Discharge structure and beverage manufacturing machine

Abstract

The utility model relates to a discharge structure and beverage manufacturing machine belong to beverage manufacturing field. A kind of discharge structure, comprising: material bucket subassembly, material bucket subassembly is equipped with stirring space;Discharge shell, discharge shell is set on material bucket subassembly, discharge shell is equipped with discharge space;Handle subassembly, handle subassembly is set on discharge shell, handle subassembly can rotate relative to discharge shell;Discharge subassembly, discharge subassembly is set on handle subassembly, handle subassembly can drive discharge subassembly reciprocating motion in discharge space, discharge subassembly can control discharge space and stirring space intercommunication or block;Sealing cover subassembly, sealing cover subassembly can be detachably set in discharge shell, sealing cover subassembly can open or close discharge space.The application discloses a discharge structure, sealing cover subassembly can close discharge space tightly, effectively block outside dust, impurity and enter, guarantee raw material cleanliness.

Description

Technical Field

[0001] This utility model relates to the field of beverage manufacturing, and in particular to a discharge structure and a beverage manufacturing machine. Background Technology

[0002] In existing technologies, beverage making machines lack a sealable discharge port design, which causes multiple problems: First, dust, hair, microorganisms, and other impurities from the external environment can easily enter the equipment through the unsealed discharge port, not only contaminating the raw materials and discharge channel but also posing a potential threat to the health of drinkers. Second, after dispensing, the beverage residue in the discharge port will be in contact with air for a long time, easily oxidizing, breeding bacteria, and spoiling, resulting in waste of raw materials and potentially affecting the quality of the next beverage preparation. In addition, the unsealed discharge port will cause the cold air inside the equipment to escape rapidly, making it impossible to maintain the low-temperature storage environment required for the raw materials, thereby damaging the freshness and taste of the raw materials and reducing the quality of beverage preparation. Utility Model Content

[0003] Therefore, it is necessary to address the problem that beverage making machines lack a sealable discharge port design and to provide a discharge structure and a beverage making machine.

[0004] A discharge structure includes: a material barrel assembly having a stirring space; a discharge shell disposed on the material barrel assembly having a discharge space; a handle assembly disposed on the discharge shell and rotatable relative to the discharge shell; a discharge component disposed on the handle assembly and capable of driving the discharge component to reciprocate within the discharge space, the discharge component controlling whether the discharge space is connected to or blocked from the stirring space; and a sealing cover assembly detachably mounted on the discharge shell and capable of opening or closing the discharge space.

[0005] The above discloses a discharge structure for a beverage manufacturing machine. The mixing space of the material tank assembly provides an independent cavity for mixing beverage raw materials, ensuring thorough mixing and preventing leakage. The discharge space of the discharge shell establishes a raw material conveying channel, laying the foundation for subsequent discharge. The linkage design between the handle assembly and the discharge assembly allows users to easily control the reciprocating motion of the discharge assembly by turning the handle, realizing the opening and closing of the mixing space and the discharge space. This is convenient to operate and allows for precise control of the discharge volume, avoiding raw material waste. The sealing cap assembly, as a key protective structure, offers multiple core advantages due to its detachable nature and opening / closing function: First, it can tightly close the discharge space before beverage preparation, effectively preventing external dust and impurities from entering and ensuring the cleanliness of the raw materials. Second, during preparation, it can prevent the raw materials in the mixing space from overflowing from the discharge port due to pressure or mixing, reducing raw material loss and equipment contamination. Third, after discharge, the discharge space can be quickly closed to prevent residual beverage from deteriorating due to prolonged contact with air, while also preventing odors from seeping back into the material tank, ensuring the pure taste of the next beverage preparation. In addition, the detachable design allows users to regularly disassemble and clean the sealing cover assembly, further improving the hygiene level of the equipment.

