Quantitative water outlet mechanism for mineral water filling production
By designing a sliding connection filling head structure, the problem of external environment contamination of the filling head during the mineral water filling process is solved, quantitative water output and a stable filling process are achieved, and the water cleanliness and filling stability are improved.
Patent Information
- Application Number
- CN202422956137.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-29
- Publication Date
- 2025-09-16
- Estimated Expiration
- 2034-11-29
AI Technical Summary
The filling head of the existing mineral water filling machine is easily affected by the external environment during the filling process, resulting in dust pollution and deterioration of the mineral water quality. At the same time, there are problems such as bottle shaking and mineral water splashing and leakage.
A quantitative water discharge mechanism for mineral water filling production is designed. It adopts a filling head structure with a sliding connection, including a connecting rod and a cylinder sleeved on the outside of the connecting rod, which are connected by a compression spring. The filling head slides in the cylinder and contacts the top of the bottle body. The nozzle part is protected by the cylinder to avoid exposure to the external environment. At the same time, the quantitative water discharge and stability of the filling process are achieved through the adjustment component and the detection component.
It improves the water cleanliness during the filling process, reduces bottle shaking and mineral water splashing and leakage, and enhances filling stability and efficiency.
Smart Images
Figure CN223342420U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of mineral water filling, in particular to a quantitative water discharge mechanism for mineral water filling production. Background Art
[0002] As the main drinking water in people's daily life, mineral water is usually filled during the production process. When a commonly used filling machine is used to perform quantitative filling of mineral water in bottles, the multiple filling heads provided thereon are usually set at a certain length. During the filling process, the filling heads of a certain length are usually driven by pneumatic components to extend into the interior of the bottle along the corresponding bottle mouth of the bottle for holding mineral water below, and then the quantitative filling process of the mineral water in the bottle is carried out through the filling heads. Although this filling method can effectively reduce the splashing phenomenon of mineral water during the filling process of the filling heads in the corresponding bottles, it also has certain shortcomings, that is, the filling heads that extend into the bottle body for a certain length, usually during the filling process, a certain amount of mineral water in the bottle will often submerge the filling heads of a certain length. The outer wall of the filling head structure on a conventional filling machine is usually exposed to the external production environment for a long time. During the switching process of batch bottle filling, it is often easily affected by the external environment and easily adheres to impurities such as dust, thereby affecting the water quality cleanliness of the mineral water in the bottle during the filling process and the corresponding filling quality. Utility Model Content
[0003] The purpose of the utility model is to provide a quantitative water discharge mechanism for mineral water filling production, which can discharge water in a quantitative manner and is not easily affected by the external filling environment, so as to ensure the cleanliness of the water quality of the mineral water during the filling process, and can further improve the stability of the bottle during the filling process, effectively reduce the leakage of mineral water in the bottle during the canning process, and improve the filling stability and efficiency.
[0004] The technical solution adopted by the present invention to solve the above problems is:
[0005] A quantitative water discharge mechanism for mineral water filling production includes a frame and a conveying assembly for bottle conveying provided thereon, and a filling machine main body formed by a filling assembly placed above the conveying assembly and provided with mineral water filling, the filling assembly including a fixed frame slidably arranged on the frame and a plurality of filling heads provided thereon, and a cylinder driving the fixed frame to slide up and down, the filling head including a connecting rod mounted on the fixed frame and a nozzle with a tubular arrangement at the bottom of the connecting rod and a water inlet, and an adaptor cylinder sleeved on the outside of the connecting rod and the bottom nozzle and connected by a compression spring and sliding up and down, the cylinder being provided with a slide groove for the sliding of the connecting rod and the nozzle and a water inlet channel provided below the slide groove, the side wall of the cylinder being provided with a second water inlet connected to the internal water inlet pipe and connected to a plurality of drain outlets provided at corresponding positions in the water supply assembly provided on the frame through a water pipe.
[0006] Preferably, the water inlet channel is provided inside the cylinder, and the bottom of the connecting rod slides in the adaptor nozzle inside the water inlet channel and extends downward and is provided with a redundant length.
[0007] Preferably: an adjustment assembly is also provided at the sliding connection between the connecting rod and the outer cylinder body that slides up and down through a compression spring, and the adjustment assembly includes a first mounting seat and a second mounting seat respectively installed on the connecting rod and the outer wall of the cylinder, a second connecting rod is slidingly provided on the first mounting seat and the second mounting seat, the second connecting rod is placed on one end rod body of the first mounting seat and is rotatably provided with a first adjusting member, and a second adjusting member for fixing the second connecting rod is rotatably provided on the second mounting seat.
