function, which is suitable for the scene where the indoor temperature needs to be maintained after it drops to a certain level;
- the air volume and air speed of the constant temperature mode are relatively low, and the air flow is blown downward along the third direction.
- the first air guide plate 140 and the second air guide plate 150 are both rotated to a position between the middle position and the right extreme position.
- the inner concave surfaces 112 of the first air guide plate 140 and the second air guide plate 150 are both set obliquely upward, and the inner concave surface 112 of the first air guide plate 140, the outer convex surface 113 of the first air guide plate 140 and the inner concave surface 112 of the second air guide plate 150 are jointly used to guide the outlet air flow.
- a part of the outlet airflow blown out from the volute air duct 500 flows obliquely downward along the third direction along the inner concave surface 112 of the first air guide plate 140, and the other part flows between the outer convex surface 113 of the first air guide plate 140 and the inner concave surface 112 of the second air guide plate 150.
- the outer convex surface 113 of the first air guide plate 140 and the inner concave surface 112 of the second air guide plate 150 work together to make the outlet airflow flow obliquely downward along the third direction.
- the first air guide plate 140 and the second air guide plate 150 simultaneously play the role of guiding the air, ensuring that the outlet airflow flows obliquely downward along the third direction, improving the accuracy of the air guiding, and enhancing the air guiding effect.
- the first air guide plate 140 rotates to the right limit position, and the second air guide plate 150 rotates to the left limit position.
- the outer convex surfaces 113 of the first air guide plate 140 and the second air guide plate 150 are arranged opposite to each other.
- the inner concave surface 112 and the outer convex surface 113 of the second air guide plate 150 are used together to guide the outlet airflow.
