Automatic air intake reset bubble water machine
The air intake automatic reset mechanism in aerated water machines uses mechanical structures to control carbon dioxide gas intake based on air pressure, addressing stability and false detection issues in conventional systems.
Patent Information
- Application Number
- JP2024600106U
- Authority / Receiving Office
- JP · JP
- Patent Type
- Utility models
- Current Assignee / Owner
- Priority Date
- 2022-08-16
- Filing Date
- 2023-07-21
- Publication Date
- 2025-08-15
- Estimated Expiration
- 2033-07-21
AI Technical Summary
Conventional aerated water machines suffer from low stability and prone to false detection due to electrical control units in detecting air pressure within the aerated water bottle, leading to inconsistent carbon dioxide gas filling.
An air intake automatic reset mechanism using mechanical structures, including a slave unit, master unit, intake pressure rod, air passage body, air pressure valve body, and intake connecting rod hook, to control carbon dioxide gas intake based on air pressure without electrical feedback.
The mechanical structure ensures stable and consistent carbon dioxide gas intake and reset, eliminating false detections, ensuring reliable operation.
Smart Images

Figure 0003252386000001_ABST
Abstract
Description
[Technical Field]
[0001] The present invention relates to the field of bubble water machines, and in particular to an air intake automatic reset bubble water machine. [Background technology]
[0002] In conventional aerated water machines, a detection device for detecting the air pressure inside the aerated water bottle is installed in the parent unit to stop the carbon dioxide gas from being filled into the aerated water bottle after the air pressure inside the aerated water bottle reaches a predetermined value, and then a signal is fed back to the driving unit via the detection device to stop the gas filling in the driving unit.However, this method has the problem that the stability is relatively low and it is prone to false detection due to the existence of an electrical control unit. Summary of the Invention
[0003] In order to solve the above problems, the object of this utility model is to provide an aerated water machine that restricts the intake of carbon dioxide gas by structure alone and stops the continuous injection of carbon dioxide gas into the aerated water bottle.
[0004] To solve the problem, the technical solution adopted by this utility model is as follows: an air intake automatic reset bubble water maker, A slave unit is installed on one side, and a master unit is installed on the other side, with an intake body on which a cylinder connection port is installed. an intake pressure rod disposed on the main unit, the intake pressure rod being positioned on a surface of the intake rod to drive and press down the intake rod, the intake pressure rod having a through hole extending vertically; an air passage body that is installed in the sub-unit and has a water bottle joint installed at its bottom, a master air passage channel that communicates with the water bottle joint and the intake channel installed, an air pressure channel that communicates with the water bottle joint installed at its front end, and an air pressure cavity that has an air pressure hole installed at its rear end; an air pressure valve body that is installed in the air pressure cavity and has an air pressure valve rod at its rear end that extends along the air pressure hole to the outside of the air passage body; an intake connecting rod hook pivotally mounted in the parent machine, having an upper end provided with a hook body facing the through-hole, a lower end serving as a driving end facing the air pressure valve rod, and having a second reset device installed thereon; The intake body is provided with an intake channel extending to a cylinder connection port and an intake rod for pressing a carbon dioxide gas cylinder; A button for driving and moving the intake pressure rod is provided on the surface of the main unit. The air pressure valve body is provided with a first reset device for driving the air pressure valve body to seal the air pressure channel; A guide slope is installed on the surface of the hook body and / or the lower end of the through hole, and when the intake pressure rod is pressed down, the upper end of the intake connecting rod hook passes through the through hole and moves to the upper end of the through hole, and the hook body is hooked onto the upper edge of the through hole.
[0005] As a further improvement of the above technical solution, the rear end of the intake pressure rod is pivotally mounted within the parent unit, the middle part of the intake pressure rod is located above the intake rod, and the through hole is installed at the tip of the intake pressure rod.
[0006] As a further improvement of the above technical solution, an end cover is screwed onto the rear end of the air pressure cavity, the air pressure hole is installed on the end cover, the rear end of the first reset device abuts against the inner surface of the end cover, a first driven gear is installed on the outer periphery of the end cover, a shift knob is installed on the surface of the slave unit or master unit, and the shift knob includes a first driving gear meshing with the first driven gear.
