Quick sealing water passing coupler and tea bar machine

Abstract

The utility model discloses a quick sealing water passing coupler and a tea bar machine. The coupler structurally comprises a movable coupler and a coupler base which are detachably connected, the movable coupler comprises an upper water inlet sleeve, an upper sealing column is slidably arranged in the water inlet sleeve, the upper portion of the upper sealing column penetrates through a water outlet to be provided with an upper sealing ring, an upper reset spring is arranged on the upper sealing column in a matched mode to force the upper sealing ring to close the water outlet, and upper water passing flow channels are evenly machined in the peripheral face of the upper sealing column. The coupler base comprises a lower water inlet sleeve, the lower portion of the lower water inlet sleeve is positioned through a positioning sleeve, a flow guide opening is formed in the middle of an inner cavity of the lower water inlet sleeve, a lower sealing column is slidably installed in the lower water inlet sleeve, a lower reset spring is arranged on the upper portion of the lower sealing column, and a lower sealing ring is installed on the lower portion of the lower sealing column. Lower water flowing channels are uniformly processed on the peripheral surface of the lower sealing column; the coupler is simple in structure and reasonable in design, water flow adopts a multi-channel water feeding mode, water pressure is effectively dispersed, and the water feeding speed is increased.

Description

Technical Field

[0001] The utility model relates to a quick-sealing water-passing coupler and a tea bar machine. Background Art

[0002] In the prior art, couplers are widely used. For example, electric kettles, electric hot pots, electric coffee pots, etc., which are closely related to our lives, are usually electrically connected by setting couplers. For example, a tea bar machine with a heating function is usually provided with a lower connector that is coupled with an upper connector set on the electric kettle to boil water. In order to improve the convenience of using appliances such as kettles, a water supply device is arranged on the coupler to guide liquid into the kettle body. The water supply device includes an upper water inlet assembly arranged in the upper connector and a lower water inlet assembly arranged in the lower connector. As the upper connector is plugged in and disconnected from the lower connector, the upper water inlet assembly and the lower water inlet assembly are connected and disconnected. In the existing lower water inlet coupler structure, the upper valve core and the lower valve core are mainly moved by spring reset to realize the connection and disconnection of the upper water inlet sleeve and the lower water inlet sleeve. The elastic force and force direction of the two springs are difficult to control and are greatly affected by the water flow force. The spring is prone to twisting and bending, resulting in elastic force failure, which will not only cause the seal between the valve core and the sleeve to be loose and cause water leakage, but also affect the normal water inlet of the electric kettle and reduce the user experience. Utility Model Content

[0003] In view of the shortcomings existing in the above problems, the utility model provides a quick-sealing water-passing coupler and a tea bar machine.

[0004] To achieve the above object, the utility model provides a quick-sealed water-passing coupler, comprising a mobile coupler and a coupler base, wherein the mobile coupler is fixedly arranged at the bottom of a water receiving container, the coupler base is installed on a storage platform, and the mobile coupler is detachably connected to the coupler base;

[0005] The mobile coupler comprises an upper water inlet sleeve, the lower part of the upper water inlet sleeve is open and the upper center is processed to form a water outlet to communicate with the inner cavity of the water receiving container, an upper sealing column is slidably installed in the upper water inlet sleeve, the upper part of the upper sealing column passes through the water outlet and is processed with an annular sealing groove I, an upper sealing ring is installed in the annular sealing groove I, an upper return spring is matched on the upper sealing column, the upper return spring forces the upper sealing ring to abut against the top of the upper water inlet sleeve to close the water outlet, and an axial water flow channel is processed below the annular sealing groove I and on the outer peripheral surface of the upper sealing column to penetrate to the bottom of the upper sealing column;

[0006] The coupler base includes a lower water inlet sleeve provided on the upper part of the placement platform. The lower part of the lower water inlet sleeve passes through the placement platform and is connected and positioned with a lower positioning sleeve. The middle part of the inner cavity of the lower water inlet sleeve contracts to form a diversion port, which divides the inner cavity of the lower water inlet sleeve into a lower chamber and an upper chamber. A lower sealing column is slidably installed in the lower water inlet sleeve. The upper part of the lower sealing column is placed in the upper chamber and is provided with a lower return spring. The lower part of the lower sealing column is placed in the lower chamber and the end is processed with an annular sealing groove. A lower sealing ring is installed in the annular sealing groove. The lower return spring forces the lower sealing ring to abut against the top wall of the lower chamber to close the diversion port. An inlet connection sleeve is fixedly installed in the lower positioning sleeve and is communicated with the lower chamber. An axial lower water flow channel is processed on the outer peripheral surface of the lower sealing column above the annular sealing groove to the top of the lower sealing column.