[0006] In one embodiment, the sealing cap assembly includes a sealing cap body and locking members. Multiple locking members are disposed on the sealing cap body and distributed circumferentially along the inner sidewall of the sealing cap body. The discharge housing has multiple locking spaces distributed circumferentially along the outer sidewall of the discharge housing. The sealing cap body is disposed on the discharge housing, and the multiple locking members correspond one-to-one with the multiple locking spaces. By using the sealing cap body as a basic protective component, the discharge port of the discharge housing can be tightly covered, initially blocking external contamination. The multiple locking members distributed circumferentially along the inner sidewall of the sealing cap body and corresponding one-to-one with the locking spaces on the outer sidewall of the discharge housing bring several advantages. First, it achieves uniform force distribution, avoiding leakage caused by local loosening in traditional seals, ensuring that raw materials do not spill out during preparation and that residual beverage does not come into contact with air after discharge, thus guaranteeing beverage quality. Second, it is easy to operate; users only need to align the locking parts with the locking space to complete sealing or disassembly without complicated tools, improving efficiency. Third, it enhances stability; the circumferentially distributed locking parts make the connection between the sealing cap body and the discharge shell more secure, maintaining a good seal even if the equipment vibrates during operation. At the same time, the detachable design facilitates regular and thorough cleaning.

[0007] In one embodiment, the discharge shell includes a shell body and protrusions. The shell body is disposed on the material barrel assembly. The shell body has multiple locking spaces distributed circumferentially along the outer side wall of the discharge shell. Multiple protrusions are disposed on the shell body and correspondingly positioned at the locking spaces. The sealing cap assembly is disposed on the shell body and abuts against the protrusions. By using the shell body as the core of the discharge shell, not only is smooth material transport achieved through the discharge spaces, but the multiple circumferentially distributed locking spaces also provide precise mating points for the locking components of the sealing cap assembly, laying a stable sealing foundation. Multiple protrusions are positioned on the main body of the outer casing, corresponding to the locking space. On one hand, when the sealing cover assembly is installed and locked, the protrusions abut against the assembly, providing clear tactile feedback. This allows users to intuitively judge whether the seal is properly tightened, preventing seal failure due to insufficient tightening or damage to components due to over-tightening. On the other hand, the raised structure of the protrusions increases the hand's leverage points during operation, improving the feel of gripping and rotating, making the installation and removal of the sealing cover assembly easier and smoother. Simultaneously, the protrusions also distribute locking pressure, reducing wear between the main body of the outer casing and the sealing cover assembly, extending the service life of the components.

[0008] In one embodiment, the outer shell body and the plurality of protrusions are integrally molded. By adopting an integral molding design for the outer shell body and the plurality of protrusions, the connection gaps and loosening risks that may exist in the assembly design are avoided, making the protrusions and the outer shell body form a solid whole. This allows them to withstand the pressure when the sealing cap assembly is tightened more stably, ensuring that the protrusions are not easily deformed or detached during long-term use, and guaranteeing the stable performance of the tactile feedback and positioning functions. Moreover, integral molding simplifies the production process, reduces the number of component assembly steps, reduces production errors and costs, and eliminates concerns about impurity accumulation caused by assembly gaps, making it easier to achieve food-grade cleaning standards.

[0009] In one embodiment, the outer shell and the material tank assembly are integrally formed. By adopting an integral molding design for the outer shell and the material tank assembly, any connection gaps that may exist during assembly are completely eliminated. This prevents raw materials or liquids in the stirring space from leaking through gaps during beverage preparation, reducing raw material loss and preventing leaked liquids from contaminating the inside of the equipment, thus reducing cleaning difficulty. Furthermore, it simplifies the equipment production process, reduces component assembly steps, lowers production errors and costs, and improves production efficiency. During use, there is no need to worry about the connection loosening due to long-term vibration; the structure is more stable, extending the equipment's service life.

[0010] In one embodiment, the discharge assembly includes a connecting rod assembly, a structural reinforcement, and a sealing assembly. The connecting rod assembly is mounted on the handle assembly, the structural reinforcement is mounted on the connecting rod assembly, and the sealing assembly is mounted on the connecting rod assembly and located within the discharge space. The handle assembly drives the connecting rod assembly to reciprocate the sealing assembly within the discharge space. The sealing assembly controls the connection or disconnection between the discharge space and the mixing space. By using the connecting rod assembly as the core transmission component, with one end connected to the handle assembly and the other end supporting the sealing assembly, the rotational power of the handle assembly can be precisely transmitted, driving the sealing assembly to reciprocate stably within the discharge space. This ensures that the user can easily control the connection and disconnection between the discharge space and the mixing space via the handle, achieving on-demand discharge and avoiding material waste. The structural reinforcement, added to the connecting rod assembly, effectively strengthens the load-bearing and deformation-resistant capabilities of the connecting rod assembly. Even under long-term pressure from the sealing assembly or impact from raw materials, it maintains transmission stability, preventing discharge jamming or sealing failure due to component deformation, and extending the component's service life. The sealing component located in the discharge space is a key sealing unit. When it moves with the connecting rod assembly, it can fit tightly against the inner wall of the discharge space. In the blocking state, it can completely isolate the mixing space from the outside world. Combined with the one-piece molding sealing advantage of the outer shell and the material barrel assembly, it provides double protection against material leakage and impurity intrusion. In the connected state, it can smoothly conduct material. Moreover, the flexible fitting design of the sealing component can reduce wear on the discharge space, balancing the sealing effect and component durability.