[0007] As a further improvement of the above technical solution, a clutch gear set including a first clutch gear and a second clutch gear is installed between the first driven gear and the first driving gear, the first clutch gear has second driven teeth that are always meshed with the first driven gear, the second clutch gear has third driven teeth that mesh with the first driving gear, the first clutch gear has first clutch teeth, and the second clutch gear has second clutch teeth that mesh with the first clutch teeth, an elastic pressure member is installed on the first clutch gear or the second clutch gear to allow the first clutch gear and the second clutch gear to mesh with each other, the shift knob has a first position limiting end that limits a rotation range of the shift knob, and the first driven gear has a second position limiting end that limits a rotation range of the first driven gear.
[0008] As a further improvement of the above technical solution, the first clutch teeth are installed on an upper end surface of the first clutch gear, the second clutch teeth are installed on a lower end surface of the second clutch gear, and the elastic crimping member is installed on an upper end surface of the second clutch gear and presses the second clutch gear downward against the upper end surface of the first clutch gear.
[0009] As a further improvement of the above technical solution, a plurality of Hall sensors are installed around the periphery of the shift knob, magnets that fit into the Hall sensors are installed on the shift knob, and a shift display electrically connected to the Hall sensors is installed on the surface of the slave or master unit.
[0010] As a further improvement of the above technical solution, a damping gear is installed in the parent machine, and a damping rack that meshes with the damping gear is installed on the intake pressure rod.
[0011] As a further improvement of the above technical solution, the air passage body is pivotally attached to the handset so as to allow the air passage body to swing outward relative to the handset.
[0012] As a further improvement of the above technical solution, the air passage body is provided with an exhaust cavity having an exhaust channel at its front end connected to the water bottle joint and an exhaust hole at its rear end, an exhaust valve is provided in the exhaust cavity, an exhaust rod is provided at the rear end of the exhaust valve along the exhaust hole and extends to the outside of the air passage body, an exhaust push rod support is provided in the parent unit at the rear end of the exhaust rod, a positive pressure surface and an inclined guide surface at the lower end of the positive pressure surface are provided on the surface of the exhaust push rod support, and the exhaust rod is normally in contact with the positive pressure surface to make the exhaust valve seal the exhaust channel.
[0013] As a further improvement of the above technical solution, a weight sensor is installed below the intake body, an intake body support is pivotally mounted within the parent unit, a support part is installed at the rear end of the intake body support, located below the intake body, for supporting or lowering the intake body from the weight sensor, and a drive lever is at the tip of the intake body support, and the drive lever is movably connected to the air passage body so as to move the drive lever and swing when the air passage body swings.
[0014] The beneficial effects of this utility model are as follows: when in use, the button is pressed to press the intake pressure rod, causing the intake rod to press the carbon dioxide cylinder to supply air, and the carbon dioxide gas enters the aerated water bottle attached to the cylinder connection port through the intake channel and the main air passage channel, and the intake pressure rod is driven, causing the through hole and the intake connecting rod hook to move relative to each other, so that the upper end of the intake connecting rod hook is inserted into the through hole and positioned above the through hole, and the hook body is hooked onto the upper edge of the through hole by the action of the second reset device, thereby fixing the intake pressure rod. This allows the intake rod to be driven for a long time, and when the air pressure inside the bubble water bottle reaches a predetermined value, the air pressure is fed back to the air valve body through the air channel, causing the air valve body to move outward against the force of the first reset device and further press the driving end of the intake connecting rod hook, causing the intake connecting rod hook to swing and the hook body to swing further away from the edge of the through-hole, at this time the intake pressure rod is not restricted, so it is automatically reset and stops intake, and the entire process of intake and reset is operated and controlled by a mechanical structure, which is more stable. [Brief explanation of the drawings]
