Dual-channel natural air outlet

Abstract

The invention discloses a double-channel natural air outlet which comprises an air outlet shell, a first air outlet channel used for outputting first airflow and a second air outlet channel used for outputting second airflow are formed in the air outlet shell, and the first airflow intersects with the second airflow; the first airflow diffuses out air, and the second airflow swings left and right; the air volume in an intersection area of the second airflow circulation and the first airflow is increased and is greater than the air volume in a non-intersection area, so that the airflow is output according to the air volume ratio of natural air; the invention relates to the technical field of automobile air conditioner air outlets.

Description

Technical Field

[0001] The present invention relates to the technical field of automotive air vents, and more specifically to a dual-channel natural air vent. Background Art

[0002] Automotive air vents belong to automotive interior components, generally arranged inside the automotive cockpit or diagonally above the seating position. The air duct of the air vent is connected to a device that provides air flow. When air output is required, the device that provides air flow conveys air flow to the air duct, and the air flow can be discharged from the air outlet channel of the air vent.

[0003] In the prior art, the air outlet channel on the automotive air vent is generally provided with upper and lower air guiding vanes and left and right air guiding vanes. Among them, the upper and lower air guiding vanes are used to adjust the up and down air output direction, and the left and right air guiding vanes are used to adjust the left and right air output direction. By driving the required air guiding vanes to rotate through a driving mechanism, the direction of the output air flow is adjusted accordingly.

[0004] The air flow output from the above air outlet channel directly blows towards the user. The air volume ratio in the air output area is generally relatively consistent and concentrated, and the user's sense of wind is relatively strong. Since the air volume felt by the user does not change in strength for a long time, it will cause discomfort and the use experience is not good. Summary of the Invention

[0005] Aiming at the deficiencies and defects of the prior art, a dual-channel natural air vent capable of outputting natural air flow is provided.

[0006] A dual-channel natural air vent includes: An air outlet housing, the air outlet housing is provided with a first air outlet channel for outputting a first air flow and a second air outlet channel for outputting a second air flow, and the first air flow intersects with the second air flow; A plurality of first vanes, arranged in the first air outlet channel along the left-right direction; A second vane, arranged in the second air outlet channel, for adjusting the left-right air outlet angle of the second air flow, A driving mechanism, including a transmission part that can translate along the Y-axis, The transmission part is provided with a plurality of transmission grooves, and each transmission groove is independently combined with the pin shaft of a first vane, The transmission groove extends along the Y-axis direction and has a diffusion driving section that gradually converges towards the center of the transmission part; When the pin shaft of the first vane is in the diffusion driving section, the transmission part translates along the Y-axis, which can drive the first vane to swing to a state of tilting to the left and right sides, so that the first air flow diffuses out; The second vane can swing left and right to make the second air flow swing left and right; The intersection area of the change of the second air flow cycle and the first air flow. The air volume in the intersection area increases and is greater than the air volume in the non-intersection area, and then the air flow is output with the air volume ratio of natural wind.

[0007] After adopting the above structure, a dual-channel natural wind air outlet of the present invention has the following advantages compared with the prior art: When the pin shaft of the first blade is in the diffusion driving section, the transmission part translates along the Y axis, which can drive the first blade to swing to the inclined position on both left and right sides, so that the first air flow diffuses out. At this time, the second air flow swings left and right, and a natural wind outlet mode can be obtained. In the natural wind outlet mode: in the movement track of the second air flow, there are an intersection area and a non-intersection area between the air outlet areas of the first air flow. Among them, the air volume in the intersection area is increased by the second air flow and is greater than the air volume in the non-intersection area, and the intersection area changes cyclically with the left and right swing of the second air flow. Finally, when the converged air flow blows towards the user, the user can experience the wind feeling of strong in some parts and weak in some parts, and the wind feeling of strong in some parts and weak in some parts is changing, perfectly simulating the characteristic of uneven air volume in different areas of natural wind, and outputting the air volume ratio like natural wind.