[0011] In one embodiment, the connecting rod assembly includes a connector and a movable rod. The connector has a connecting space and is disposed on the handle assembly. The portion of the handle assembly connected to the connector is located in the connecting space. The movable rod is disposed on the connector, and the structural reinforcement and the sealing assembly are sequentially disposed on the movable rod. By utilizing the connecting space of the connector, the connecting portion of the handle assembly can be completely enclosed, forming a nested connection structure. This design significantly increases the contact area between the two components, effectively dispersing the force during the rotation of the handle assembly, avoiding loosening or wear caused by excessive local stress, ensuring more stable power transmission, and allowing the user to more accurately drive the movement of subsequent components when operating the handle. The movable rod serves as the mounting carrier for the structural reinforcement and the sealing assembly, making the assembly positions of each component more precise and regular. On the one hand, this orderly assembly avoids interference between components, ensuring that the structural reinforcement can stably strengthen the movable rod's resistance to deformation and prevent it from bending during reciprocating motion; on the other hand, the sealing assembly can closely fit the movable rod and move smoothly with it in the discharge space, ensuring a sealing effect when blocking.

[0012] In one embodiment, the sealing assembly includes a first seal and a second seal. The first seal is disposed on the connecting rod assembly, and the second seal is disposed on the connecting rod assembly and adjacent to the first seal. The second seal is located in the discharge space, and the output port of the stirring space is located between the first seal and the second seal. The second seal can control the connection or blockage between the discharge space and the stirring space. Through the adjacent arrangement and precise positioning of the first and second seals, a dual-protection sealing system is constructed. Combined with the stable transmission of the connecting rod assembly, the sealing reliability and operational safety of the beverage maker's discharge structure are significantly improved, providing crucial assurance for beverage quality. The output port of the stirring space is located between the first and second seals. This clamp-like design forms multi-dimensional protection: as the core control unit, the second seal, when reciprocating with the connecting rod assembly in the discharge space, can directly and precisely control the connection and disconnection between the stirring space output port and the discharge space. When closed, it tightly seals the output port to prevent raw material leakage; when open, it smoothly conducts raw materials, ensuring discharge efficiency. The first seal has a dual function. On the one hand, it can fit tightly against the inner wall of the discharge space, effectively preventing external dust and impurities from entering the discharge space and even the mixing space from the outside of the equipment, thus avoiding contamination of the raw materials. It is especially suitable for the preparation of beverages that are easily contaminated, such as fruit juice and dairy products. On the other hand, if the beverage maker has a refrigeration function, the first seal can reduce the leakage of cold air from the mixing space and the discharge space, maintain the low temperature environment of the raw materials, ensure the taste and freshness of refrigerated beverages, and reduce energy consumption.

[0013] In one embodiment, the handle assembly includes a handle body and a drive assembly. The drive assembly is disposed on the handle body and the discharge housing. The handle body can drive the drive assembly to rotate relative to the discharge housing. The discharge assembly is disposed on the drive assembly, and the drive assembly can drive the discharge assembly to reciprocate within the discharge space. By using the handle body as the directly operated component, its ergonomic design facilitates gripping and force application. Users can easily drive the drive assembly to rotate relative to the discharge housing, lowering the operational threshold. The drive assembly connects to the discharge housing for stable support and also supports the discharge assembly. It can precisely convert the rotation of the handle body into the reciprocating motion of the discharge assembly, avoiding power transmission losses and ensuring that the sealing assembly can accurately control the discharge flow. Combined with the reliability of the double seal, it achieves efficient linkage between operation, material control, and sealing.