[0008] Preferably, the second water inlets opened on the side wall of the cylinder are provided with multiple groups and arranged vertically along the internal water inlet pipe, and are connected to the corresponding multiple groups of drainage outlets in the water supply assembly through multiple groups of water pipes.
[0009] Preferably, the second connecting rod is also marked with scale lines.
[0010] Preferably, the connecting rod is slidably arranged on the fixing frame and can be detachably mounted on the fixing frame by rotating a locking piece arranged on the top of the connecting rod.
[0011] Preferably, the adjustment assembly further comprises a detection assembly, and the detection assembly comprises a sensor and a touch panel respectively mounted on the first mounting seat and the second mounting seat.
[0012] Preferably, a groove is provided on the contact surface between the bottom of the cylinder and the opening of the top of the bottle.
[0013] Compared with the prior art, the present invention has the following advantages and effects:
[0014] The utility model is a quantitative water discharging mechanism for mineral water filling production. The specific structural arrangement of the filling head on the mechanism can facilitate water discharging and closing, as well as quantitatively control and adaptively adjust the water content. At the same time, the mechanism can play a certain protective role for the nozzle with an adaptive structure arranged at the bottom of the connecting rod under the action of the cylinder. On the one hand, it can further improve the structural stability of the nozzle and make it less likely to deform or even break. On the other hand, it can effectively prevent the nozzle from being exposed to the external filling environment during the filling process, thereby further improving the water quality and cleanliness of the mineral water in the bottle during the filling process. In addition, the arrangement of the corresponding cylinder can also play a certain pressure role on the bottle during filling under the action of the compression spring, thereby effectively reducing the phenomenon of shaking or even positional displacement of the bottle during the filling process, and preventing external dust from entering the bottle while effectively avoiding the phenomenon of mineral water splashing and leaking out of the bottle during the filling process, thereby further improving the filling stability, efficiency and corresponding filling efficiency. BRIEF DESCRIPTION OF THE DRAWINGS
[0015] Figure 1 It is a schematic diagram of the overall structure of a quantitative water outlet mechanism for mineral water filling production according to an embodiment of the present utility model.
[0016] Figure 2 It is a partial enlarged view of the filling assembly on the frame of the embodiment of the utility model.
[0017] Figure 3 It is an enlarged structural diagram of the filling head of the embodiment of the utility model.
[0018] Figure 4 This is a structural disassembly diagram of the filling head of an embodiment of the utility model.
[0019] Figure 5 It is an enlarged structural diagram of the filling head of the embodiment of the utility model.
[0020] Figure numbers: frame 100, slide bar 101, bottle body 110, conveying assembly 1, chain conveyor 11, driving component 12, filling assembly 2, fixing frame 21, through groove 211, filling head 22, connecting rod 221, locking member 2211, nozzle 222, water inlet 2221, nozzle 2222, cylinder 223, slide 2231, water inlet pipe 2232, second water inlet 2233, groove 2234, compression spring 224, cylinder 23, adjustment assembly 24, first mounting seat 241, second mounting seat 242, second adjusting member 2421, second connecting rod 243, first adjusting member 2431, scale line 2432, detection assembly 25, sensor 251, touch panel 252, water supply assembly 3, control system 30, water storage tank 31, pipeline 32, drain outlet 33. DETAILED DESCRIPTION
[0021] The present invention will be described in detail below with reference to the accompanying drawings and through examples. The following examples are intended to explain the present invention, but the present invention is not limited to the following examples.
