A glass water dispensing device

Abstract

The present application provides a kind of glass water dispensing device, including dispensing bottle shell and pipeline system, the pipeline system in the dispensing bottle shell, external water flow is mixed and diluted with glass water stock solution in the pipeline system in the dispensing bottle shell, becomes glass water flow export.In filling glass water stock solution, the product is taken along, only need to connect external water source can use, its body is small and exquisite, compared with the bottled glass water needing to store and store, more suitable for carrying in the vehicle of space shortage, after connecting external water source, can be used as a glass water flushing spray head, directly used for flushing vehicle to remove dirt.

Description

Technical Field

[0001] This invention relates to the field of automotive cleaning accessories technology, and in particular to a windshield washer fluid mixing device. Background Technology

[0002] Windshield washer fluid is the common name for automotive windshield cleaning fluid. It is a consumable item used in automobiles. High-quality automotive windshield washer fluid is mainly composed of water, alcohol, ethylene glycol, corrosion inhibitors, and various surfactants.

[0003] With the increasing number of cars owned per capita, the market demand for windshield washer fluid is also growing. Currently, most people still use bottled windshield washer fluid. As a consumable, bottled windshield washer fluid is frequently used, inconvenient to carry, and has high production, packaging, and transportation costs. The proportion of liquid in the bottle is often less than 10%, with the rest being purified water.

[0004] Another solution is the windshield washer fluid dispenser used in many car detailing and maintenance shops, such as the pressure-type windshield washer fluid dispenser shown in Chinese patent number CN209635883U. This type of equipment is convenient for dispensing windshield washer fluid, but its disadvantage is that its usage location is relatively fixed, making it unable to meet the needs of most private car users in a timely manner. Summary of the Invention

[0005] (a) Technical problems to be solved

[0006] The technical problem to be solved by the present invention is to provide a glass cleaner mixing device that is easy to use and carry.

[0007] (II) Technical Solution

[0008] To solve the above-mentioned technical problems, the present invention provides a glass cleaner mixing device, comprising:

[0009] The mixing bottle shell is divided into an upper shell and a lower shell, which are connected to each other to form an upper cavity of the mixing bottle. The upper shell includes a water inlet and an upper shell body, and the water inlet is connected to the upper shell body.

[0010] The lower housing includes a water outlet, a lower housing body, a first glass water receiving chamber, a second glass water receiving chamber, and a mixed liquid passage chamber. The water outlet is connected to the lower housing body. The first glass water receiving chamber, the second glass water receiving chamber, and the mixed liquid passage chamber are arranged side by side in the lower housing body along the water outlet direction. The first glass water receiving chamber and the second glass water receiving chamber each have a through hole communicating with the upper cavity of the mixing bottle.

[0011] The piping system includes a first windshield washer fluid pipe and a second windshield washer fluid pipe. One end of the first windshield washer fluid pipe is connected to a water inlet, and the other end is connected to the first windshield washer fluid reservoir. One end of the second windshield washer fluid pipe is connected to a water inlet, and the other end is connected to the second windshield washer fluid reservoir.

[0012] In the above technical solution, the water inlet is used to receive the water flow, and the water outlet is used to supply the water flow for discharge. In this process, the user first pours the two types of windshield washer fluid into the two windshield washer fluid receiving chambers respectively, and then connects the water flow for infusion. The first windshield washer fluid pipe and the second windshield washer fluid pipe connected to the water outlet divert the water flow into the first windshield washer fluid receiving chamber and the second windshield washer fluid receiving chamber. The windshield washer fluid solution, which has been initially mixed with the water flow, flows out from the through holes of the two windshield washer fluid receiving chambers. The mixture is further diluted and mixed in the chambers, and finally discharged along the water outlet. As long as there is enough windshield washer fluid in the two windshield washer fluid receiving chambers and tap water is available, the user can replenish the windshield washer fluid of the vehicle anytime and anywhere.

[0013] Furthermore, the lower housing includes a first baffle plate and a second baffle plate. The first baffle plate is installed at the position where the first windshield washer fluid receiving cavity communicates with the first windshield washer fluid pipe, and the second baffle plate is installed at the position where the second windshield washer fluid receiving cavity communicates with the second windshield washer fluid pipe.

[0014] Furthermore, the through hole on the first glass water receiving cavity is provided on the first baffle plate, and the through hole on the second glass water receiving cavity is provided on the second baffle plate.