- a part of the outlet airflow blown out from the volute air duct 500 flows in one direction along the inner concave surface 112 of the second air guide plate 150, and the other part flows into between the outer convex surface 113 of the first air guide plate 140 and the outer convex surface 113 of the second air guide plate 150.
- the outer convex surface 113 of the first air guide plate 140 and the outer convex surface 113 of the second air guide plate 150 work together to make the outlet airflow flow in another direction. The two directions are completely different.
- the air conditioner 10 described in the embodiment of the present invention can reduce the movement space required for the air guide plate 100 to rotate, and ensure that the air guide plate 100 is evenly stressed during the rotation process, thereby avoiding the situation where the air guide plate 100 rotates unsmoothly or even freezes, and can achieve a variety of air outlet modes to meet the different needs of users, improve the accuracy of air guidance, enhance the air guidance effect, and improve the user experience.
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- General Engineering & Computer Science (AREA)
- Air-Flow Control Members (AREA)
Abstract
提供了一种导风板(100)以及空调器(10),涉及空调技术领域。该导风板(100)包括板体(110),板体(110)的横截面呈弧形设置,板体(110)的转动轴心位于板体(110)的最长弦的中垂线上。能够减小导风板(100)转动所需的运动空间,并且保证导风板(100)在转动过程中受力均匀,避免发生转动不流畅以及卡顿的情况。
Description
本申请基于申请号为CN202320210763.3、申请日为2023年01月31日的中国国家专利申请提出,并要求该中国专利申请的优先权,该中国专利申请的全部内容在此引入本申请作为参考。
本发明涉及空调技术领域,特别涉及一种导风板以及空调器。
随着生活水平的日益提高,人们对空调器的功能性要求也越来越高。现在的空调器中,导风板转动所需的运动空间较大,而为了保证空调器的外观尺寸不变,需要减少外壳的用料,这可能导致外壳的强度较低,影响空调器的使用寿命,并且导风板在转动过程中受力不均,容易导致导风板转动不流畅,甚至发生卡顿的情况,影响用户体验。
发明内容
本发明解决的问题是如何减小导风板转动所需的运动空间,并且保证导风板在转动过程中受力均匀,避免其发生转动不流畅甚至卡顿的情况,提升用户体验。
为解决上述问题,本发明的技术方案是这样实现的:
第一方面,本发明提供了一种导风板,应用于空调器,导风板包括板体,板体的横截面呈弧形设置,板体的转动轴心位于板体的最长弦的中垂线上。与现有技术相比,本发明提供的导风板由于采用了转动轴心位于板体的最长弦的中垂线上的板体,所以能够减小导风板转动所需的运动空间,并且保证导风板在转动过程中受力均匀,避免其发生转动不流畅甚至卡顿的情况,提升用户体验。
进一步地,板体的转动轴心与板体的圆心不重合。以使板体的转动轨迹与板体所呈弧形的延伸方向不重合,从而便于利用板体调整空调挂机的出风方向,实现空调挂机出风方式的多样性。
进一步地,板体的圆心位于板体的最长弦的中垂线上,板体的转动轴心位于板体和板体的圆心之间。以进一步地减小导风板转动所需的运动空间,防止导风板在转动过程中与空调挂机内的零部件发生干涉。
进一步地,板体的内径范围为27毫米至30毫米;和/或,板体的圆心和板体的转动轴心的间距范围为7.8毫米至9.2毫米。合理的板体的内径以及板体的圆心和板体的转动轴心的间距能够在保证导风效果的同时尽量减小导风板转动所需的运动空间,防止导风板与空调挂机内的零部件发生干涉。