[0022] See also Figure 1-4 The present embodiment relates to a quantitative water discharging mechanism for mineral water filling production, comprising a filling machine body formed by a frame 100 and a conveying assembly 1 for conveying bottles 110, and a filling assembly 2 for filling mineral water placed above the conveying assembly 1. The filling assembly 2 comprises a fixed frame 21 slidably arranged on the frame 100, a plurality of filling heads 22 arranged on the fixed frame 21, and a cylinder 23 driving the fixed frame 21 to slide up and down. The filling head 22 comprises a connecting rod 221 mounted on the fixed frame 21 and a connecting rod 221 having a tubular bottom and a The nozzle 222 of the water inlet 2221 and the adapter cylinder 223 are sleeved on the outside of the connecting rod 221 and the bottom nozzle 222 and connected by a compression spring 224 and slide up and down. The cylinder 223 is respectively provided with a slide groove 2231 for the sliding of the connecting rod 221 and the nozzle 222 and a water inlet channel provided below the slide groove 2231. The side wall of the cylinder 223 is provided with a second water inlet 2233 connected to the internal water inlet pipe 2232 and is connected to the multiple groups of drain outlets 33 provided at corresponding positions in the water supply component 3 provided on the frame 100 through a water pipe.
[0023] Specifically in this embodiment, Figure 1 As shown in the figure, the conveying component 1, the filling component 2 and the water supply component 3 on the frame 100 have corresponding structural settings and corresponding connection methods. The conveying component 1 can adopt the chain conveyor structure commonly used in conventional mineral water filling production lines, and the conveying process of the bottles 110 for batch mineral water filling is carried out through the chain plate conveyor 11 and the driving component 12 for driving the rotation provided thereon; the water supply component 3 can adopt the water supply system used on the filling machine in the filling process flow of the conventional mineral water filling production line, and the water storage tank 31 provided thereon is connected to the water pump and the drain outlet 33 through multiple groups of pipes 32 and under the control of the corresponding control system 30, the continuous water supply process of the filling head 22 is carried out. Specifically, when the bottles 110 of the corresponding batch on the conveying assembly 1 are transported to the bottom of the filling assembly 2 and the corresponding number of filling heads 22 are installed on the fixing frame 21, the cylinder 23 on the frame 100 can be driven to move the fixing frame 21 downward along the bottles 110 on the conveying assembly 1. Figure 2As shown, the fixing frame 21 can slide up and down along the sliding rod 101 provided on the corresponding position of the frame 100, so that under the push of the cylinder 23, as the fixing frame 21 drives the multiple groups of filling heads 22 thereon to move downward, the bottom position of the adapter cylinder 223 provided on the outer side of the connecting rod 221 is in advance in contact with and abuts against the top opening of the bottle body 110, and the fixing frame 21 can continue to move downward under the push of the cylinder 23, and then push the connecting rod 221 connected to the cylinder 223 by the compression spring 224 and the bottom nozzle 222 thereof to continue to move downward to a certain distance along the sliding groove 2231 opened in the corresponding cylinder 223 and the water inlet pipe 2232 below, so that the nozzle 222 can extend to a certain length along the top opening of the bottle body 110 into the interior of the bottle body 110. Figure 3 and Figure 4The specific structural arrangement of the connecting rod 221 on the filling head 22 and the corresponding nozzle 222 at its bottom is shown. The second water inlet 2233 on the cylinder 223 is connected to the multiple groups of drain ports 33 in the water supply assembly 3 through a water pipe and the corresponding water pipe material is set with a hose structure, thereby ensuring the synchronization and stability of the connecting rod 221 and the cylinder 223 in the filling head 22 on the fixed frame 21 during the movement. Specifically, the water inlet 2221 opened on the nozzle 222 arranged in a tubular shape is placed on the corresponding pipe body above the nozzle 222 and is connected to the nozzle 2222 arranged below. At the same time, when the connecting rod 221 drives the nozzle 222 to enter along the inside of the cylinder 223, the nozzle 222 is connected to the nozzle 2222 arranged below. During the downward movement of the water pipe 2232, the water inlet 2221 on the corresponding pipe body of the nozzle 222 can correspond to the second water inlet 2233 on the side wall of the cylinder 223 connected to the water inlet pipe 2232, so that the mineral water in the filling head 22 is supplied through the multiple groups of drain ports 33 in the water supply component 3 and the water pipes corresponding to the second water inlet 2233 on the side wall of the cylinder 223. The mineral water can flow downward along the second water inlet 2233 on the side wall of the cylinder 223 and the water inlet 2221 on the corresponding pipe body of the nozzle 222, and then pass through the nozzle 222 at the bottom of the corresponding nozzle 222 extending to the