[0015] Furthermore, the first windshield washer fluid pipe passes through the first baffle plate and connects to the first windshield washer fluid receiving cavity, and the second windshield washer fluid pipe passes through the second baffle plate and connects to the second windshield washer fluid receiving cavity.

[0016] In the above technical solution, the first baffle and the second baffle restrict the first glass water pipe and the second glass water pipe. At the same time, due to the position of the baffle, the initially mixed glass water solution needs to flow out in the opposite direction to the internal flow direction through the through hole transferred to the baffle, thus making the mixture more uniform. After flowing out, the glass water solution also needs to enter the upper part of the upper cavity of the mixing bottle before reaching the mixed liquid passage cavity. This process generates further dilution and mixing, making the water and the liquid in the outflowing glass water more uniformly mixed.

[0017] Furthermore, the first glass water pipe includes a first upper water supply pipe, a first lower water supply pipe and a first injection port. One end of the first upper water supply pipe is connected to the injection port and the other end is connected to the first injection port. One end of the first lower water supply pipe is connected to the first injection port and the other end is connected to the first glass water receiving cavity.

[0018] The second glass water pipe includes a second upper water supply pipe, a second lower water supply pipe, and a second inlet. One end of the second upper water supply pipe is connected to the inlet, and the other end is connected to the second inlet. One end of the second lower water supply pipe is connected to the second inlet, and the other end is connected to the second glass water receiving cavity.

[0019] Furthermore, the ends of the first and second injection ports used for injection pass through the upper housing body and are connected to the outside.

[0020] Furthermore, the first windshield washer fluid conduit includes a first filling plug, which is closably installed at the first filling port; the second windshield washer fluid conduit includes a second filling plug, which is closably installed at the second filling port.

[0021] In the above technical solution, each glass water pipe is divided into an upper water supply pipe, a lower water supply pipe, and a filling port. The upper water supply pipe is used to connect to the filling port, and the lower water supply pipe is used to connect to the glass water receiving cavity. The two are connected by a T-shaped pipe filling port, which allows the glass water liquid to be poured into the glass water receiving cavity. A part of the filling port passes through the upper housing body, so that the user can complete the liquid injection without opening the housing. The filling plug prevents the liquid from flowing back.

[0022] Furthermore, the piping system includes a diverter, and the first glass water pipe and the second glass water pipe are connected to the water inlet via the diverter.

[0023] In the above technical solution, the diverter serves to help divert water and fix the upper water supply pipe.

[0024] Furthermore, the mixing bottle housing includes a water injection external device, which is connected to the water injection port and has a threaded hole.

[0025] In the above technical solution, the external water injection device is used to connect to an external water pipe. The threaded device allows the water pipe to be connected more tightly to the external water injection device, thereby continuously producing glass cleaner.

[0026] (III) Beneficial Effects

[0027] The glass cleaner mixing device of the present invention has the following advantages.

[0028] The glass cleaner mixing device of the present invention can be carried around after being filled with high-concentration glass cleaner solution, and can be used simply by connecting to an external water source.

[0029] The windshield washer fluid mixing device of the present invention is compact in size and more suitable for carrying in vehicles with limited space compared to bottled windshield washer fluid that needs to be stored.

[0030] The windshield washer fluid mixing device of the present invention, when connected to an external water source, can be used as a windshield washer fluid spray nozzle for directly washing the vehicle body to remove dirt. Attached Figure Description

[0031] Figure 1 This is a schematic diagram of the overall structure of the glass water mixing device of the present invention;

[0032] Figure 2 This is a schematic diagram of the glass cleaner mixing device of the present invention with the upper housing portion removed;

[0033] Figure 3 This is a cross-sectional view of the glass water mixing device of the present invention;

[0034] Figure 4 This is a schematic diagram of the piping system of the glass water mixing device of the present invention;