[0008] The natural wind effect reduces the discomfort caused by the direct blowing of the traditional air outlet, enables the user to obtain a more comfortable body feeling, and improves the user experience.

[0009] In addition, the movement mode of the transmission part and the structural design of the diffusion driving section directly driving the first blade through the pin shaft of the first blade save a great deal of space while ensuring efficient adjustment of the air outlet direction, making the overall structure compact and facilitating installation in a car with a compact space.

[0010] As an improvement of the present invention, the transmission groove further has a direct blowing driving section, and the direct blowing driving section is arranged at the front end of the diffusion driving section and is a straight extension structure; The transmission part can translate along the X axis. When the pin shaft of the first blade is in the direct blowing driving section, the first blade can be swung to the parallel position state. At this time, the transmission part translates along the X axis to make the first blade swing left and right synchronously. The second blade can swing left and right synchronously with the first blade, so that the second air flow is output in the same direction as the first air flow.

[0011] As an improvement of the present invention, the driving mechanism further includes a first rotating part. A first cam pin is further arranged at the lower end of the first rotating part, and a first track groove in transmission cooperation with the first cam pin is arranged on the transmission part. The first rotating member rotates along the axis A, and can drive the transmission part to translate through the transmission cooperation between the first cam pin and the first track groove.

[0012] As an improvement of the present invention, the driving mechanism further includes a second rotating member and a sliding block; The second rotating member has a second cam pin at its upper end, and the slider has a second track groove that is in transmission cooperation with the second cam pin; The slider is arranged to be linked with the second blade; The second rotating member rotates along the axis B, and through the transmission cooperation between the second cam pin and the second track groove, the slider can be driven to move left and right, so as to drive the plurality of second blades to swing left and right.

[0013] As an improvement of the present invention, the driving mechanism further includes a driving member, which is driven by the actuator to move left and right, and the driving member is provided with a first rack extending left and right, and a second rack. The first rotating member is provided with a first gear meshing with the first rack; The second rotating member is provided with a second gear meshing with the second rack.

[0014] As an improvement of the present invention, the air outlet housing is provided with an air duct, the inlet of the air duct is used to receive the airflow, and the outlet of the air duct is respectively connected to the first air outlet channel and the second air outlet channel; The air duct is also provided with an air volume blade, which is arranged between the inlet of the first air outlet channel and the inlet of the second air outlet channel, and the air volume blade rotates up and down to adjust the inlet opening of the first air outlet channel or the inlet opening of the second air outlet channel.

[0015] As an improvement of the present invention, the air duct inlet is further provided with an air door, and the air door is rotated to adjust the opening of the air duct inlet. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a structural schematic diagram of the present invention.

[0017] Figure 2 It is a schematic structural diagram of the present invention in a sectional view.

[0018] Figure 3 It is a schematic structural diagram of the driving mechanism of the present invention.

[0019] Figure 4 It is a structural schematic diagram of the first blade and part of the driving mechanism of the present invention.

[0020] Figure 5 The present invention Figure 4 Schematic diagram of the structure of some components in the exploded state.

[0021] Figure 6 It is a schematic diagram of the position state of the first blade when the first air flow of the present invention diffuses and blows out.

[0022] Figure 7 It is a schematic structural diagram of the first track groove of the present invention.

[0023] Figure 8 It is a schematic structural diagram of the second blade and part of the driving mechanism of the present invention.

[0024] Figure 9 It is of the present invention Figure 8 Schematic structural diagram of some components in the explosion state.

[0025] Figure 10 It is a schematic structural diagram of the second track groove of the present invention.

[0026] Figure 11 It is a schematic structural diagram of the present invention in the direct blowing air outlet mode.