[0007] As a further improvement of the present invention, a circumferential convex edge extends radially in the middle of the outer periphery of the lower water inlet sleeve, and the lower part of the circumferential convex edge abuts against the placement platform. A sealing ring is provided between the circumferential convex edge and the placement platform. A groove extends radially at the lower opening of the upper water inlet sleeve, and the shape of the groove matches that of the circumferential convex edge.

[0008] As a further improvement of the present invention, an integrated guide sleeve is provided in the middle of the upper sealing column to form a sliding fit with the upper water inlet sleeve. An upper return spring is provided on the upper sealing column above the guide sleeve.

[0009] As a further improvement of the present invention, the upper water flow channels are evenly arranged along the circumferential direction of the upper sealing column, and the lower water flow channels are evenly arranged along the circumferential direction of the lower sealing column. After the upper sealing column and the lower sealing column are connected, the upper water flow channels and the lower water flow channels are communicated.

[0010] As a further improvement of the present invention, the upper part of the upper sealing column has a two-stage stepped shaft structure and the connection is transitioned through an inclined surface.

[0011] As a further improvement of the present invention, the outer diameter of the upper part of the lower water inlet sleeve matches the inner diameter of the upper water inlet sleeve. A sealing ring Ⅰ is embedded and installed on the outer peripheral surface of the upper part of the lower water inlet sleeve, and two groups of the sealing ring Ⅰ are provided along the axial direction of the lower water inlet sleeve.

[0012] As a further improvement of the present invention, the lower sealing column has a conical structure with a diameter gradually decreasing from top to bottom.

[0013] As a further improvement of the present invention, a circumferential convex edge Ⅰ extends radially at the upper end of the lower sealing column, and the lower return spring is provided on the lower sealing column below the circumferential convex edge Ⅰ.

[0014] As a further improvement of the present utility model, the elastic force of the upper return spring is greater than that of the lower return spring.

[0015] The present utility model also provides a tea bar machine, including the quick-sealing water-passing coupler described in any one of the above.

[0016] The beneficial effects of the present utility model are as follows:

[0017] 1. The coupler has a simple structure and reasonable design. The lower water flow channels are evenly processed on the outer peripheral surface of the lower sealing column, and the upper water flow channels are evenly processed on the outer peripheral surface of the upper sealing column. The water flow adopts a multi-channel water supply method, which effectively disperses the water pressure and improves the water supply speed.

[0018] 2. On the basis of the bidirectional pressing of the upper sealing column and the lower sealing column, a guide sleeve is added outside the upper sealing column, and the upper sealing column is pressed by the lower water inlet sleeve, forming a multiple guide and positioning structure while controlling the stroke of the upper sealing column. The upper sealing column is mainly supported by the lower water inlet sleeve, avoiding the distortion and bending of the spring caused by the influence of water flow and resulting in the failure of the elastic force. The connection structure is more stable and it is not easy to leak water. Description of the Drawings

[0019] Figure 1 It is a working state connection structure diagram of a quick-sealing water-passing coupler of the present utility model;

[0020] Figure 2 It is a non-working state schematic diagram of a quick-sealing water-passing coupler of the present utility model;

[0021] Figure 3 It is a three-dimensional structure diagram of the lower sealing column 4;

[0022] Figure 4 It is a three-dimensional structure diagram of the upper sealing column 5.