[0035] Wherein: 11 is the upper shell; 111 is the water inlet; 112 is the upper shell body; 113 is the first recess; 114 is the second recess; 12 is the lower shell; 121 is the lower shell outlet; 122 is the lower shell body; 123 is the first glass water receiving chamber; 124 is the second glass water receiving chamber; 125 is the mixed liquid passage chamber; 126 is the first baffle; 1261 is the first baffle panel; 1262 is the first baffle outlet; 1263 is the first water pipe mounting port; 1264 is the first distributor mounting port; 127 is the second baffle; 1271 is the second baffle panel; 1272 is the second baffle outlet; 1 273 is the second water pipe installation port; 1274 is the second distributor installation port; 13 is the upper cavity of the mixing bottle; 14 is the external water injection device; 141 is the threaded external pipe; 142 is the external retaining ring; 2 is the piping system; 21 is the first glass water pipe; 211 is the first upper water supply pipe; 212 is the first lower water supply pipe; 213 is the first filling port; 214 is the first filling plug; 22 is the second glass water pipe; 221 is the second upper water supply pipe; 222 is the second lower water supply pipe; 223 is the second filling port; 224 is the second filling plug; 23 is the distributor; 231 is the distributor head; 232 is the distributor frame; 233 is the first distributor port; 234 is the second distributor port. Detailed Implementation

[0036] The specific embodiments of the present invention will be described in further detail below with reference to the accompanying drawings and examples. The following examples are for illustrative purposes only; however, they are not intended to limit the scope of the invention. Example 1:

[0037] The overall structure of the glass water mixing device of the present invention is as follows: Figure 1 and Figure 4 As shown, it includes a mixing bottle housing and a piping system 2. The piping system 2 is located in the mixing bottle housing. External water flows through the piping system 2 and mixes and dilutes with the glass water solution inside the mixing bottle housing to become glass water that flows out.

[0038] like Figure 1 As shown, the mixing bottle shell is divided into an upper shell 11 and a lower shell 12. The upper shell 11 and the lower shell 12 are connected to each other to form an upper cavity 13 of the mixing bottle. The upper shell 11 includes a water inlet 111 and an upper shell body 112. The water inlet 111 is a cylindrical water pipe connected to the upper shell body 112. The lower shell 12 includes a water outlet 121 and a lower shell body 122. The lower shell body 122 is connected to the upper shell body 112 and the water outlet 121, respectively.

[0039] Furthermore, the lower housing 12 includes a first glass cleaner containing cavity 123, a second glass cleaner containing cavity 124, and a mixture passage cavity 125. The first glass cleaner containing cavity 123, the second glass cleaner containing cavity 124, and the mixture passage cavity 125 are arranged side by side in the lower housing body 122 along the water outlet direction. The first glass cleaner containing cavity 123 and the second glass cleaner containing cavity 124 each have a through hole communicating with the upper cavity 13 of the mixing bottle. The upper cavity of the mixing bottle and the water outlet 121 communicate with the mixture passage cavity 125.

[0040] like Figure 2 As shown in the figure, the lower housing 2 includes a first baffle plate 126 and a second baffle plate 127. The first baffle plate 126 is installed in the first glass water receiving cavity 123 in the direction of the water inlet 111, and the second baffle plate 127 is installed in the second glass water receiving cavity 124 in the direction of the water inlet 111.

[0041] Furthermore, the first baffle 126 includes a first baffle panel 1261, a first baffle outlet 1262, and a first water pipe mounting port 1263. The first baffle outlet 1262 and the first water pipe mounting port 1263 are disposed on the first baffle panel 1261. The first baffle panel 1261 is used to block the first glass water receiving cavity 123, so that the first glass water receiving cavity 123 can only communicate with the upper cavity 13 of the mixing bottle through the first baffle outlet 1262. The first water pipe mounting port 1263 is used to cooperate with the pipeline system 2 to inject water into the first glass water receiving cavity 123.

[0042] The second baffle 127 includes a second baffle panel 1271, a second baffle outlet 1272, and a second water pipe mounting port 1273. The second baffle outlet 1272 and the first water pipe mounting port 1273 are disposed on the second baffle panel 1271. The second baffle panel 1271 is used to block the second glass water receiving cavity 124, so that the second glass water receiving cavity 124 can only communicate with the upper cavity 13 of the mixing bottle through the second baffle outlet 1272. The second water pipe mounting port 1273 is used to cooperate with the pipeline system 2 to inject water into the second glass water receiving cavity 124.

[0043] like Figure 3 and Figure 4 As shown in the figure, the piping system 2 includes a first glass water pipe 21 and a second glass water pipe 22. One end of the first glass water pipe 21 is connected to the water inlet 111, and the other end is connected to the first glass water receiving cavity 123 through the first baffle 126. One end of the second glass water pipe 22 is connected to the water inlet 111, and the other end is connected to the second glass water receiving cavity 124 through the second baffle 127.