[0027] As shown in the figure: 1. Air outlet housing; 1.1 Air duct; 1.11 First air outlet channel; 1.12 Second air outlet channel; 1.2 Assembly space; 2 First blade; 3 Second blade; 4 Driving part; 4.1 First rack; 4.2 Second rack; 4.3 Third rack; 5 Transmission part; 5.1 First track groove; 5.2 Transmission groove; 5.21 Direct blowing drive section; 5.22 Diffusion drive section; 6 First rotating part; 6.1 First cam pin; 6.2 First gear; 7 Second rotating part; 7.1 Second cam pin; 7.2 Second gear; 8 Slide block; 8.1 Second track groove; 8.2 Matching groove; 9 Air volume blade; 10 Air damper; 11 Actuator; 11.1 Output gear; 12 Linkage part; 12.1 Linkage shaft; 13 First guiding structure; 14 Second guiding structure. Detailed implementation manners

[0028] The present invention will be further described below with reference to the accompanying drawings and specific embodiments.

[0029] Please refer to Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 6 shown: A dual-channel natural wind air outlet, comprising: Air outlet housing 1, the air outlet housing 1 is provided with a first air outlet channel 1.11 for outputting a first air flow and a second air outlet channel 1.12 for outputting a second air flow, and the first air flow intersects with the second air flow; A plurality of first blades 2 are arranged in the first air outlet passage 1.11 along the left - right direction; A second blade 3 is arranged in the second air outlet passage 1.12 and is used to adjust the left - right air outlet angle of the second air flow, A driving mechanism includes a transmission part 5 that can translate along the Y - axis, The transmission part 5 is provided with a plurality of transmission grooves 5.2, and each transmission groove 5.2 is independently combined with a pin shaft of a first blade 2 respectively, The transmission groove 5.2 extends along the Y - axis direction and has a diffusion driving section 5.22 that gradually converges towards the center of the transmission part 5; When the pin shaft of the first blade 2 is in the diffusion driving section 5.22, the transmission part 5 translates along the Y - axis, which can drive the first blade 2 to swing to a position tilted to both left and right sides, so that the first air flow diffuses out. The second blade 3 can swing left and right to make the second air flow swing left and right; The second air flow cyclically changes the intersection area with the first air flow. The air volume in the intersection area increases and is greater than the air volume in the non - intersection area, and then the air flow is output with the air volume ratio of natural wind.

[0030] When the pin shaft of the first blade 2 is in the diffusion driving section 5.22, the transmission part 5 translates along the Y - axis, which can drive the first blade 2 to swing to a position tilted to both left and right sides, so that the first air flow diffuses out.

[0031] At this time, the second air flow swings left and right, and a natural - wind air - outlet mode can be obtained. In the natural - wind air - outlet mode: in the movement track of the second air flow, there are an intersection area and a non - intersection area with the air - outlet area of the first air flow. Among them, the air volume in the intersection area is increased by the second air flow and is greater than the air volume in the non - intersection area, and the intersection area changes cyclically with the left - right swing of the second air flow.

[0032] When the finally - converged air flow blows towards the user, the user can experience the wind feeling of being strong in some parts and weak in some parts, and the wind feeling of being strong in some parts and weak in some parts is changing, perfectly simulating the characteristic of uneven air volume in different areas of natural wind, and outputting the air volume ratio like natural wind.

[0033] The natural - wind effect reduces the discomfort caused by the direct blowing of the traditional air outlet, enables the user to obtain a more comfortable body feeling, and improves the user's usage experience.

[0034] In addition, the movement mode of the transmission part 5 and the structural design of the diffusion driving section 5.22 directly driving the first blade 2 through the pin shaft of the first blade 2 save a great deal of space while ensuring the efficient adjustment of the air - outlet direction, making the overall structure compact and facilitating installation in a car with a compact space.

[0035] Please refer to Figure 4 、Figure 6 As shown: The transmission groove 5.2 further has a direct-blow driving section 5.21, which is arranged at the front end of the diffusion driving section 5.22 and is a straight extension structure.