[0015] The present invention will be further described below in conjunction with the drawings and specific embodiments. [Figure 1] 1 is a structural diagram of a preferred embodiment of the present invention; [Figure 2] FIG. 2 is a schematic cross-sectional view of the structure taken along the AA direction in FIG. [Figure 3] FIG. 3 is an enlarged structural view of a portion B in FIG. 2. [Figure 4] This is the second cross-sectional structural diagram taken along the AA direction in FIG. [Figure 5] This is the third cross-sectional structural diagram in the AA direction in FIG. [Figure 6] FIG. 2 is a cross-sectional structural diagram taken along the CC direction in FIG. [Figure 7] This is the second cross-sectional structural diagram in the CC direction in FIG. [Figure 8]FIG. 1 is an exploded view of a preferred embodiment of the present invention. [Figure 9] FIG. 2 is a diagram showing the internal structure of a preferred embodiment of the present invention. [Figure 10] 1 is a view showing the air passage body and related structures in a preferred embodiment of the present invention; [Figure 11] 1 is a diagram of an intake body and related structures in a preferred embodiment of the present invention; DETAILED DESCRIPTION OF THE INVENTION
[0016] This section describes in detail the specific embodiments of the present utility model, and the preferred embodiments of the present utility model are illustrated in the drawings. The role of the drawings is to graphically supplement the written description in the specification and to enable a visual and imaginative understanding of each technical feature and the overall technical solution of the present utility model, but they cannot be construed as a restriction on the protection scope of the present utility model.
[0017] In describing this utility model, it should be understood that the orientations or positional relationships associated with the directions, such as up, down, front, back, left, right, etc., are based on the orientations or positional relationships shown in the drawings, and are merely for the purpose of facilitating the description of this utility model and simplified explanation, and do not indicate or imply that the indicated devices or elements must have a particular orientation, be constructed and operate in a particular direction, and therefore cannot be understood as limitations on this utility model.
[0018] In the description of this utility model, some means one or more, plural means two or more, greater than, less than, more than, etc. are understood to not include the numbers themselves, and greater than, less than, less than, within, etc. are understood to include the numbers themselves. The stated "first" and "second" are merely intended to distinguish technical features, and cannot be understood to indicate or suggest relative importance, or to imply the number of the indicated technical features, or to imply the context of the indicated technical features.
[0019] In the description of this utility model, unless otherwise expressly limited, terms such as installation, mounting, connection, etc. shall be understood in a broad sense, and those skilled in the art can reasonably determine the specific meanings of the above terms in this utility model according to the specific content of the technical solution.
[0020] 1 to 11, an air intake automatic reset air bubble water maker, A master unit 10 is provided with a slave unit 20 on one side and an intake body 40 on which a cylinder connection port is provided; an intake pressure rod (50) installed on the main unit (10), positioned on the surface of the intake rod, for driving and pressing down the intake rod, and having a through hole (51) penetrating vertically; an air passage body 30 installed on the sub-unit 20, the air passage body 30 having a water bottle joint installed at its bottom, a master air passage channel connected to the water bottle joint and the intake channel installed, an air pressure channel 32 connected to the water bottle joint installed at its front end, and an air pressure cavity 31 with an air pressure hole 34 installed at its rear end; an air pressure valve body 35 that is installed in the air pressure cavity 31 and has an air pressure valve rod 351 installed at its rear end to extend along the air pressure hole 34 to the outside of the air passage body 30; an intake connecting rod hook 53 pivotally mounted in the parent unit 10, having an upper end provided with a hook body 54 facing the through-hole 51, and a lower end serving as a driving end directly facing the air pressure valve rod 351, and having a second reset device 55 installed thereon; The intake body 40 is provided with an intake channel extending to a cylinder connection port and an intake rod for pressing a carbon dioxide gas cylinder. A button 52 for driving and moving the intake pressure rod 50 is provided on the surface of the main unit 10. The air pressure valve body 35 is provided with a first reset device 36 that drives the air pressure valve body 35 to seal the air pressure channel 32; A guide slope is provided on the surface of the hook body 54 and / or the lower end of the through hole 51, and when the intake pressure rod 50 is pressed down, the upper end of the intake connecting rod hook 53 passes through the through hole 51 and moves to the upper end of the through hole 51, and the hook body 54 is hooked onto the upper edge of the through hole 51.