[0044] The first glass cleaner pipe 21 includes a first upper water supply pipe 211, a first lower water supply pipe 212, and a first inlet 213. The first upper water supply pipe 211 is shorter and is used to connect to the inlet 111. The first lower water supply pipe 212 is longer and is used to connect to the first glass cleaner container 123. The first upper water supply pipe 211 and the first lower water supply pipe 212 are connected to the first inlet 213. The first inlet 213 is a T-shaped right-angle three-way pipe. The horizontal channel is connected to the first upper water supply pipe 211, and the vertical channel, which is the water outlet direction, is connected to the first lower water supply pipe 212, so that the glass cleaner liquid can be poured into the first glass cleaner container 123 through the first inlet 213.

[0045] The second glass cleaner pipe 22 includes a second upper water supply pipe 221, a second lower water supply pipe 222, and a second inlet 223. The second upper water supply pipe 221 is shorter and is used to connect to the water inlet 111. The second lower water supply pipe 222 is longer and is used to connect to the second glass cleaner reservoir 124. The second upper water supply pipe 221 and the second lower water supply pipe 222 are connected to the second lower inlet 223. The second lower inlet 223 is a T-shaped right-angle three-way pipe. The horizontal channel is connected to the second upper water supply pipe 221, and the vertical channel, which is the water outlet direction, is connected to the second lower water supply pipe 222, so that the glass cleaner can be poured into the second glass cleaner reservoir 124 through the second inlet 223.

[0046] It is worth mentioning that the ends of the first lower water supply pipe 212 and the second lower water supply pipe 222 extend to the bottom of the cavity of each glass water receiving chamber, so as to more fully mix the water and the glass water material.

[0047] Furthermore, the first windshield washer fluid conduit 21 includes a first filling plug 214, which is closably installed in the first filling port 213. The second windshield washer fluid conduit 22 includes a second filling plug 224, which is closably installed in the second filling port 223, for preventing backflow of the fluid after filling.

[0048] Furthermore, the first injection port 213 and the second injection port 223 have their injection ends passing through the upper housing body 112 and communicating with the outside, so that the user can inject glass cleaner without opening the housing; the upper housing 11 includes a first recess 113 and a second recess 114, which are disposed on the upper housing body 112, and the first recess 113 and the second recess 114 are used to provide corresponding space for the user to operate the injection nozzle.

[0049] like Figure 3 and Figure 4As shown, the pipeline system 2 includes a diverter 23, which includes a diverter head 231, a diverter frame 232, a first diverter head 233, and a second diverter head 234. The diverter head 231 is connected to the diverter frame 232, and the first diverter head 233 and the second diverter head 234 are disposed in the diverter frame 23. The first upper water supply pipe 211 and the second upper water supply pipe 221 are respectively connected to the first diverter head 233 and the second diverter head 234. The diverter frame 232 is approximately a table-shaped structure with four legs, and its supporting legs are respectively installed on the first baffle plate 126 and the second baffle plate 127. The first baffle plate 126 and the second baffle plate 127 each have two first diverter mounting ports 1273 and two diverter mounting ports 1274 to correspondingly install the four supporting frames of the diverter frame 232.

[0050] It is worth mentioning that the diverter head 231 is provided with four through holes, two of which are connected to the first diverter head 233 and the second diverter head 234 respectively, and the remaining two through holes are connected to the upper cavity 13 of the mixing bottle. The diverter head 231 not only plays the role of diverting the flow, but also limits the flow rate of water so as not to be too large and cause the glass cleaner to be too diluted. The water outlet of multiple through holes can also break up the water flow and help the glass cleaner solution mix.

[0051] More notably, the mixing bottle housing includes a water injection external device 14, which includes a threaded external pipe 141 and an external retaining ring 142. The threaded external pipe 141 is installed on the water injection port 111, and the external retaining ring 142 is screwed into the threaded external pipe 141 and fits against the water injection port 111. This design allows the product to be sealed and connected to an external water pipe for water filling.