[0036] The transmission part 5 can translate along the X-axis. When the pin shaft of the first blade 2 is within the direct-blow driving section 5.21, the first blade 2 can be swung to a state where they are parallel to each other. At this time, when the transmission part 5 translates along the X-axis, the first blade 2 can swing left and right synchronously, and the second blade 3 can also swing left and right synchronously with the first blade 2, so that the second airflow is output in the same direction as the first airflow.

[0037] This device is provided with a first guiding structure, which is connected to the transmission part 5 and guides the translation of the transmission part 5 along the X-axis and Y-axis; Please refer to Figure 4 、 Figure 6 、 Figure 11 As shown: This device also has a direct-blow air outlet mode: When the pin shaft of the first blade 2 is within the direct-blow driving section 5.21, each first blade 2 swings to a state where they are parallel to each other. Further, when the transmission part 5 translates along the X-axis, it can drive each first blade 2 to swing left and right parallelly and synchronously. If the second blade 3 swings left and right synchronously with the first blade 2 at this time, after the first blade 2 and the second blade 3 stop swinging, the left and right air outlet angles of the first airflow are the same as those of the second airflow, and the airflow can be output in the same direction. The above improvements enable this device to have two air outlet modes for users to choose from, with multiple functions, strong applicability, and good user experience.

[0038] Please refer to Figure 4 、 Figure 5 As shown: The driving mechanism further includes a first rotating part 6. The lower end of the first rotating part 6 is provided with a first cam pin 6.1, and the transmission part 5 is provided with a first track groove 5.1 that is in transmission cooperation with the first cam pin 6.1. When the first rotating part 6 rotates along the axis A, through the transmission cooperation between the first cam pin 6.1 and the first track groove 5.1, the transmission part 5 can be driven to translate.

[0039] The above driving mechanism can enable the first blade to stably enter a state where it is inclined to the left and right sides or a state where they are parallel to each other. At the same time, this structural design greatly saves space, makes the overall structure compact, reduces the occurrence probability of mechanical failures, and extends the service life.

[0040] Please refer to Figure 2 、 Figure 3 、 Figure 8 、and Figure 9 As shown: The driving mechanism further includes a second rotating part 7 and a slider 8. The upper end of the second rotating part 7 is provided with a second cam pin 7.1, and the slider 8 is provided with a second track groove 8.1 that is in transmission cooperation with the second cam pin 7.1.

[0041] A plurality of second blades 3 are arranged to be interconnected through a linkage member 12. A mating groove 8.2 extending front and rear is provided on the slider 8, and the linkage member 12 is provided with a linkage shaft 12.1 that enters the mating groove 8.2.

[0042] The device is further provided with a second guiding structure, and the second guiding structure guides the left and right movement of the slider 8.

[0043] When the second rotating member 7 rotates along the axis B, through the transmission cooperation between the second cam pin 7.1 and the second track groove 8.1, the slider 8 can be driven to move left and right, thereby driving a plurality of second blades 3 to swing left and right. The second rotating member 7, the slider 8, and the supporting second cam pin 7.1 and second track groove 8.1 constitute a unique driving system for the second blades 3, making the swinging of the second blades 3 smoother and more stable. Compared with the traditional driving method, it can more accurately adjust the left and right air outlet angles of the second air flow, save space at the same time, and make the overall structure compact.

[0044] Please refer to Figure 2 、 Figure 3 、 Figure 4 、and Figure 8 as shown in: The driving mechanism further includes a driving member 4, An actuator 11 is provided at the rear end of the driving member 4. An output gear 11.1 is provided at the output end of the actuator 11. A third rack 4.3 extending left and right is provided on the driving member 4, and the third rack 4.3 meshes with the output gear 11.1.

[0045] The driving member 4 is driven by the actuator 11 to move left and right. A first rack 4.1 and a second rack 4.2 are provided on the driving member 4 and extend along the left and right directions. The first rotating member 6 is provided with a first gear 6.2 that meshes with the first rack 4.1, and the second rotating member 7 is provided with a second gear 7.2 that meshes with the second rack 4.2.