[0023] In the figure: 1, water inlet connecting sleeve; 2, lower positioning sleeve; 3, lower water inlet sleeve; 31, lower chamber; 32, diversion port; 33, upper chamber; 34, sealing ring; 35, annular convex edge; 36, sealing ring I; 4, lower sealing column; 41, annular convex edge I; 42, lower return spring; 43, annular sealing groove; 44, lower sealing ring; 45, lower water flow channel; 5, upper sealing column; 51, guide sleeve; 52, upper return spring; 53, inclined surface; 54, annular sealing groove I; 55, upper sealing ring; 56, upper water flow channel; 6, upper water inlet sleeve; 61, water outlet; 62, groove; 7, water receiving container; 8, placing platform. Detailed Embodiments

[0024] A quick-sealing water-passing coupler and a tea bar machine according to the present utility model are as Figure 1As shown, the coupler structure includes a movable coupler and a coupler base. The movable coupler is fixedly arranged at the bottom of the water receiving container 7, and the coupler base is installed on the placement platform 8. The movable coupler and the coupler base are detachably connected;

[0025] The movable coupler includes an upper water inlet sleeve 6. The lower part of the upper water inlet sleeve 6 is open, and a water outlet 61 is formed at the center of the upper part and communicated with the inner cavity of the water receiving container 7. An upper sealing column 5 is slidably installed in the upper water inlet sleeve 6. The upper part of the upper sealing column 5 passes through the water outlet 61 and a circular sealing groove I 54 is machined. An upper sealing ring 55 is installed in the circular sealing groove I 54. The upper part of the upper sealing column 5 is of a two-stage stepped shaft structure and the connection is transitioned through an inclined surface 53. An upper return spring 52 is arranged in cooperation with the upper sealing column 5. A guide sleeve 51 is integrally arranged in the middle of the upper sealing column 5 and forms a sliding fit with the upper water inlet sleeve 6. An upper return spring 52 is arranged above the guide sleeve 51 and on the upper sealing column 5. The upper return spring 52 forces the upper sealing ring 55 to abut against the top of the upper water inlet sleeve 6 to close the water outlet 61. An upper water flow channel 56 is axially machined on the outer peripheral surface of the upper sealing column 5 below the circular sealing groove I 54 and penetrates to the bottom of the upper sealing column 5 (see Figure 4 );

[0026] The coupler base includes a lower water inlet sleeve 3 arranged on the upper part of the placement platform 8. The outer diameter of the upper part of the lower water inlet sleeve 3 matches the inner diameter of the upper water inlet sleeve 6. Two groups of sealing rings I 36 are embedded on the outer peripheral surface of the upper part of the lower water inlet sleeve 3 along the axial direction of the lower water inlet sleeve 3. The lower part of the lower water inlet sleeve 3 passes through the placement platform 8 and is connected and positioned with a lower positioning sleeve 2. The middle part of the inner cavity of the lower water inlet sleeve 3 contracts to form a diversion port 32. The diversion port 32 divides the inner cavity of the lower water inlet sleeve 3 into a lower chamber 31 and an upper chamber 33. A lower sealing column 4 is slidably installed in the lower water inlet sleeve 3. The lower sealing column 4 is of a conical structure with a gradually decreasing diameter from top to bottom. The upper part of the lower sealing column 4 is placed in the upper chamber 33 and a lower return spring 42 is arranged. The upper end of the lower sealing column 4 radially extends to form a circular convex edge I 41. A lower return spring 42 is arranged below the circular convex edge I 41 and on the lower sealing column 4. The elastic force of the upper return spring 52 is greater than that of the lower return spring 42. The lower part of the lower sealing column 4 is placed in the lower chamber 31 and the end is machined with a circular sealing groove 43. A lower sealing ring 44 is installed in the circular sealing groove 43. The lower return spring 42 forces the lower sealing ring 44 to abut against the top wall of the lower chamber 31 to close the diversion port 32. An inlet connection sleeve 1 is fixedly arranged in the lower positioning sleeve 2 and is communicated with the lower chamber 31. A lower water flow channel 45 is axially machined on the outer peripheral surface of the lower sealing column 4 above the circular sealing groove 43 to the top of the lower sealing column 4 (see Figure 3) The upper water flow channels 56 are evenly arranged along the circumferential direction of the upper sealing column 5, and the lower water flow channels 45 are evenly arranged along the circumferential direction of the lower sealing column 4. After the upper sealing column 5 and the lower sealing column 4 are joined, the upper water flow channels 56 and the lower water flow channels 45 are connected and communicated. In the middle of the outer circumference of the lower water inlet sleeve 3, a circular convex edge 35 extends radially. The lower part of the circular convex edge 35 abuts against the placing platform 8. A sealing ring 34 is provided between the circular convex edge 35 and the placing platform 8. At the lower opening of the upper water inlet sleeve 6, a groove 62 extends radially. The shape of the groove 62 matches that of the circular convex edge 35.