[0021] In use, the button 52 is used to press the intake pressure rod 50, causing the intake rod to press the carbon dioxide cylinder to supply air. The carbon dioxide passes through the intake channel and the main airway channel into the aerated water bottle attached to the cylinder connection port. The intake pressure rod 50 is then driven, causing the through hole 51 and the intake connecting rod hook 53 to move relative to each other. The upper end of the intake connecting rod hook 53 is inserted into the through hole 51 and positioned above the through hole 51. The second reset device 55 then engages the hook body 54 with the upper edge of the through hole 51, fixing the intake pressure rod 50 for a long period of time. When the air pressure inside the bottle reaches a predetermined value, the air pressure is fed back to the air valve body 35 through the air channel 32, causing the air valve body 35 to move outward against the force of the first reset device 36 and further press the driving end of the air intake connecting rod hook 53, causing the air intake connecting rod hook 53 to swing, causing the hook body 54 to swing and further separate from the edge of the through-hole 51. At this time, the air intake pressure rod 50 is not restricted, so it is automatically reset and stops the air intake. The entire process of air intake and reset is operated and controlled by a mechanical structure, which is more stable.
[0022] In this embodiment, the intake pressure rod 50 and the button 52 may be installed independently or may be integrally formed.
[0023] In this embodiment, preferably, the rear end of the intake pressure rod 50 is pivotally mounted within the parent unit 10, the middle part of the intake pressure rod 50 is located above the intake rod, and the through hole 51 is installed at the tip of the intake pressure rod 50.
[0024] In order to further optimize and adjust the concentration of carbon dioxide gas filled in the aerated water bottle, preferably, an end cover 33 is screwed onto the rear end of the air pressure cavity 31, the air pressure hole 34 is installed on the end cover 33, the rear end of the first reset device 36 abuts against the inner surface of the end cover 33, a first driven gear 37 is installed on the outer periphery of the end cover 33, a shift knob 60 is installed on the surface of the sub-unit 20 or the main unit 10, and the shift knob 60 includes a first driving gear 62 that meshes with the first driven gear 37. By rotating the shift knob 60, the first driving gear 62 moves and rotates the first driven gear 37, thereby driving the end cover 33 to move back and forth in the air pressure cavity 31, and further adjusting the force of the first reset device 36 so that the air pressure valve body 35 is pressed when the air pressure in the aerated water bottle is different.
[0025] Considering that a positional deviation may occur between the first gear and the second gear, and the gear position does not match the actual pressure inside the aerated water bottle, preferably, a clutch gear set including a first clutch gear 63 and a second clutch gear 64 is installed between the first driven gear 37 and the first driving gear 62, the first clutch gear 63 is installed with a second driven tooth that is always meshed with the first driven gear 37, the second clutch gear 64 is installed with a third driven tooth that is always meshed with the first driving gear 62, and the first clutch gear 63 is installed with a second driven tooth that is always meshed with the first driving gear 62. First clutch teeth are provided on the latch gear 63, second clutch teeth that mesh with the first clutch teeth are provided on the second clutch gear 64, an elastic crimping member 65 is provided on the first clutch gear 63 or the second clutch gear 64 so that the first clutch gear 63 and the second clutch gear 64 mesh with each other, a first position limiting end that limits the rotation range of the shift knob 60 is provided on the shift knob, and a second position limiting end that limits the rotation range of the first driven gear 37 is provided on the first driven gear 37. The clutch gear set serves as a shift reset. During the actual shift reset adjustment process, the shift knob 60 is rotated fully in both directions once. If the shift is not synchronized, the first driven gear 37 rotates to a predetermined position during the rotation process and its rotation is restricted by the second position limiting end. At this time, the shift knob 60 has not yet reached the end of its stroke. As the shift knob 60 continues to rotate, a greater force is applied to the second clutch gear 64, causing the second clutch gear 64 and the first clutch gear 63 to expand against the force of the elastic pressure member 65, resulting in slippage. The shift knob 60 can then continue to rotate to the end of its stroke, until it is aligned with the position of the first driven gear 37. The slippage between the second clutch gear 64 and the first clutch gear 63 prevents damage to the first driving gear 62, the clutch gear set, and the first driven gear 37.