[0046] The actuator 11 only needs to control the movement of the driving member 4 to simultaneously realize the rotation of the first rotating member 6 and the second rotating member 7, and further coordinate the actions of the first blade 2 and the second blade 3. The integrated driving method not only simplifies the operation process, but also enhances the coordination and stability of the driving system, facilitating the user to quickly adjust the air outlet mode according to actual needs and improving the usability of the product.

[0047] Please refer to Figures 1 - 11 as shown in, specifically: The structure of the first track groove 5.1 sequentially includes a track segment a, a track segment b, a track segment c, and a track segment d from the rear end to the front end direction; The structure of the second track groove 8.1 sequentially includes a track segment aa, a track segment bb, and a track segment cc from the rear end to the front end direction.

[0048] In the direct blowing air outlet mode, the process of the first blade 2 and the second blade 3 swinging to the right is as follows: Taking the rear end of the first cam pin 6.1 in the track segment a as the reference point, at this time, both the first blade 2 and the second blade 3 are in the position state of swinging to the left to the limit. The first cam pin 6.1 is within the track segment a, the pin shaft of the first blade 2 is within the direct blowing drive segment 5.21, and the second cam pin 7.1 is within the track segment aa. Further, the actuator 11 drives the driving member 4 to move to the right. Under the action of the gear transmission structure, the first rotating member 6 rotates in the first direction along the axis A, and the second rotating member 7 rotates in the first direction along the axis B. The first cam pin 6.1 travels along the track segment b, driving the transmission part 5 to translate leftward along the X-axis, and the first blade 2 gradually swings to the right until it swings to the limit position. At the same time, the second cam pin 7.1 travels towards the track segment bb and drives the slider 8 to move to the left, and the second blade 3 gradually swings to the right with the same swing angle as the first blade 2. When the second cam pin 7.1 travels to the position where it is coaxial with the second rotating member 7 in the track segment bb, the second cam pin 7.1 and the track segment bb are in a state of stopping transmission, the slider 8 has no left or right movement, and the second blade 3 is in the limit position of swinging to the right. During the above process, the first air flow angle (left and right direction) after being deflected by the first blade 2 is the same as the second air flow angle (left and right direction) after being deflected by the second blade 3, and the two air flows can be output in the same direction after converging.

[0049] After the first blade 2 and the second blade 3 swing to the right limit position respectively, the actuator 11 drives the driving member 4 to move to the left, the first rotating member 6 rotates in the second direction along the axis A, the second rotating member 7 rotates in the second direction along the axis B, and the first blade 2 and the second blade 3 swing to the left respectively.

[0050] The natural wind air outlet mode of this device is as follows: After being in the direct blowing air outlet mode and the first blade 2 and the second blade 3 swing to the right limit position respectively, the actuator 11 drives the driving member 4 to move to the right. Under the action of the gear transmission structure, the first rotating member 6 rotates in the first direction along the axis A, and the second rotating member 7 rotates in the first direction along the axis B. The first cam pin 6.1 travels in the track segment c, driving the transmission part 5 to gradually translate forward along the Y-axis, and the pin shaft of the first blade 2 enters the diffusion drive segment 5.22. At the same time, the second cam pin 7.1 continues to travel within the track segment bb, and at this time, the second blade 3 cannot swing left or right. After several first blades 2 swing to the position state of tilting to the left and right sides, the second cam pin 7.1 enters the track segment cc.

[0051] Stroke 1: The actuator 11 drives the driving member 4 to continue to move rightward, and the first cam pin 6.1 enters the track segment d (the track segment d is coaxial with the rotation axis A of the first rotating member 6 at this time, and the first cam pin 6.1 and the track segment d are in a state of stopping transmission), the transmission part 5 cannot translate, and the first blade 2 does not swing left and right. At this time, the second cam pin 7.1 moves forward in the track section cc, driving the slider 8 to move rightward, and driving the second blade 3 to swing leftward until it swings to the limit position.