进一步地,板体密布设置有多个第一微孔,第一微孔用于供出风气流通过,任意两个第一微孔的出风方向之间形成的夹角小于或者等于42度。从第一微孔流出的出风气流风量和风速极低,出风气流缓慢地从多个第一微孔流出,以实现空调挂机的零风感出风功能,并且保证零风感出风时的换热效果。
进一步地,导风板还包括连接块,连接块连接于板体的内凹面,连接块用于与安装架转动连接。
进一步地,导风板还包括加强筋,加强筋连接于板体和连接块之间。加强筋用于提高板体和连接块的连接强度,从而提高整个导风板的强度,防止导风板发生变形或者断裂的情况。
第二方面,本发明提供了一种空调器,包括外壳以及上述的导风板,外壳设置有导风空间,导风空间的外侧具有出风口,导风板可转动地安装于导风空间内,导风板用于对吹入导风空间内的出风气流进行导向,并使其从出风口排出,该导风板包括板体,板体的横截面呈弧形设置,板体的转动轴心位于板体的最长弦的中垂线上。空调器能够减小导风板转动所需
的运动空间,并且保证导风板在转动过程中受力均匀,避免其发生转动不流畅甚至卡顿的情况,提升用户体验。
进一步地,外壳包括中框和前面板,前面板安装于中框的外侧,前面板和中框之间形成辅助出风通道,导风板还用于将出风气流导入辅助出风通道,前面板密布设置有多个第二微孔,第二微孔与辅助出风通道连通,第二微孔用于供辅助出风通道内的出风气流排出。从第二微孔流出的出风气流风量和风速极低,出风气流缓慢地从前面板上的第二微孔流出,以实现空调器的零风感出风功能。
进一步地,导风板的数量为两个,分别为第一导风板和第二导风板,第一导风板具有第一转动轴线,第二导风板具有第二转动轴线,第一转动轴线与第二转动轴线平行且间隔设置,第一导风板相对第二导风板靠近前面板设置,第一转动轴线位于第二转动轴线的斜上方。以使第一导风板和第二导风板的导风作用相辅相成,进一步地增强导风效果,提升用户体验。
进一步地,空调器还包括安装架,安装架与中框可拆卸连接,导风板可转动地安装于安装架上。安装架用于对导风板进行承载,导风板用于相对于安装架转动,以对出风气流进行导向。
图1是本发明第一实施例所述的导风板安装于安装架的结构示意图;
图2是本发明第一实施例所述的导风板的结构示意图;
图3是本发明第一实施例所述的导风板的数学模型图;
图4是本发明第二实施例所述的空调器的结构示意图;
图5是本发明第二实施例所述的空调器的剖视图;
图6是本发明第二实施例所述的空调器处于零风感模式时的结构示意图;
图7是本发明第二实施例所述的空调器处于强化制热模式时的结构示意图;
图8是本发明第二实施例所述的空调器处于普通制热模式时的结构示意图;
图9是本发明第二实施例所述的空调器处于制冷模式时的结构示意图;
图10是本发明第二实施例所述的空调器处于恒温模式时的结构示意图;
图11是本发明第二实施例所述的空调器处于双区送风模式时的结构示意图。
附图标记说明:
10-空调器;100-导风板;110-板体;111-第一微孔;112-内凹面;113-外凸面;120-连接块;130-加强筋;140-第一导风板;150-第二导风板;200-外壳;210-导风空间;220-出风口;230-中框;240-前面板;241-第二微孔;250-辅助出风通道;300-安装架;400-驱动电机;410-第一驱动电机;420-第二驱动电机;500-蜗壳风道;600-贯流风机。
为使本发明的上述目的、特征和优点能够更为明显易懂,下面结合附图对本发明的具体实施例做详细的说明。
第一实施例
请结合参照图1至图3,本发明实施例提供了一种导风板100,用于实现导风功能。其能够减小导风板100转动所需的运动空间,并且保证导风板100在转动过程中受力均匀,避免其发生转动不流畅甚至卡顿的情况,提升用户体验。
本实施例中,导风板100应用于空调挂机,空调挂机挂设于室内墙壁上,空调挂机能够向室内吹出热风或者冷风,以实现制热或者制冷的功能,
导风板100用于在空调挂机向外出风时对出风气流进行导向,以调整空调挂机的出风方向,满足用户需求。但并不仅限于此,在其它实施例中,导风板100可以应用于空调柜机,也可以应用于移动式空调,对导风板100的应用场景不作具体限定。
导风板100包括板体110、连接块120和加强筋130。板体110沿其宽度方向的横截面呈弧形设置,呈弧形设置的板体110风阻较小,具有良好的导风效果,并且板体110的两侧面均能够进行导风,以提高空调挂机出风方式的多样性。板体110相对设置有内凹面112和外凸面113,连接块120连接于板体110的内凹面112,连接块120用于与安装架300转动连接,连接块120用于承载板体110,板体110用于导风。具体地,连接块120具有一转动轴心,该转动轴心即为整个导风板100的转动轴心,连接块120能够沿其转动轴心相对安装架300转动,安装架300能够对连接块120进行限位,从而对板体110进行限位,保证板体110能够在连接块120的带动下沿板体110的转动轴心转动,防止板体110发生倾斜或者偏转的情况。