[0027] The tea bar machine includes the quick-sealing water passing coupler described above.

[0028] The coupler has a simple structure and reasonable design. The lower water flow channels are evenly machined on the outer peripheral surface of the lower sealing column, and the upper water flow channels are evenly machined on the outer peripheral surface of the upper sealing column. The water flow adopts a multi-channel water supply method, which effectively disperses the water pressure and improves the water supply speed. On the basis of the bidirectional top pressure of the upper sealing column and the lower sealing column, a guide sleeve is additionally provided outside the upper sealing column to cooperate with the lower water inlet sleeve to top-press the upper sealing column. While controlling the stroke of the upper sealing column, a multiple guiding and positioning structure is formed. The upper sealing column is mainly supported by the lower water inlet sleeve, avoiding the spring from being distorted and bent under the influence of water flow and causing the failure of the elastic force. The connection structure is more stable and it is not easy to leak water.

[0029] During specific use, for the convenience of understanding the present invention, it is described in conjunction with the accompanying drawings;

[0030] During use, the moving coupler at the bottom of the water receiving container is placed on the coupler base of the placing platform. The lower water inlet sleeve extends into the upper water inlet sleeve, and at the same time, the lower part of the upper sealing column extends into the lower water inlet sleeve. Since the elastic force of the upper return spring is greater than that of the lower return spring, the upper sealing column presses down the lower sealing column until the lower part of the guide sleeve outside the upper sealing column abuts against the lower water inlet sleeve. The lower sealing column slides down relative to the lower water inlet sleeve, and the lower sealing ring disengages from the diversion port, and the diversion port opens. The lower water inlet sleeve jacks up the guide sleeve and the upper sealing column until the circular convex edge in the middle of the lower water inlet sleeve fits into the groove at the lower opening of the upper water inlet sleeve, and the upper sealing ring disengages from the water outlet, and the water outlet opens; inside the coupler, the water inlet connecting sleeve - the lower chamber in the lower water inlet sleeve, the diversion port, the upper chamber - the lower diversion channel on the lower sealing column - the upper diversion channel on the upper sealing column - the water outlet at the upper part of the upper water inlet sleeve are sequentially conducted. The lower end of the water inlet connecting sleeve is connected to the water inlet pipe. The water flow enters the lower chamber along the water inlet connecting sleeve, then is dispersed on the lower diversion channel on the lower sealing column and enters the water receiving container through the water outlet along the upper diversion channel on the upper sealing column; after receiving water, the water receiving container is removed, the lower water inlet sleeve withdraws from the upper water inlet sleeve, and the upper sealing column and the lower sealing column are reset by the upper return spring and the lower return spring respectively, and the diversion port and the water outlet are automatically closed respectively.

[0031] The above are only the preferred embodiments of the present utility model and are not intended to limit the present utility model. For those skilled in the art, various modifications and variations can be made to the present utility model. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present utility model shall be included within the protection scope of the present utility model.