[0026] Preferably, the first clutch teeth are installed on the upper end surface of the first clutch gear 63, the second clutch teeth are installed on the lower end surface of the second clutch gear 64, and the elastic crimping member 65 is installed on the upper end surface of the second clutch gear 64 and presses the second clutch gear 64 downward against the upper end surface of the first clutch gear 63.
[0027] Preferably, an annular receiving groove 641 is provided on the upper end surface of the second clutch gear 64 , and the elastic pressure member 65 is a spring inserted into the annular receiving groove 641 .
[0028] The first position limiting end preferably includes a main pin body installed on the surface of the first drive gear 62 and a sub-pin body installed in the slave unit 20, and when the first drive gear 62 rotates toward either side to a limit position, the main pin body abuts against the sub-pin body. In another embodiment, the first position limiting end includes a stroke groove installed in the slave unit 20 and a stroke block located in the shift knob 60, and the stroke block is located in the stroke groove, thereby limiting the rotation range of the shift knob 60 through the stroke groove. The specific embodiment of the second position limiting end may be the same as the embodiment of the first position limiting end, or may be another undescribed embodiment.
[0029] Further optimized, preferably, a plurality of Hall sensors are installed around the periphery of the shift knob 60, a magnet 61 that engages with the Hall sensors is installed on the shift knob 60, and a shift display electrically connected to the Hall sensors is installed on the surface of the sub-unit 20 or the main unit. Further optimization is preferably achieved by installing a damping gear 90 in the parent unit 10, and installing a damping rack 91 meshing with the damping gear 90 on the intake pressure rod 50, thereby slowing down the speed when the intake pressure rod 50 is reset, thereby preventing collision noise.
[0030] The force of the intake pressure bar 50 is transmitted to the intake rod by the restoring force of the carbon dioxide cylinder needle itself, and then transmitted to the intake pressure bar 50 via the intake rod, thereby moving and resetting the intake pressure bar 50. In order to accelerate the resetting of the intake pressure bar 50 and reduce the force acting on the carbon dioxide cylinder, preferably, a third reset device is installed on the intake pressure bar 50 and a fourth reset device is installed on the intake rod.
[0031] In order to further optimize and facilitate the installation of the bubble bottle, preferably, the air passage body 30 is pivotally mounted on the sub-unit 20 so that the air passage body 30 can swing outward relative to the sub-unit 20. Accordingly, in order to prevent high pressure from occurring in the aerated water bottle during installation and when it is not fully reset to the operating position, preferably, the air passage body 30 is provided with an exhaust cavity, the front of which is connected to the water bottle joint and the rear end of which is provided with an exhaust channel and an exhaust hole, an exhaust valve 80 is provided in the exhaust cavity, an exhaust rod is provided at the rear end of the exhaust valve 80 along the exhaust hole and extends outside the air passage body 30, an exhaust push rod support 81 is provided at the rear end of the exhaust rod in the main unit 10, a pressure surface 811 is provided on the surface of the exhaust push rod support 81, and an inclined guide surface 812 is provided at the lower end of the pressure surface 811, and the exhaust rod is normally in contact with the pressure surface 811, causing the exhaust valve 80 to seal the exhaust channel.
[0032] When the air passage body 30 swings outward relative to the sub-unit 20 to be mounted, the exhaust rod swings downward along the positive pressure surface 811 until it cannot abut against the exhaust push rod support 81, at which time the exhaust valve 80 can move freely into the exhaust cavity, thereby connecting the aerated water bottle to the outside, and the aerated water bottle cannot store gas. When the air passage body 30 moves the aerated water bottle to swing and reset, the exhaust rod moves along the inclined guide surface 812 to the positive pressure surface 811, so that the exhaust valve 80 seals the exhaust channel, allowing carbon dioxide and other gases to fill the aerated water bottle and enter a high-pressure state. Preferably, the exhaust valve 80 comprises a front end body and a rear end body, the exhaust rod is installed in the rear end body, and a tension elastic member is installed between the front end body and the rear end body. Under normal conditions, the front end body seals the exhaust channel due to the action of the tension elastic member and the positive pressure surface 811. When the air pressure in the bubble bottle is too high, the excessive air pressure will push the front end body toward the rear end body to open the exhaust channel, thereby further relieving the pressure.