[0014] In one embodiment, the drive assembly includes a drive body and a rotating shaft. The drive body is disposed on the handle body, and the rotating shaft passes through the drive body and is disposed on the discharge housing. The discharge assembly is disposed on the drive body, and the drive body can drive the discharge assembly to reciprocate within the discharge space. By using the drive body as the core connecting component, with one end fixed to the handle body and the other end supporting the discharge assembly, the operating force of the handle body can be efficiently received and converted into the power to drive the discharge assembly, achieving direct linkage between handle operation and discharge control, avoiding deviations in the power transmission process. The rotating shaft passing through the drive body, through its fixed connection with the discharge housing, provides a stable rotation fulcrum for the drive body, ensuring that when the drive body drives the discharge assembly, it always rotates along a fixed trajectory, avoiding increased friction between the discharge assembly and the inner wall of the discharge space due to shaking, or misalignment of the sealing assembly.

[0015] The second aspect of this application discloses a beverage manufacturing machine, which includes: the above-mentioned discharge structure; and a beverage manufacturing machine body, wherein the discharge structure is disposed on the beverage manufacturing machine body.

[0016] The second aspect disclosed above discloses a beverage manufacturing machine. The integrated molding design of the material barrel component and the outer shell body in the discharge structure can be precisely connected with the raw material storage and stirring system of the manufacturing machine body, avoiding raw material leakage or cold air loss caused by assembly gaps between components, thus ensuring the freshness and taste of refrigerated beverages. The refined design of the handle component and drive component can be adapted to the layout of the main body's operating interface, allowing users to control the precise opening and closing of the discharge component by easily turning the handle component, with the help of the stable transmission between the drive body and the rotating shaft. Combined with the double protection of the sealing component and the locking and dustproofing of the sealing cap component, it effectively prevents the intrusion of external impurities and ensures the cleanliness of the raw materials. Attached Figure Description

[0017] Figure 1 This is the first three-dimensional view of the discharge structure;

[0018] Figure 2 This is a second perspective view of the discharge structure;

[0019] Figure 3 This is an exploded view of the discharge structure;

[0020] Figure 4 A first perspective view of the material hopper assembly and the discharge casing;

[0021] Figure 5 A second perspective view of the material hopper assembly and the discharge casing;

[0022] Figure 6 for Figure 5 A magnified view of a portion of region A;

[0023] Figure 7 A perspective view of the handle assembly and the discharge assembly;

[0024] Figure 8 A 3D view of the handle assembly;

[0025] Figure 9 This is a first perspective view of the material discharge assembly;

[0026] Figure 10 This is a second perspective view of the discharge assembly;

[0027] Figure 11 A perspective view of the sealing cap assembly;

[0028] Figure 12 A 3D view of a beverage making machine.

[0029] The correspondence between the reference numerals and the component names is as follows:

[0030] 1 material tank assembly, 101 mixing space;

[0031] 2. Discharge shell, 21. Shell body, 22. Protrusion, 201. Discharge space, 202. Locking space;

[0032] 3. Handle assembly, 31. Handle body, 32. Drive assembly, 321. Drive body, 322. Rotary shaft;

[0033] 4. Discharge assembly, 41. Connecting rod assembly, 411. Connector, 412. Movable rod, 42. Structural reinforcement, 43. Sealing assembly, 431. First seal, 432. Second seal, 401. Connecting space;

[0034] 5. Sealing cap assembly, 51. Sealing cap body, 52. Locking element. Detailed Implementation

[0035] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0036] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.

[0037] The following describes, with reference to the accompanying drawings, some embodiments of the present invention, the discharge structure and beverage manufacturing machine.

[0038] Example 1

[0039] like Figures 1 to 11 As shown, this embodiment discloses a discharge structure, including: a material bucket assembly 1, which has a stirring space 101; a discharge shell 2, which is disposed on the material bucket assembly 1 and has a discharge space 201; a handle assembly 3, which is disposed on the discharge shell 2 and can rotate relative to the discharge shell 2; a discharge assembly 4, which is disposed on the handle assembly 3 and can drive the discharge assembly 4 to reciprocate in the discharge space 201, and can control the discharge space 201 to communicate with or block the stirring space 101; and a sealing cover assembly 5, which is detachably disposed on the discharge shell 2 and can open or close the discharge space 201.