inside of the bottle body 110. The nozzle 2222 continuously sprays mineral water, thereby realizing the filling process of the mineral water in the bottle body 110. At the same time, the water pump in the water supply component 3 and its corresponding control system 30 can control the operation of the cylinder 23 and correspondingly push the fixing frame 21 and the filling head 22 thereon to move up and down, thereby realizing the corresponding control process of the mineral water discharge and closing through the filling head 22 during the filling process and the amount of mineral water filling in the bottle body 110 during the water discharge process. Then, after the filling is completed, the operation of the cylinder 23 can drive the fixing frame 21 and the filling head 22 thereon to move upward and return to the initial position. At the same time, when the filling head 22 is away from the conveying component 1, the filling head 22 is moved upward and back to the initial position. During the movement of multiple groups of bottle bodies 110 in the direction, the adapter cylinder 223 on the outside of the connecting rod 221 can move downward along the connecting rod 221 and return to its initial position under the action of the compression spring 224, and during the movement, the nozzle 222 at the bottom of the connecting rod 221 corresponds to the water inlet 2221 on the tube body and the nozzle 2222 at the bottom of the nozzle 222 is staggered with the second water inlet 2233 connected to the side wall of the cylinder 223 and the water inlet pipe 2232. At this time, the mineral water in the water pipe will not flow out through the nozzle 222, so as to complete the entire filling process and repeat the above filling process to realize the batch filling operation of multiple groups of batch bottles 110.The specific structural arrangement of the filling head 22 of the mechanism facilitates water discharge and shutoff, as well as quantitative control and adaptive adjustment of the water content. Furthermore, the barrel 223, under the action of the barrel 223, provides a certain degree of protection for the nozzle 222, which is arranged in an adaptive structure at the bottom of the connecting rod 221. This, on the one hand, further improves the structural stability of the nozzle 222, making it less likely to deform or even break. On the other hand, it effectively prevents the nozzle 222 from being exposed to the external filling environment during the filling process, thereby further improving the water quality and cleanliness of the mineral water in the bottle 110. Furthermore, the arrangement of the corresponding barrel 223, under the action of the compression spring 224, also provides a certain degree of pressure on the bottle 110 during filling, thereby effectively reducing the shaking or even positional displacement of the bottle 110 during the filling process. It also prevents external dust from entering the bottle 110 and effectively prevents the mineral water in the bottle 110 from splashing or leaking during the filling process, further improving the filling stability, efficiency, and corresponding filling efficiency.
[0024] The water inlet channel provided inside the cylinder 223 and the adapter nozzle 222 sliding on the bottom of the connecting rod 221 inside the water inlet channel extend downward and are provided with redundant length. Figure 2 or Figure 3 As can be seen in the figure, the redundant length of the water inlet channel in the cylinder 223 and the nozzle 222 at the bottom of the connecting rod 221 is set in a way that does not affect the wrapping of the nozzle 222 while facilitating the descent of the filling head 22, further improving the accuracy and speed of corresponding to the top opening position of the bottle body 110 and extending into the interior of the bottle body 110, and can be adapted for use with bottles 110 at different heights, and can further reduce the fluctuation amplitude of the mineral water inside the bottle body 110 during the filling process through the nozzle 222, thereby improving the stability of the filling process.
[0025] See also Figure 4-5The second mounting seat 242 is provided with a second adjusting member 2421 for fixing the second connecting rod 243. The second adjusting member 2421 on the cylinder 223 locks the second connecting rod 243, so that the second connecting rod 243 can slide in the corresponding direction along the first mounting seat 241 on the connecting rod 221 under the drive of the cylinder 223, and then the first adjusting member 2431 provided on one end of the first mounting seat 241 on the second connecting rod 243 can be rotated to perform the locking process of the corresponding length of the second connecting rod 243 between the first mounting seat 241 and the second mounting seat 242 (that is, the distance between the connecting rod 221 and the cylinder 223 in the natural state). The structural addition of the adjusting assembly 24 between the connecting rod 221 and the cylinder 223 can further improve the connection stability between the connecting rod 221 and the cylinder 223 and the stability of the connecting rod 221 and the cylinder 223 during relative sliding. At the same time, it can also ensure the stability and uniformity of the corresponding sliding distance when the connecting rod 221 and the cylinder 223 are connected by the compression spring 224, thereby improving the effect of the compression spring 224.