[0033] Preferably, a weight sensor 71 is installed below the intake body 40, an intake body support 70 is pivotally mounted within the parent unit 10, and a support part 701 is installed at the rear end of the intake body support 70, positioned below the intake body 40, for supporting or lowering the intake body 40 from the weight sensor 71. A drive lever 702 is installed at the front end of the intake body support 70, and the drive lever 702 is movably connected to the air passage body 30 so as to move and swing the drive lever 702 when the air passage body 30 swings. In this state, the intake body support 70 is moved and swings during the swinging process of the air passage body 30, and when the air passage body 30 is in the operating position, the intake body support 70 supports the intake body 40 from the weight sensor 71, so that the intake body 40 and the weight sensor 71 do not come into contact with each other and the force applied by the user to the intake presser bar 50 is not transmitted to the weight sensor 71. When the air passage body 30 swings to the position where the aerated water bottle is attached or detached from the sub-unit 20, the air passage body 30 moves the air intake body support 70 to swing, and as the support part 701 swings, the air intake body 40 is placed on the weight sensor 71, thereby measuring the real-time weight of the carbon dioxide bottle and knowing the remaining amount of gas in the carbon dioxide bottle, which is convenient for the user to prepare for replacing the gas bottle in a timely manner. Preferably, the driving lever 702 has an elongated groove, and the air intake body 40 has an interlocking pin inserted into the elongated groove, which makes it convenient for the air intake body 40 to move the driving lever 702 to swing.
[0034] In this proposal, preferably, the first reset device 36, the second reset device 55, the third reset device, the fourth reset device and the tension elastic member are all springs, but may also be other elastic structures such as elastic rubber columns, two sets of repulsive magnets, etc.
[0035] The above is merely a preferred embodiment of the present utility model, and does not limit the patent scope of the present utility model. Any equivalent structural transformations made using the contents of the specification and drawings of the present utility model under the concept of the present utility model, or those directly or indirectly applied to other related technical fields, are all included in the patent protection scope of the present utility model.
Claims
1. A master unit (10) is provided with a slave unit (20) on one side and an intake body (40) on which a cylinder connection port is provided; an intake pressure rod (50) installed on the main unit (10), positioned on the surface of the intake rod to drive the intake rod, and having a through hole (51) penetrating vertically; an air passage body (30) installed in the sub-unit (20), having a water bottle joint installed at the bottom, a master air passage channel connected to the water bottle joint and the intake channel installed, an air pressure channel (32) connected to the water bottle joint installed at the front end, and an air pressure cavity (31) with an air pressure hole (34) installed at the rear end; an air pressure valve body (35) that is installed in the air pressure cavity (31) and has an air pressure valve rod (351) at its rear end that extends outward from the air passage body (30) along the air pressure hole (34); an intake connecting rod hook (53) pivotally mounted in the parent unit (10), having an upper end with a hook body (54) facing the through-hole (51), and a lower end serving as a driving end directly facing the air pressure valve rod (351), and having a second reset device (55) installed therein; The intake body (40) is provided with an intake channel extending to a cylinder connection port and an intake rod for pressing a carbon dioxide gas cylinder, A button (52) for driving and moving the intake pressure rod (50) is provided on the surface of the main unit (10), The air pressure valve body (35) is provided with a first reset device (36) for driving the air pressure valve body (35) to seal the air pressure channel (32); A guide slope is provided on the surface of the hook body (54) and / or the lower end of the through-hole (51), and when the intake pressure rod (50) is pressed down, the upper end of the intake connecting rod hook (53) passes through the through-hole (51) and moves to the upper end of the through-hole (51), and the hook body (54) hooks onto the upper edge of the through-hole (51).