[0052] Stroke 2: The actuator 11 drives the driving member 4 to move to the left, the first cam pin 6.1 moves backward in the track segment d, the first blade 2 cannot swing left and right, and the second cam pin 7.1 moves backward in the track segment cc, driving the slider 8 to move to the left, driving the second blade 3 to swing to the right until it swings to the limit position. The above two strokes are repeated to enter the natural wind outlet mode and realize the output airflow of natural wind.

[0053] See also Figure 2 As shown, the air outlet housing 1 is provided with an air duct 1.1, the inlet of the air duct 1.1 is used to receive airflow, and the outlet is respectively connected with the first air outlet channel 1.11 and the second air outlet channel 1.12. The air duct 1.1 is also provided with an air volume blade 9, which is arranged between the inlet of the first air outlet channel 1.11 and the inlet of the second air outlet channel 1.12, and is adjusted by rotating up and down to adjust the inlet opening of the first air outlet channel 1.11 or the inlet opening of the second air outlet channel 1.12.

[0054] The air volume blade 9 can be designed as a fan-shaped cylindrical structure, and the side with a larger area is arranged close to the entrance of the air outlet channel.

[0055] When the air volume blade 9 rotates up and down, the inlet opening of the first air outlet channel 1.11 or the second air outlet channel 1.12 can be adjusted to thereby control the amount of air entering (increasing the opening increases the amount of air entering, and decreasing the opening decreases the amount of air entering).

[0056] If the opening of one inlet is smaller than the opening of the other inlet, after the first airflow and the second airflow meet, they tend to be output in the direction of the airflow output from the air outlet channel with a larger opening. The above improvement allows the output airflow to be adjusted in the up and down directions, further increasing the functionality of the device and improving the user experience.

[0057] See also Figure 2As shown in the figure, a damper 10 is also provided at the inlet of the air duct 1.1. The damper 10 rotates to adjust the opening degree of the inlet of the air duct 1.1. The number of dampers 10 is two, which are arranged at an upper and lower interval. When the two dampers 10 rotate to the horizontal position, the opening degree of the inlet of the air duct 1.1 can be adjusted to the maximum; when the two dampers 10 rotate from the horizontal position to the vertical position, the opening degree of the inlet of the air duct 1.1 can be gradually reduced until the inlet of the air duct 1.1 is closed.

[0058] This device also has the following advantages: 1. Compared with other air outlet devices on the market, this device has rich functions, including a direct blowing air outlet mode and a natural wind air outlet mode, providing a better user experience.

[0059] 2. The structural design of the driving mechanism of this device has better integration and compactness, and is suitable for assembly on vehicles with limited space.

[0060] 3. The area between the first air outlet channel 1.11 and the second air outlet channel 1.12 forms an assembly space 1.2 by recessing backward. The driving mechanism is arranged in the assembly space 1.2, further improving the integration and compactness of the device.

[0061] The above is only the preferred implementation mode of the present invention. The protection scope of the present invention is not limited to the above embodiments. All technical solutions falling within the concept of the present invention belong to the protection scope of the present invention. It should be noted that for those of ordinary skill in the art in this technical field, several improvements and refinements made without departing from the principle of the present invention should also be regarded as within the protection scope of the present invention.