[0052] When this product is in operation, water flows into the water inlet 111 through the sealed and connected external water inlet device 14. The water is then divided by the first glass water pipe 21 and the second glass water pipe 22 into their respective glass water receiving chambers, where it is initially mixed with the liquid inside. Then, it flows out through the first baffle outlet 1262 and the second baffle outlet 1272. The two initially mixed glass water solutions are mixed and diluted again with the water in the upper cavity 13 of the mixing bottle, and then flow out from the outlet 121 through the mixed liquid passage cavity 125. This inverted U-shaped flow channel of the two glass water solutions is precisely for the purpose of fully and evenly mixing with the water. Example 2

[0053] This embodiment is basically the same in structure as Embodiment 1, the only difference being:

[0054] Inside the upper cavity 13 of the mixing bottle, a grid-like barrier is provided at the connection between the mixture and the cavity 125 to further break up the water flow and help the two glass aqueous solutions mix and dilute more thoroughly.

[0055] The above description is only a preferred embodiment of the present invention. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the technical principles of the present invention, and these improvements and modifications should also be considered within the scope of protection of the present invention.

Claims

1. A windshield washer fluid mixing device, comprising: The mixing bottle shell is divided into an upper shell (11) and a lower shell (12). The upper shell (11) and the lower shell (12) are connected to each other to form an upper cavity (13) of the mixing bottle. The upper shell (11) includes a water inlet (111) and an upper shell body (112). The water inlet (111) is connected to the upper shell body (112). The lower housing (12) includes a water outlet (121), a lower housing body (122), a first glass water receiving chamber (123), a second glass water receiving chamber (124), and a mixed liquid passage chamber (125). The water outlet (121) is connected to the lower housing body (122). The first glass water receiving chamber (123), the second glass water receiving chamber (124), and the mixed liquid passage chamber (125) are arranged side by side in the lower housing body (122) along the water outlet direction. The first glass water receiving chamber (123) and the second glass water receiving chamber (124) each have a through hole communicating with the upper cavity (13) of the mixing bottle. The piping system (2) includes a first glass water pipe (21) and a second glass water pipe (22). One end of the first glass water pipe (21) is connected to the water inlet (111), and the other end is connected to the first glass water container (123). One end of the second glass water pipe (22) is connected to the water inlet (111), and the other end is connected to the second glass water container (124). The piping system (2) includes a distributor (23). The distributor (23) includes a distributor head (231). The distributor head (231) has four through holes, two of which are connected to the upper cavity (13) of the mixing bottle. The first glass water pipe (21) and the second glass water pipe (22) are connected to the water inlet (111) by connecting the distributor (23). The lower housing includes a first baffle plate (126) and a second baffle plate (127). The first baffle plate (126) is installed at a position where the first glass water receiving cavity (123) communicates with the first glass water pipe (21). The second baffle plate (127) is installed at a position where the second glass water receiving cavity (124) communicates with the second glass water pipe (22). The through hole on the first glass water receiving cavity (123) is provided on the first baffle plate (126), and the through hole on the second glass water receiving cavity (124) is provided on the second baffle plate (127).

2. The glass cleaner mixing device as described in claim 1, characterized in that, The first glass water pipe (21) passes through the first baffle (126) and connects to the first glass water container (123), and the second glass water pipe (22) passes through the second baffle (127) and connects to the second glass water container (124).

3. The glass cleaner mixing device as described in claim 1, characterized in that, The first glass water pipe (21) includes a first upper water supply pipe (211), a first lower water supply pipe (212) and a first injection port (213). One end of the first upper water supply pipe (211) is connected to the water injection port (111), and the other end is connected to the first injection port (213). One end of the first lower water supply pipe (212) is connected to the first injection port (213), and the other end of the first lower water supply pipe (212) is connected to the first glass water receiving cavity (123). The second glass water pipe (22) includes a second upper water supply pipe (221), a second lower water supply pipe (222), and a second injection port (223). One end of the second upper water supply pipe (221) is connected to the water injection port (111), and the other end is connected to the second injection port (223). One end of the second lower water supply pipe (222) is connected to the second injection port (223), and the other end of the second lower water supply pipe (222) is connected to the second glass water receiving cavity (124).

4. The glass cleaner mixing device as described in claim 3, characterized in that, The first injection port (213) and the second injection port (223) are used for injection, with one end passing through the upper housing body (112) and communicating with the outside.

5. The glass cleaner mixing device as described in claim 4, characterized in that, The first glass water pipe (21) includes a first filling plug (214), which is closably installed on the first filling port (213). The second glass water pipe (22) includes a second filler plug (224), which is closable and installed in the second filler port (223).

6. The glass cleaner mixing device as described in claim 1, characterized in that, The mixing bottle housing includes a water injection external device (14), which is connected to the water injection port (111).

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