进一步地,板体110的转动轴心位于板体110的最长弦的中垂线上,板体110的最长弦即为板体110所呈弧形对应的弦。具体地,前述的中垂线并不是绝对意义上的中垂线,将板体110最长弦的中点与板体110的转动轴心作连线,在该连线与中垂线之间的夹角小于或者等于1度的范围内,均可视为测量误差,属于本方案的保护范围。这样一来,能够使得整个导风板100转动所需的运动空间达到最小程度,从而减小了导风板100转动所需的运动空间,并且由于板体110的最长弦的中垂线将板体110平分为两部分,所以位于该中垂线上的板体110的转动轴心能够保证导风板100在转动过程中受力均匀,避免其发生转动不流畅甚至卡顿的情况,提升用户体验。
需要说明的是,加强筋130连接于板体110和连接块120之间,加强筋130用于提高板体110和连接块120的连接强度,从而提高整个导风板100的强度,防止导风板100发生变形或者断裂的情况。
本实施例中,连接块120的数量为多个,多个连接块120间隔设置于板体110上,多个连接块120均用于与安装架300转动连接,以进一步地提高导风板100与安装架300配合的稳定性,防止导风板100脱离安装架300。相应地,加强筋130的数量同样为多个,每个加强筋130连接于板体110和一个连接块120之间,以进一步地提高整个导风板100的强度。
值得注意的是,板体110的转动轴心与板体110的圆心不重合,以使板体110的转动轨迹与板体110所呈弧形的延伸方向不重合,从而便于利用板体110调整空调挂机的出风方向,实现空调挂机出风方式的多样性。本实施例中,板体110的圆心位于板体110的最长弦的中垂线上,板体110的转动轴心位于板体110和板体110的圆心之间,即板体110的圆心设置于板体110的转动轴心远离板体110的一侧,以进一步地减小导风板100转动所需的运动空间,防止导风板100在转动过程中与空调挂机内的零部件发生干涉。
需要说明的是,板体110的内径范围为27毫米至30毫米;或者,板体110的圆心和板体110的转动轴心的间距范围为7.8毫米至9.2毫米;或者,在板体110的内径范围为27毫米至30毫米的同时,板体110的圆心和板体110的转动轴心的间距范围为7.8毫米至9.2毫米。合理的板体110的内径以及板体110的圆心和板体110的转动轴心的间距能够在保证导风效果的同时尽量减小导风板100转动所需的运动空间,防止导风板100与空调挂机内的零部件发生干涉。本实施例中,板体110的内径为28毫米,板体110的圆心和板体110的转动轴心的间距为8.82毫米,但并不仅限于此,在其它实施例中,板体110的内径可以为27毫米,也可以为30毫米;板体110的圆心和板体110的转动轴心的间距可以为7.8毫米,也可以为9.2毫米;对板体110的内径以及板体110的圆心和板体110的转动轴心的间距不作具体限定。
为了便于理解,将板体110的最长弦表示为AB线段,将板体110的最长弦的中点表示为C点,将板体110的转动轴心表示为D点,将板体110
的最长弦的中垂线表示为CD两点所在直线,将板体110的圆心表示为E点,将板体110的内径表示为r。
本实施例中,板体110密布设置有多个第一微孔111,第一微孔111用于供出风气流通过,以实现空调挂机的零风感出风功能。具体地,当空调挂机处于零风感出风状态时,导风板100关闭,出风气流能够通过板体110上的多个第一微孔111向室内流出,由于第一微孔111的直径较小,所以从第一微孔111流出的出风气流风量和风速极低,出风气流缓慢地从多个第一微孔111流出,以实现空调挂机的零风感出风功能,并且保证零风感出风时的换热效果。
进一步地,任意两个第一微孔111的出风方向之间形成的夹角小于或者等于42度,即任意两个第一微孔111的开设方向之间形成的夹角小于或者等于42度。这样一来,在便于制造生产的前提下,能够有效减小第一微孔111所造成的风阻影响,避免产生噪音,同时由于多个第一微孔111存在不同朝向,所以能够利用其调整出风气流的出风方向,使得出风方向更加分散,提升零风感出风的效果。
本发明实施例所述的导风板100,板体110的横截面呈弧形设置,板体110的转动轴心位于板体110的最长弦的中垂线上。与现有技术相比,本发明提供的导风板100由于采用了转动轴心位于板体110的最长弦的中垂线上的板体110,所以能够减小导风板100转动所需的运动空间,并且保证导风板100在转动过程中受力均匀,避免其发生转动不流畅甚至卡顿的情况,提升用户体验。
第二实施例
请结合参照图4和图5,本发明提供了一种空调器10,用于调控室内气温。该空调器10包括外壳200、安装架300、驱动电机400和导风板100。其中,导风板100的基本结构和原理及产生的技术效果和第一实施例相同,为简要描述,本实施例部分未提及之处,可参考第一实施例中相应内容。
本实施例中,空调器10为空调挂机,空调器10挂设于室内墙壁上,空调器10能够向室内吹出热风或者冷风,以实现温度调控功能。具体地,导风板100用于在空调器10向外出风时对出风气流进行导向,以调整空调器10的出风方向,导风板100能够使得空调器10可以实现不同的出风模式,从而提高空调器10出风的多样性。