[0040] This application discloses a discharge structure for a beverage manufacturing machine. The mixing space 101 of the material tank assembly 1 provides an independent cavity for mixing beverage raw materials, ensuring thorough mixing and preventing leakage. The discharge space 201 of the discharge shell 2 establishes a raw material conveying channel, laying the foundation for subsequent discharge. The linkage design between the handle assembly 3 and the discharge assembly 4 allows the user to easily control the reciprocating motion of the discharge assembly 4 by turning the handle, realizing the opening and closing of the mixing space 101 and the discharge space 201. This is convenient to operate and allows for precise control of the discharge amount, avoiding raw material waste. The sealing cap assembly 5, as a key protective structure, offers several core advantages due to its detachable design and opening / closing function: First, it tightly closes the discharge space 201 before beverage preparation, effectively preventing external dust and impurities from entering and ensuring the cleanliness of the raw materials. Second, during preparation, it prevents the raw materials in the stirring space 101 from overflowing from the discharge port due to pressure or stirring, reducing raw material loss and equipment contamination. Third, after discharging, it quickly closes the discharge space 201, preventing residual beverage from deteriorating due to prolonged contact with air, while also preventing odors from seeping back into the container, ensuring the pure taste of the next batch of beverage. Furthermore, the detachable design allows users to regularly disassemble and clean the sealing cap assembly 5, further improving the hygiene of the equipment.

[0041] like Figure 5 , Figure 6 and Figure 11As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the sealing cover assembly 5 includes a sealing cover body 51 and locking members 52. The number of locking members 52 is multiple, and the multiple locking members 52 are disposed on the sealing cover body 51, distributed circumferentially along the inner sidewall of the sealing cover body 51. The discharge housing 2 is provided with locking spaces 202, and the number of locking spaces 202 is multiple, distributed circumferentially along the outer sidewall of the discharge housing 2. The sealing cover body 51 is disposed on the discharge housing 2, and the multiple locking members 52 correspond one-to-one with the multiple locking spaces 202. By using the sealing cover body 51 as a basic protective component, the discharge port of the discharge housing 2 can be tightly covered, initially blocking external contamination. The multiple locking members 52, distributed circumferentially along the inner sidewall of the sealing cover body 51, corresponding one-to-one with the locking spaces 202 on the outer sidewall of the discharge housing 2, bring several advantages. First, it achieves uniform force distribution, avoiding leakage caused by local loosening in traditional seals, ensuring that raw materials do not overflow during preparation and that residual beverage does not come into contact with air after discharge, thus guaranteeing beverage quality. Second, it is easy to operate; users only need to align the locking element 52 with the locking space 202 to complete sealing or disassembly without complicated tools, improving efficiency. Third, it enhances stability; the circumferentially distributed locking element 52 makes the connection between the sealing cover body 51 and the discharge shell 2 more secure, maintaining a good seal even if the equipment vibrates during operation. At the same time, the detachable design facilitates regular and thorough cleaning.

[0042] like Figure 5 and Figure 6As shown, in addition to the features of the above embodiments, this embodiment further defines: the discharge shell 2 includes a shell body 21 and protrusions 22. The shell body 21 is disposed on the material barrel assembly 1. The shell body 21 has locking spaces 202, and there are multiple locking spaces 202 distributed circumferentially along the outer side wall of the discharge shell 2. There are also multiple protrusions 22, which are disposed on the shell body 21 and placed one-to-one with each of the multiple locking spaces 202. The sealing cover assembly 5 is disposed on the shell body 21 and abuts against the multiple protrusions 22. By using the shell body 21 as the core of the discharge shell, not only is the smooth conveying of raw materials achieved through the discharge space 201, but the multiple circumferentially distributed locking spaces 202 also provide precise mating points for the locking parts 52 of the sealing cover assembly 5, laying a stable sealing foundation. Multiple protrusions 22, corresponding to the locking space 202, are positioned on the outer casing 21. On one hand, when the sealing cover assembly 5 is installed and locked, the protrusions 22 abut against the sealing cover assembly 5, generating clear tactile feedback. This allows the user to intuitively judge whether the seal is properly tightened, preventing insufficient tightening leading to sealing failure or over-tightening causing component damage. On the other hand, the raised structure of the protrusions 22 increases the hand's leverage points during operation, improving the feel of gripping and rotating, making the installation and removal of the sealing cover assembly 5 easier and smoother. Simultaneously, the protrusions 22 can also distribute locking pressure, reducing wear on the outer casing 21 and the sealing cover assembly 5, and extending the component's service life.