Claims

1. A dual-channel natural wind outlet, characterized in that: include: An air outlet housing (1), the air outlet housing (1) being provided with a first air outlet channel (1.11) for outputting a first air flow, and a second air outlet channel (1.12) for outputting a second air flow, the first air flow intersecting with the second air flow; A plurality of first blades (2) arranged in a left-right direction and disposed in the first air outlet channel (1.11); The second blade (3) is arranged in the second air outlet channel (1.12) and is used to adjust the left and right air outlet angles of the second airflow. The driving mechanism comprises a transmission part (5) which can be translated along the Y axis. The transmission part (5) is provided with a plurality of transmission grooves (5.2), each of the transmission grooves (5.2) being independently coupled to a pin shaft of a first blade (2). The transmission groove (5.2) extends along the Y-axis direction and has a diffusion driving section (5.22) that gradually converges toward the center of the transmission part (5); When the pin of the first blade (2) is in the diffusion drive section (5.22), the transmission part (5) translates along the Y axis, driving the first blade (2) to swing to a position inclined to the left and right sides, so that the first airflow diffuses out; The second blade (3) can swing left and right, causing the second airflow to swing left and right; The change in the second airflow circulation and the intersection area of ​​the first airflow increase the air volume in the intersection area and make it greater than the air volume in the non-intersection area, thereby outputting the airflow with the air volume ratio of natural wind.

2. A dual-channel natural wind outlet according to claim 1, characterized in that: The transmission groove (5.2) further comprises a direct blowing driving section (5.21), wherein the direct blowing driving section (5.21) is arranged at the front end of the diffusion driving section (5.22) and is a straight extension structure; The transmission part (5) can translate along the X-axis. When the pin shaft of the first blade (2) is in the direct-blowing driving section (5.21), the first blade (2) can be swung to a mutually parallel position. At this time, the transmission part (5) translates along the X-axis to make the first blade (2) swing left and right synchronously; The second blade (3) can swing left and right synchronously with the first blade (2), thereby allowing the second airflow to be output in the same direction as the first airflow.

3. A dual-channel natural wind outlet according to claim 2, characterized in that: The driving mechanism further comprises a first rotating member (6), A first cam pin (6.1) is also provided at the lower end of the first rotating member (6), and the transmission part (5) is provided with a first track groove (5.1) that is transmission-coordinated with the first cam pin (6.1); The first rotating member (6) rotates along the axis A, and can drive the transmission part (5) to translate through the transmission cooperation between the first cam pin (6.1) and the first track groove (5.1).

4. A dual-channel natural wind outlet according to claim 3, characterized in that: The driving mechanism further comprises a second rotating member (7) and a sliding block (8); A second cam pin (7.1) is provided at the upper end of the second rotating member (7), and the sliding block (8) is provided with a second track groove (8.1) that is transmission-matched with the second cam pin (7.1); The slider (8) is arranged to be linked with the second blade (3); The second rotating member (7) rotates along the axis B, and through the transmission cooperation between the second cam pin (7.1) and the second track groove (8.1), the slider (8) can be driven to move left and right, thereby driving the plurality of second blades (3) to swing left and right.

5. A dual-channel natural wind outlet according to claim 4, characterized in that: The driving mechanism further comprises a driving member (4), wherein the driving member (4) is driven by the actuator (11) to move left and right, and the driving member (4) is provided with a first rack (4.1) and a second rack (4.2) extending left and right. The first rotating member (6) is provided with a first gear (6.2) meshing with the first rack (4.1); The second rotating member (7) is provided with a second gear (7.2) meshing with the second rack (4.2).

6. A dual-channel natural wind outlet according to claim 1, characterized in that: The air outlet housing (1) is provided with an air duct (1.1), the inlet of the air duct (1.1) is used to receive airflow, and the outlet of the air duct (1.1) is respectively connected to the first air outlet channel (1.11) and the second air outlet channel (1.12); The air duct (1.1) is further provided with an air volume blade (9), the air volume blade (9) being arranged between the inlet of the first air outlet channel (1.11) and the inlet of the second air outlet channel (1.12), the air volume blade (9) rotating up and down to adjust the inlet opening of the first air outlet channel (1.11) or the inlet opening of the second air outlet channel (1.12).

7. A dual-channel natural wind outlet according to claim 6, characterized in that: The inlet of the air duct (1.1) is also provided with an air door (10), and the air door (10) is rotated to adjust the opening degree of the inlet of the air duct (1.1).

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