需要说明的是,外壳200设置有导风空间210,导风空间210的外侧具有一出风口220,导风空间210用于与蜗壳风道500连接,安装于蜗壳风道500内的贯流风机600能够产生负压,以带动出风气流通过蜗壳风道500流入导风空间210。具体地,导风板100可转动地安装于导风空间210内,导风板100用于对吹入导风空间210内的出风气流进行导向,并使其从出风口220排出,以实现调整空调器10出风方向的功能。
外壳200包括中框230和前面板240。前面板240安装于中框230的外侧,前面板240用于对中框230进行遮蔽,以提高整个空调器10的美观度。前面板240和中框230之间形成辅助出风通道250,导风板100还用于将出风气流导入辅助出风通道250,前面板240密布设置有多个第二微孔241,第二微孔241与辅助出风通道250连通,第二微孔241用于供辅助出风通道250内的出风气流排出,辅助出风通道250内的出风气流能够同时通过多个第二微孔241向外流出,由于第二微孔241的直径较小,所以从第二微孔241流出的出风气流风量和风速极低,出风气流缓慢地从前面板240上的第二微孔241流出,以实现空调器10的零风感出风功能。
本实施例中,安装架300与中框230可拆卸连接,导风板100可转动地安装于安装架300上,安装架300用于对导风板100进行承载,导风板100用于相对于安装架300转动,以对出风气流进行导向。驱动电机400安装于外壳200上,且与导风板100传动连接,驱动电机400用于带动导风板100转动,以实现导风板100转动角度的电控调节。
导风板100的数量为两个,分别为第一导风板140和第二导风板150。
第一导风板140具有第一转动轴线,第二导风板150具有第二转动轴线,第一转动轴线与第二转动轴线平行且间隔设置,以使第一导风板140和第二导风板150的导风作用相辅相成,进一步地增强导风效果,提升用户体验。具体地,第一导风板140相对第二导风板150靠近前面板240设置,即第一导风板140设置于第二导风板150靠近前面板240的一侧,第一转动轴线位于第二转动轴线的斜上方(上下方向即为竖直方向)。当空调器10处于零风感出风状态时,第二导风板150用于将出风气流朝第一导风板140所在区域导流,第一导风板140用于将出风气流朝辅助出风通道250内导流,以使出风气流连续不断地进入辅助出风通道250,从而使得出风气流持续地从第二微孔241流出,实现零风感出风功能。在应用中,也可以采用多个导风板的形式,只要能够满足第一导风板140和第二导风板150的功能即可。
进一步地,驱动电机400的数量为两个,分别为第一驱动电机410和第二驱动电机420。第一驱动电机410与第一导风板140传动连接,第一驱动电机410用于带动第一导风板140转动,第二驱动电机420与第二导风板150传动连接,第二驱动电机420用于带动第二导风板150转动。具体地,第一驱动电机410和第二驱动电机420独立运行,即第一导风板140的动作和第二导风板150的动作互不干涉,用户可以只运转第一导风板140而不运转第二导风板150,也可以只运转第二导风板150而不运转第一导风板140,以提高空调器10出风的多样性。
请结合参照图6至图11(图6至图11中的线条箭头表示空气流动方向),需要说明的是,空调器10具有六种模式,分别为零风感模式、强化制热模式、普通制热模式、制冷模式、恒温模式和双区送风模式。其中,零风感模式的出风量和出风速度都极低,用户基本感受不到出风气流直吹,舒适度较高,此模式既可以进行制热,又可以进行制冷,适用于用户睡眠或者办公的场景;强化制热模式的出风量和出风速度都较高,出风气流沿竖直向下的方向吹出至地面,再从地面向四周和上方扩散,以快速实现制热功
能,适用于室内温度极低亟需升温的场景;普通制热模式的出风量和出风速度都较高,出风气流沿第一方向倾斜向下吹出,热量持续向下扩散,以实现制热保持功能,适用于室内温度升高至一定程度后需要保持的场景;制冷模式的出风量和出风速度都较高,出风气流沿第二方向倾斜向下吹出,冷量持续向下扩散,以实现制冷保持功能,适用于室内温度降低至一定程度后需要保持的场景;恒温模式的出风量和出风速度都较低,出风气流沿第三方向倾斜向下吹出,此模式既可以进行制热,又可以进行制冷,适用于室内温度完全达到用户需求后需要保持的场景;双区送风模式的出风量和出风速度可根据用户需求调节,出风气流沿两个不同的方向向外吹出,此模式既可以进行制热,又可以进行制冷,适用于需要对室内的不同位置同时进行温度调控的场景。
具体地,第一方向与水平方向之间形成第一夹角,第二方向与水平方向之间形成第二夹角,第三方向与水平方向之间形成第三夹角,第一夹角大于第三夹角,第三夹角大于第二夹角,即普通制热模式吹出的出风气流相较于恒温模式吹出的出风气流更低,恒温模式吹出的出风气流相较于制冷模式吹出的出风气流更低。为了便于理解,将第一夹角表示为a,将第二夹角表示为b,将第三夹角表示为c。