[0026] The second water inlet 2233 provided on the side wall of the cylinder 223 is provided with multiple groups and arranged up and down along the internal water inlet pipe 2232, and is connected to the corresponding multiple groups of drain outlets 33 in the water supply assembly 3 through multiple groups of water pipes. Figure 3As shown, this setting method can, on the one hand, drive the bottom nozzle 222 and the cylinder 223 to slide relative to each other through the connecting rod 221, and carry out the water filling process when the water inlet 2221 on the corresponding tube body of the nozzle 222 corresponds to the second water inlet 2233 at different positions. While ensuring that the compression spring 224 is within the maximum deformation range and does not affect the normal water discharge and closing process in the filling head 22, in conjunction with the adjustment component 24 through the second adjusting member 2421 on the second mounting seat 242 and the first adjusting member 2431 on the second connecting rod 243 to adjust the corresponding length of the second connecting rod 243, the nozzle 222 can be adjusted in the water inlet pipe 22 The elongation process at different lengths in 32 is used to carry out water discharge and filling at corresponding lengths, which can adapt to the filling process of bottles 110 of different heights and corresponding depths; on the other hand, the second drainage outlets 33 arranged in multiple groups on the side wall of the cylinder 223 also cooperate with the multiple groups of water inlets 2221 opened on the corresponding tube body of the nozzle 222 to carry out the synchronous water discharge process of the multiple groups of water inlets 2221, thereby further improving the fluidity of mineral water during the canning process, and when one of the groups of water inlets 2221 is blocked, a stable water discharge and filling process is carried out in time to replace it, thereby improving the working stability of this water discharge mechanism during the filling process and the flexibility of use of the corresponding filling component 2.
[0027] The second connecting rod 243 is also marked with a scale line 2432. The scale line 2432 on the second connecting rod 243 can be calibrated on the scale of the corresponding distance according to the specific sliding distance corresponding to the sliding connection between the connecting rod 221 and the cylinder 223. At the same time, the nozzle 222 at the bottom of the connecting rod 221 corresponds to the position setting between the water inlet 2221 on the tube body and the second water inlet 2233 connected to the side wall of the cylinder 223 and the water inlet channel. The corresponding distance is marked on the scale line 2432. Therefore, by adding the scale line 2432 on the second connecting rod 243, on the one hand, the normal flow of mineral water outflow and closing in the filling head 22 is not affected. On the premise of the process, it is convenient to cooperate with the first adjusting member 2431 and the second adjusting member 2421 on the second mounting seat 242 to adjust the corresponding sliding distance between the connecting rod 221 and the cylinder 223 and control the water outlet and closing process through the water inlet 2221 and the second water inlet 2233 to meet different usage requirements; on the other hand, the calibration method of the scale line 2432 on the second connecting rod 243 and the corresponding mark setting can facilitate daily inspection and subsequent maintenance operations, and facilitate the inspection and adjustment of the specific flow conditions of the mineral water corresponding to the water inlet 2221 and the second water inlet 2233 in the filling head 22, thereby improving operational convenience and efficiency.
[0028] The connecting rod 221 is slidably mounted on the fixing frame 21 and the locking member 2211 provided on the top thereof can be detachably mounted on the fixing frame 21. Figure 4 As shown, the filling head 22 can realize the sliding process on the fixing frame 21 through the through groove 211 provided on the corresponding position of the connecting rod 221 and the fixing frame 21, and can realize the detachable connection between the filling head 22 and the fixing frame 21 and the adjustment and locking process at the corresponding position of the slide groove 2231 by rotating the locking piece 2211 provided on the top of the connecting rod 221. Specifically, according to the use requirements and the specific specifications of the filling bottle body 110, the corresponding number of filling heads 22 on the fixing frame 21 can be installed and the spacing between multiple groups of filling heads 22 can be adjusted, thereby further improving the disassembly and usage flexibility of the filling component 2, and improving the applicability and practicality.
[0029] like Figure 5 As shown, the adjustment assembly 24 also includes a detection assembly 25, which includes a sensor 251 and a touch plate 252 respectively mounted on the first mounting seat 241 and the second mounting seat 242. Specifically, when the connecting rod 221 and the cylinder 223 slide relative to each other during the filling process, they respectively drive the sensor 251 and the touch plate 252 on the first mounting seat 241 and the second mounting seat 242 to move toward each other. Therefore, when the touch plate 252 moves into the detection range of the sensor 251, the sensor 251 can transmit a signal to the corresponding control system 30 in the water supply assembly 3, which can then control the flow of mineral water in the water storage tank 31 through the filling head 22. The additional structure of the detection assembly 25 can further improve the working stability of the filling head 22 during the filling process. In conjunction with the control system 30 in the water supply assembly 3, it can further improve the accuracy and efficiency of the control of the flow of mineral water. At the same time, it can also effectively improve the stability between the connecting rod 221 and the cylinder 223 during the sliding process, and appropriately extend the service life of the compression spring 224.