Claims

1. A quick-sealing water-passing coupler, characterized in that: It includes a mobile coupler and a coupler base. The mobile coupler is fixedly installed at the bottom of the water receiving container (7), and the coupler base is installed on the placement platform (8). The mobile coupler is detachably connected to the coupler base; The mobile coupler includes an upper water inlet sleeve (6). The lower part of the upper water inlet sleeve (6) is open, and a water outlet (61) is formed at the center of the upper part and communicates with the inner cavity of the water receiving container (7). An upper sealing column (5) is slidably installed in the upper water inlet sleeve (6). The upper part of the upper sealing column (5) passes through the water outlet (61) and an annular sealing groove I (54) is machined. An upper sealing ring (55) is installed in the annular sealing groove I (54). An upper return spring (52) is arranged on the upper sealing column (5). The upper return spring (52) forces the upper sealing ring (55) to abut against the top of the upper water inlet sleeve (6) to close the water outlet (61). Below the annular sealing groove I (54), an upper water flow channel (56) is axially machined on the outer peripheral surface of the upper sealing column (5) and penetrates to the bottom of the upper sealing column (5); The coupler base includes a lower water inlet sleeve (3) arranged on the upper part of the placement platform (8). The lower part of the lower water inlet sleeve (3) passes through the placement platform (8) and is connected and positioned with a lower positioning sleeve (2). The middle part of the inner cavity of the lower water inlet sleeve (3) contracts to form a diversion port (32). The diversion port (32) divides the inner cavity of the lower water inlet sleeve (3) into a lower chamber (31) and an upper chamber (33). A lower sealing column (4) is slidably installed in the lower water inlet sleeve (3). The upper part of the lower sealing column (4) is placed in the upper chamber (33) and a lower return spring (42) is provided. The lower part of the lower sealing column (4) is placed in the lower chamber (31) and an annular sealing groove (43) is machined at the end. A lower sealing ring (44) is installed in the annular sealing groove (43). The lower return spring (42) forces the lower sealing ring (44) to abut against the top wall of the lower chamber (31) to close the diversion port (32). An inlet connection sleeve (1) is fixedly installed in the lower positioning sleeve (2) and communicates with the lower chamber (31). An lower water flow channel (45) is axially machined on the outer peripheral surface of the lower sealing column (4) above the annular sealing groove (43) to the top of the lower sealing column (4).

2. The quick-sealing water-passing coupler according to claim 1, wherein: A circular convex edge (35) extends radially in the middle of the outer periphery of the lower water inlet sleeve (3). The lower part of the circular convex edge (35) abuts against the placement platform (8). A sealing ring (34) is arranged between the circular convex edge (35) and the placement platform (8). A groove (62) extends radially at the open lower part of the upper water inlet sleeve (6). The shape of the groove (62) matches that of the circular convex edge (35).

3. The quick-sealing water-passing coupler according to claim 1, wherein: An integral guide sleeve (51) is provided in the middle of the upper sealing column (5) and forms a sliding fit with the upper water inlet sleeve (6). The upper return spring (52) is provided on the upper sealing column (5) above the guide sleeve (51).

4. A quick-sealing water-passing coupler according to claim 1, characterized in that: The upper water flow channels (56) are uniformly arranged along the circumferential direction of the upper sealing column (5), and the lower water flow channels (45) are uniformly arranged along the circumferential direction of the lower sealing column (4). After the upper sealing column (5) and the lower sealing column (4) are joined, the upper water flow channels (56) and the lower water flow channels (45) are connected and communicated with each other.

5. The quick-sealing water-passing coupler according to claim 1, wherein: The upper part of the upper sealing column (5) has a two-stage stepped shaft structure, and the connection part is transitioned through an inclined surface (53).

6. The quick-sealing water-passing coupler according to claim 1, characterized in that: The outer diameter of the upper part of the lower water inlet sleeve (3) matches the inner diameter of the upper water inlet sleeve (6). Two groups of sealing rings I (36) are embedded and installed on the outer peripheral surface of the upper part of the lower water inlet sleeve (3) along the axial direction of the lower water inlet sleeve (3).

7. A quick-sealing water-passing coupler according to claim 1, characterized in that: The lower sealing column (4) has a conical structure with a gradually decreasing diameter from top to bottom.

8. A quick-sealing water-passing coupler according to claim 1, characterized in that: A circular convex edge I (41) extends radially at the upper end of the lower sealing column (4), and a lower return spring (42) is provided on the lower sealing column (4) below the circular convex edge I (41).

9. The quick-sealing water-passing coupler according to claim 1, wherein: The elastic force of the upper return spring (52) is greater than that of the lower return spring (42).

10. A tea bar machine, characterized in that: It includes the quick-sealing water-coupling device according to any one of claims 1-9.

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