当空调器10处于零风感模式时,第一导风板140和第二导风板150均转动至中间位置,此时第一导风板140和第二导风板150的内凹面112正对蜗壳风道500设置,以起到兜风的作用,将出风气流朝靠近辅助出风通道250的方向导流。具体地,从蜗壳风道500吹出的出风气流吹至第一导风板140和第二导风板150的内凹面112时,一部分出风气流直接通过第一导风板140和第二导风板150上开设的第一微孔111向外流出,实现第一导风板140和第二导风板150区域位置的零风感出风,另一部分出风气流在第一导风板140和第二导风板150的内凹面112的导流作用下流入辅助出风通道250,并通过前面板240上开设的第二微孔241向外流出,实现前面板240区域位置的零风感出风。这样一来,能够有效提高零风感出风
的风量,保证换热效果。
当空调器10处于强化制热模式时,第一导风板140和第二导风板150均转动至左极限位置,此时第一导风板140的外凸面113正对辅助出风通道250设置,以将辅助出风通道250挡住,防止出风气流朝辅助出风通道250内流动,而第二导风板150的外凸面113正对第一导风板140设置,以避免将出风气流导流至第一导风板140所在区域。具体地,从蜗壳风道500吹出的出风气流一部分沿着第一导风板140的内凹面112折弯后沿竖直向下的方向流动,另一部分沿着第二导风板150的内凹面112折弯后沿竖直向下的方向流动,在此过程中,可能会有些微的出风气流穿过第一导风板140和第二导风板150上开设的第一微孔111,但是由于出风方向与第一微孔111的开设方向不同,所以这些出风气流可以忽略不计。这样一来,第一导风板140和第二导风板150同时起到导风的作用,保证出风气流竖直向下流动,提高导风精准度,增强导风效果。
当空调器10处于普通制热模式时,第一导风板140和第二导风板150均转动至右极限位置,此时第一导风板140的内凹面112正对辅助出风通道250设置,第二导风板150的内凹面112正对第一导风板140设置,第一导风板140的外凸面113和第二导风板150的内凹面112共同用于对出风气流进行导向。具体地,从蜗壳风道500吹出的出风气流流入第一导风板140的外凸面113和第二导风板150的内凹面112之间,第一导风板140的外凸面113和第二导风板150的内凹面112共同作用,以使出风气流沿第一方向倾斜向下流动,在此过程中,可能会有些微的出风气流穿过第一导风板140和第二导风板150上开设的第一微孔111,但是由于出风方向与第一微孔111的开设方向不同,所以这些出风气流可以忽略不计。这样一来,第一导风板140和第二导风板150同时起到导风的作用,保证出风气流沿第一方向倾斜向下流动,提高导风精准度,增强导风效果。
当空调器10处于制冷模式时,第一导风板140和第二导风板150均转动至中间位置与右极限位置之间的位置,此时第一导风板140和第二导风
板150的内凹面112均朝上设置,第一导风板140的内凹面112、第一导风板140的外凸面113和第二导风板150的内凹面112共同用于对出风气流进行导向。具体地,从蜗壳风道500吹出的出风气流一部分随着第一导风板140的内凹面112沿第二方向倾斜向下流动,另一部分流入第一导风板140的外凸面113和第二导风板150的内凹面112之间,第一导风板140的外凸面113和第二导风板150的内凹面112共同作用,以使出风气流沿第二方向倾斜向下流动,在此过程中,可能会有些微的出风气流穿过第一导风板140和第二导风板150上开设的第一微孔111,但是由于出风方向与第一微孔111的开设方向不同,所以这些出风气流可以忽略不计。这样一来,第一导风板140和第二导风板150同时起到导风的作用,保证出风气流沿第二方向倾斜向下流动,提高导风精准度,增强导风效果。
当空调器10处于恒温模式时,第一导风板140和第二导风板150均转动至中间位置与右极限位置之间的位置,此时第一导风板140和第二导风板150的内凹面112均朝斜上方设置,第一导风板140的内凹面112、第一导风板140的外凸面113和第二导风板150的内凹面112共同用于对出风气流进行导向。具体地,从蜗壳风道500吹出的出风气流一部分随着第一导风板140的内凹面112沿第三方向倾斜向下流动,另一部分流入第一导风板140的外凸面113和第二导风板150的内凹面112之间,第一导风板140的外凸面113和第二导风板150的内凹面112共同作用,以使出风气流沿第三方向倾斜向下流动,在此过程中,可能会有些微的出风气流穿过第一导风板140和第二导风板150上开设的第一微孔111,但是由于出风方向与第一微孔111的开设方向不同,所以这些出风气流可以忽略不计。这样一来,第一导风板140和第二导风板150同时起到导风的作用,保证出风气流沿第三方向倾斜向下流动,提高导风精准度,增强导风效果。
当空调器10处于双区送风模式时,第一导风板140转动至右极限位置,第二导风板150转动至左极限位置,此时第一导风板140和第二导风板150的外凸面113相对设置,第一导风板140的外凸面113、第二导风板150的