[0043] like Figure 6 As shown, in addition to the features of the above embodiments, this embodiment further specifies that the outer shell body 21 and the plurality of protrusions 22 are integrally molded. By adopting an integral molding design for the outer shell body 21 and the plurality of protrusions 22, the connection gaps and loosening risks that may exist in the assembly design are avoided, so that the protrusions 22 and the outer shell body 21 form a solid whole, which can more stably withstand the pressure when the sealing cover assembly 5 is locked, ensuring that the protrusions 22 are not easily deformed or detached during long-term use, and ensuring the stable performance of the tactile feedback and positioning functions. Moreover, integral molding can simplify the production process, reduce the number of parts assembly steps, reduce production errors and costs, and at the same time, there is no need to worry about the accumulation of impurities caused by assembly gaps, making it easier to achieve food-grade cleaning standards.

[0044] like Figure 5As shown, in addition to the features of the above embodiments, this embodiment further specifies that the outer shell body 21 and the material tank assembly 1 are integrally molded. By adopting an integral molding design for the outer shell body 21 and the material tank assembly 1, the connection gaps that may exist during their assembly are completely eliminated, preventing raw materials or liquids in the stirring space 101 from leaking through the gaps during beverage preparation, reducing raw material loss, and preventing leaked liquids from contaminating the inside of the equipment, thus reducing cleaning difficulty. Moreover, it simplifies the equipment production process, reduces component assembly steps, reduces production errors and costs, and improves production efficiency. During use, there is no need to worry about the connection between the two parts loosening due to long-term vibration, resulting in stronger structural stability and extended equipment lifespan.

[0045] like Figure 2 , Figure 4 , Figure 7 , Figure 9 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further defines: the discharge assembly 4 includes a connecting rod assembly 41, a structural reinforcement 42, and a sealing assembly 43. The connecting rod assembly 41 is disposed on the handle assembly 3, the structural reinforcement 42 is disposed on the connecting rod assembly 41, and the sealing assembly 43 is disposed on the connecting rod assembly 41 and located in the discharge space 201. The handle assembly 3 can drive the connecting rod assembly 41 to drive the sealing assembly 43 to reciprocate in the discharge space 201. The sealing assembly 43 can control the connection or disconnection between the discharge space 201 and the stirring space 101. By using the connecting rod assembly 41 as the core transmission component, with one end connected to the handle assembly 3 and the other end carrying the sealing assembly 43, the rotational power of the handle assembly 3 can be accurately transmitted, driving the sealing assembly 43 to reciprocate stably in the discharge space 201. This ensures that the user can easily control the connection and disconnection between the discharge space 201 and the stirring space 101 by operating the handle, achieving on-demand discharge and avoiding material waste. The structural reinforcement component 42 is installed on the connecting rod assembly 41, effectively strengthening the load-bearing and deformation resistance of the connecting rod assembly 41. Even under long-term pressure from the sealing component 43 or impact from raw materials, it can still maintain transmission stability, avoiding discharge jamming or sealing failure caused by component deformation, and extending the service life of the component. The sealing component 43, located in the discharge space 201, is a key sealing unit. When it moves with the connecting rod assembly 41, it can fit tightly against the inner wall of the discharge space 201. In the blocking state, it can completely isolate the mixing space 101 from the outside world. Combined with the one-piece molding sealing advantage of the outer shell and the material barrel assembly, it provides double protection against raw material leakage and impurity intrusion. In the connected state, it can smoothly conduct raw materials. Moreover, the flexible fitting design of the sealing component 43 can reduce wear on the discharge space 201, balancing sealing effect and component durability.