[0030] The contact surface between the bottom of the cylinder 223 and the top opening of the bottle 110 is provided with a groove 2234. Figure 2 or Figure 5 It can be seen that the structural setting of the groove 2234 on the contact surface corresponding to the bottom of the barrel 223 can play a certain position limiting role on the periphery of the top opening of the bottle body 110 when the barrel 223 contacts the bottle body 110, thereby further improving the connection effect between the barrel 223 and the bottle body 110, and further reducing the splashing and leakage of mineral water in the bottle body 110 during the filling process, as well as the phenomenon of affecting the filling stability due to excessive position deviation or even tipping of the bottle body 110, thereby improving the fixing stability and filling efficiency of the bottle body 110.
[0031] The above contents described in this specification are merely examples of the present invention. Those skilled in the art of the present invention may make various modifications, additions, or substitute similar methods to the specific embodiments described, as long as they do not deviate from the contents of this specification or exceed the scope defined by the claims, and shall fall within the scope of protection of the present invention.
Claims
1. A quantitative water discharging mechanism for mineral water filling production, comprising a filling machine body formed by a frame, a conveying assembly for conveying bottles, and a filling assembly for filling mineral water disposed above the conveying assembly, characterized in that: The filling assembly includes a fixed frame slidably arranged on the frame, multiple groups of filling heads arranged on the fixed frame, and a cylinder that drives the fixed frame to slide up and down. The filling head includes a connecting rod installed on the fixed frame and a nozzle with a tubular arrangement at the bottom of the connecting rod and a water inlet, and an adapter cylinder that is sleeved on the outside of the connecting rod and the bottom nozzle and connected by a compression spring and slides up and down. The interior of the cylinder is respectively provided with a slide groove for the sliding of the connecting rod and the nozzle and a water inlet channel provided below the slide groove. The side wall of the cylinder is provided with a second water inlet connected to the internal water inlet pipe and is connected to the multiple groups of drain outlets provided at corresponding positions in the water supply assembly provided on the frame through a water pipe.
2. The quantitative water discharging mechanism for mineral water filling production according to claim 1, characterized in that: The cylinder is provided with a water inlet channel and a connecting rod having a bottom that slides in the water inlet channel and an adaptor nozzle that extends downward and is provided with a redundant length.
3. The quantitative water discharging mechanism for mineral water filling production according to claim 1, characterized in that: The sliding connection between the connecting rod and the outer cylinder that slides up and down through a compression spring is also provided with an adjustment component. The adjustment component includes a first mounting seat and a second mounting seat respectively installed on the connecting rod and the outer wall of the cylinder. The second connecting rod is slidably provided on the first mounting seat and the second mounting seat. The second connecting rod is placed on one end rod body of the first mounting seat and is rotatably provided with a first adjusting piece. The second mounting seat is rotatably provided with a second adjusting piece for fixing the second connecting rod.
4. The quantitative water discharging mechanism for mineral water bottling production according to claim 3, characterized in that: The second water inlets opened on the side wall of the cylinder are provided with multiple groups and are arranged up and down along the internal water inlet pipe, and are connected to the corresponding multiple groups of drainage outlets in the water supply component through multiple groups of water pipes.
5. The quantitative water discharging mechanism for mineral water filling production according to claim 4, characterized in that: The second connecting rod is also marked with scale lines.
6. The quantitative water discharging mechanism for mineral water bottling production according to claim 1, characterized in that: The connecting rod is slidably arranged on the fixing frame and can be detachably mounted on the fixing frame by rotating a locking piece arranged on the top of the connecting rod.
7. The quantitative water discharging mechanism for mineral water bottling production according to claim 3, characterized in that: The adjustment component also includes a detection component, and the detection component includes a sensor and a touch panel respectively mounted on the first mounting seat and the second mounting seat.
8. The quantitative water discharging mechanism for mineral water bottling production according to claim 1, characterized in that: A groove is also provided on the contact surface between the bottom of the cylinder and the opening of the top of the bottle.