内凹面112和第二导风板150的外凸面113共同用于对出风气流进行导向。具体地,从蜗壳风道500吹出的出风气流一部分随着第二导风板150的内凹面112沿一个方向流动,另一部分流入第一导风板140的外凸面113和第二导风板150的外凸面113之间,第一导风板140的外凸面113和第二导风板150的外凸面113共同作用,以使出风气流沿另一个方向流动,两个方向完全不同,在此过程中,可能会有些微的出风气流穿过第一导风板140和第二导风板150上开设的第一微孔111,但是由于出风方向与第一微孔111的开设方向不同,所以这些出风气流可以忽略不计。这样一来,第一导风板140和第二导风板150同时起到导风的作用,以使出风气流能够同时从两个不同的方向向外吹出,提高导风精准度,增强导风效果。
本发明实施例所述的空调器10能够减小导风板100转动所需的运动空间,并且保证导风板100在转动过程中受力均匀,避免其发生转动不流畅甚至卡顿的情况,并且能够实现出风方式的多样性,满足用户的不同需求,提高导风精准度,增强导风效果,提升用户体验。
虽然本发明披露如上,但本发明并非限定于此。任何本领域技术人员,在不脱离本发明的精神和范围内,均可作各种更动与修改,因此本发明的保护范围应当以权利要求所限定的范围为准。
Claims (11)
- 一种导风板,应用于空调器,其特征在于,所述导风板(100)包括板体(110),所述板体(110)的横截面呈弧形设置,所述板体(110)的转动轴心位于所述板体(110)的最长弦的中垂线上。
- 根据权利要求1所述的导风板,其特征在于,所述板体(110)的转动轴心与所述板体(110)的圆心不重合。
- 根据权利要求2所述的导风板,其特征在于,所述板体(110)的圆心位于所述板体(110)的最长弦的中垂线上,所述板体(110)的转动轴心位于所述板体(110)和所述板体(110)的圆心之间。
- 根据权利要求1-3任一项所述的导风板,其特征在于,所述板体(110)的内径范围为27毫米至30毫米;和/或,所述板体(110)的圆心和所述板体(110)的转动轴心的间距范围为7.8毫米至9.2毫米。
- 根据权利要求1-3任一项所述的导风板,其特征在于,所述板体(110)密布设置有多个第一微孔(111),所述第一微孔(111)用于供出风气流通过,任意两个所述第一微孔(111)的出风方向之间形成的夹角小于或者等于42度。
- 根据权利要求1-3任一项所述的导风板,其特征在于,所述导风板(100)还包括连接块(120),所述连接块(120)连接于所述板体(110)的内凹面(112),所述连接块(120)用于与安装架(300)转动连接。
- 根据权利要求6所述的导风板,其特征在于,所述导风板(100)还包括加强筋(130),所述加强筋(130)连接于所述板体(110)和所述连接块(120)之间。
- 一种空调器,包括外壳(200)以及如权利要求1至7任一项 所述的导风板,所述外壳(200)设置有导风空间(210),所述导风空间(210)的外侧具有出风口(220),所述导风板(100)可转动地安装于所述导风空间(210)内,所述导风板(100)用于对吹入所述导风空间(210)内的出风气流进行导向,并使其从所述出风口(220)排出。
- 根据权利要求8所述的空调器,其特征在于,所述外壳(200)包括中框(230)和前面板(240),所述前面板(240)安装于所述中框(230)的外侧,所述前面板(240)和所述中框(230)之间形成辅助出风通道(250),所述导风板还用于将出风气流导入所述辅助出风通道(250),所述前面板(240)密布设置有多个第二微孔(241),所述第二微孔(241)与所述辅助出风通道(250)连通,所述第二微孔(241)用于供所述辅助出风通道(250)内的出风气流排出。
- 根据权利要求9所述的空调器,其特征在于,所述导风板(100)的数量为两个,分别为第一导风板(140)和第二导风板(150),所述第一导风板(140)具有第一转动轴线,所述第二导风板(150)具有第二转动轴线,所述第一转动轴线与所述第二转动轴线平行且间隔设置,所述第一导风板(140)相对所述第二导风板(150)靠近所述前面板(240)设置,所述第一转动轴线位于所述第二转动轴线的斜上方。
- 根据权利要求9所述的空调器,其特征在于,所述空调器还包括安装架(300),所述安装架(300)与所述中框(230)可拆卸连接,所述导风板(100)可转动地安装于所述安装架(300)上。
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CN114674039A (zh) * | 2022-03-23 | 2022-06-28 | 青岛海尔空调器有限总公司 | 空调室内机及其导风筒 |
CN219177940U (zh) * | 2023-01-31 | 2023-06-13 | 宁波奥克斯电气股份有限公司 | 一种导风板以及空调器 |
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