[0046] like Figure 9 and Figure 10As shown, in addition to the features of the above embodiments, this embodiment further defines: the connecting rod assembly 41 includes a connector 411 and a movable rod 412. The connector 411 has a connecting space 401 and is disposed on the handle assembly 3. The part of the handle assembly 3 connected to the connector 411 is located at the connecting space 401. The movable rod 412 is disposed on the connector 411, and the structural reinforcement 42 and the sealing assembly 43 are sequentially disposed on the movable rod 412. By utilizing the connecting space 401 of the connector 411, the connecting part of the handle assembly 3 can be completely wrapped to form a nested connection structure. This design significantly increases the contact area between the two, effectively dispersing the force when the handle assembly 3 rotates, avoiding loosening or wear caused by excessive local force, ensuring more stable power transmission, and allowing the user to more accurately drive the movement of subsequent components when operating the handle. The movable rod 412 serves as the mounting carrier for the structural reinforcement 42 and the sealing assembly 43, making the assembly position of each component more precise and regular. On the one hand, this orderly assembly can avoid interference between components, ensuring that the structural reinforcement 42 can stably strengthen the deformation resistance of the movable rod 412 and prevent it from bending during reciprocating motion; on the other hand, the sealing assembly 43 can fit tightly against the movable rod 412 and move smoothly with it in the discharge space 201, ensuring the sealing effect when blocked.

[0047] like Figure 2 , Figure 9 and Figure 10As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the sealing assembly 43 includes a first sealing element 431 and a second sealing element 432. The first sealing element 431 is disposed on the connecting rod assembly 41, and the second sealing element 432 is disposed on the connecting rod assembly 41 and adjacent to the first sealing element 431. The second sealing element 432 is located in the discharge space 201, and the output port of the stirring space 101 is located between the first sealing element 431 and the second sealing element 432. The second sealing element 432 can control the connection or blockage between the discharge space 201 and the stirring space 101. Through the adjacent arrangement and precise positioning of the first sealing element 431 and the second sealing element 432, a double-protection sealing system is constructed. Combined with the stable transmission of the connecting rod assembly 41, the sealing reliability and safety of the beverage manufacturing machine's discharge structure are greatly improved, providing key assurance for beverage quality. The output port of the mixing space 101 is located between the first seal 431 and the second seal 432. This clamping design provides multi-dimensional protection: the second seal 432, as the core control unit, can directly and precisely control the opening and closing of the output port of the mixing space 101 and the discharge space 201 when it reciprocates with the connecting rod assembly 41 in the discharge space 201. When closed, it tightly seals the output port to prevent raw material leakage; when open, it smoothly conducts raw materials to ensure discharge efficiency. The first seal 431 has a dual function. On the one hand, it can fit tightly against the inner wall of the discharge space 201, effectively blocking external dust and impurities from entering the discharge space 201 and even the mixing space 101 from the outside of the equipment, avoiding contamination of raw materials, especially suitable for the preparation of beverages such as juice and dairy products that are easily contaminated; on the other hand, if the beverage maker has a refrigeration function, the first seal 431 can reduce the leakage of cold air from the mixing space 101 and the discharge space 201, maintain the low temperature environment of the raw materials, ensure the taste and freshness of refrigerated beverages, and reduce energy consumption.

[0048] like Figure 3 , Figure 7 and Figure 8As shown, in addition to the features of the above embodiments, this embodiment further defines: the handle assembly 3 includes a handle body 31 and a drive assembly 32. The drive assembly 32 is disposed on the handle body 31 and the discharge housing 2. The handle body 31 can drive the drive assembly 32 to rotate relative to the discharge housing 2. The discharge assembly 4 is disposed on the drive assembly 32, and the drive assembly 32 can drive the discharge assembly 4 to reciprocate in the discharge space 201. By using the handle body 31 as the user's direct operating component, its ergonomic design facilitates gripping and force application. The user can easily drive the drive assembly 32 to rotate relative to the discharge housing 2, reducing the operating threshold. The drive assembly 32 connects to the discharge housing 2 on one hand to provide stable support, and on the other hand, carries the discharge assembly 4. It can accurately convert the rotation of the handle body 31 into the reciprocating motion of the discharge assembly 4, avoiding power transmission loss and ensuring that the sealing assembly 43 can accurately control the discharge opening and closing. Combined with the reliability of the double seal, it achieves efficient linkage of operation, material control, and sealing.