2. The automatic intake reset bubble water maker according to claim 1, characterized in that the rear end of the intake pressure rod (50) is pivotally mounted in the main unit (10), the middle part of the intake pressure rod (50) is located above the intake rod, and the through hole (51) is installed at the tip of the intake pressure rod (50).
3. The air intake automatic reset bubble water maker according to claim 1, characterized in that an end cover (33) is screwed onto the rear end of the air pressure cavity (31), the air pressure hole (34) is installed in the end cover (33), the rear end of the first reset device (36) abuts against the inner surface of the end cover (33), a first driven gear (37) is installed on the outer periphery of the end cover (33), a shift knob (60) is installed on the surface of the sub-unit (20) or the main unit (10), and the shift knob (60) includes a first drive gear (62) meshing with the first driven gear (37).
4. A clutch gear set including a first clutch gear (63) and a second clutch gear (64) is provided between the first driven gear (37) and the first drive gear (62), the first clutch gear (63) is provided with second driven teeth that always mesh with the first driven gear (37), the second clutch gear (64) is provided with third driven teeth that mesh with the first drive gear (62), the first clutch gear (63) is provided with first clutch teeth, and the second clutch gear (64) is provided with third driven teeth that mesh with the first clutch teeth.
4. The automatic reset air intake bubble maker according to claim 3, wherein the first clutch gear (63) or the second clutch gear (64) is provided with an elastic pressure member (65) for meshing the first clutch gear (63) and the second clutch gear (64) with each other, the shift knob (60) is provided with a first position limiting end for limiting the rotation range of the shift knob (60), and the first driven gear (37) is provided with a second position limiting end for limiting the rotation range of the first driven gear (37).
5. 5. The automatic reset air intake bubble maker according to claim 4, wherein the first clutch teeth are installed on the upper end surface of the first clutch gear (63), the second clutch teeth are installed on the lower end surface of the second clutch gear (64), and the elastic pressure member (65) is installed on the upper end surface of the second clutch gear (64) and presses the second clutch gear (64) downward against the upper end surface of the first clutch gear (63).
6. The automatic intake reset air bubble water maker according to claim 3, characterized in that a plurality of Hall sensors are installed around the periphery of the shift knob (60), a magnet (61) that fits into the Hall sensors is installed on the shift knob (60), and a shift display that is electrically connected to the Hall sensors is installed on the surface of the slave unit (20) or master unit.
7. The automatic intake reset air bubble maker according to claim 1, characterized in that a damping gear (90) is installed in the main unit (10), and a damping rack (91) meshing with the damping gear (90) is installed on the intake pressure rod (50).
8. 2. The automatic intake reset bubble water maker according to claim 1, wherein the air passage body (30) is pivotally attached to the sub-unit (20) so that the air passage body (30) can swing outward relative to the sub-unit (20).
9. The air vent body (30) is provided with an exhaust cavity having an exhaust channel at its front end connected to a water bottle joint and an exhaust hole at its rear end, an exhaust valve (80) is provided in the exhaust cavity, an exhaust rod is provided at the rear end of the exhaust valve (80) along the exhaust hole and extends to the outside of the air vent body (30), an exhaust push rod support (81) is provided in the main unit (10) at the rear end of the exhaust rod, a positive pressure surface (811) and an inclined guide surface (812) are provided on the surface of the exhaust push rod support (81), and the exhaust rod is normally in contact with the positive pressure surface (811) to make the exhaust valve (80) seal the exhaust channel.
10. The automatic intake reset aerator water maker according to claim 8, characterized in that a weight sensor (71) is installed below the intake body (40), an intake body support (70) is pivotally mounted within the parent unit (10), a support part (701) is installed at the rear end of the intake body support (70) below the intake body (40) to support or lower the intake body (40) from the weight sensor (71), and a drive lever (702) is at the tip of the intake body support (70), and the drive lever (702) is movably connected to the air vent body (30) so as to move and swing the drive lever (702) when the air vent body (30) swings.