[0049] like Figure 3 , Figure 7 and Figure 8 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the drive assembly 32 includes a drive body 321 and a rotating shaft 322. The drive body 321 is disposed on the handle body 31, and the rotating shaft 322 passes through the drive body 321 and is disposed on the discharge housing 2. The discharge assembly 4 is disposed on the drive body 321, and the drive body 321 can drive the discharge assembly 4 to reciprocate in the discharge space 201. By using the drive body 321 as the core connecting component, with one end fixed to the handle body 31 and the other end bearing the discharge assembly 4, the operating force of the handle body 31 can be efficiently received and converted into the power to drive the discharge assembly 4, realizing direct linkage between handle operation and discharge control, and avoiding deviations in the power transmission process. The rotating shaft 322, which passes through the drive body 321, provides a stable rotation fulcrum for the drive body 321 through a fixed connection with the discharge housing 2. This ensures that when the drive body 321 drives the discharge assembly 4, it always rotates along a fixed trajectory, avoiding increased friction between the discharge assembly 4 and the inner wall of the discharge space 201 due to shaking, or misalignment of the sealing assembly 43.

[0050] Example 2

[0051] like Figures 1 to 12 As shown, this embodiment discloses a beverage making machine, including: the above-mentioned discharge structure; a beverage making machine body, wherein the discharge structure is disposed on the beverage making machine body.

[0052] The second aspect of this application discloses a beverage manufacturing machine. The material barrel assembly 1 and the outer shell body 21 are integrally molded in the discharge structure, which can be precisely connected with the raw material storage and stirring system of the manufacturing machine body to avoid raw material leakage or cold air loss caused by assembly gaps between components, thus ensuring the freshness and taste of refrigerated beverages. The refined design of the handle assembly 3 and the drive assembly 32 can be adapted to the layout of the main body's operating interface, allowing users to control the precise opening and closing of the discharge assembly 4 by easily rotating the handle assembly 3, with the help of the stable transmission of the drive body 321 and the rotating shaft 322. With the double protection of the sealing assembly 43 and the locking and dustproofing of the sealing cap assembly 5, external impurities are effectively blocked from entering, ensuring the cleanliness of the raw materials.

[0053] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0054] The embodiments described above are merely illustrative of several implementations of this utility model, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.

Claims

1. A discharge structure, characterized in that, The discharge structure includes: A material tank assembly (1) is provided with a stirring space (101); The discharge shell (2) is disposed on the material barrel assembly (1) and the discharge shell (2) is provided with a discharge space (201); A handle assembly (3) is disposed on the discharge housing (2) and is rotatable relative to the discharge housing (2); The discharge component (4) is disposed on the handle component (3). The handle component (3) can drive the discharge component (4) to reciprocate in the discharge space (201). The discharge component (4) can control the connection or blockage between the discharge space (201) and the stirring space (101). A sealing cover assembly (5) is detachably mounted on the discharge housing (2) and can open or close the discharge space (201).

2. The discharge structure according to claim 1, characterized in that, The sealing cap assembly (5) includes a sealing cap body (51) and locking members (52). There are multiple locking members (52), which are disposed on the sealing cap body (51) and distributed circumferentially along the inner sidewall of the sealing cap body (51). The discharge shell (2) is provided with locking spaces (202), which are also multiple and distributed circumferentially along the outer sidewall of the discharge shell (2). The sealing cap body (51) is disposed on the discharge shell (2), and the multiple locking members (52) correspond to and cooperate with the multiple locking spaces (202).

3. The discharge structure according to claim 1, characterized in that, The discharge shell (2) includes a shell body (21) and protrusions (22). The shell body (21) is disposed on the material bucket assembly (1). The shell body (21) is provided with locking spaces (202). There are multiple locking spaces (202). The multiple locking spaces (202) are distributed circumferentially along the outer side wall of the discharge shell (2). There are multiple protrusions (22). The multiple protrusions (22) are disposed on the shell body (21) and are placed one-to-one with the multiple locking spaces (202). The sealing cover assembly (5) is disposed on the shell body (21) and abuts against the multiple protrusions (22).

4. The discharge structure according to claim 3, characterized in that, The outer shell body (21) and the plurality of protrusions (22) are integrally formed; And / or the outer shell body (21) is integrally formed with the material bucket assembly (1).

5. The discharge structure according to claim 1, characterized in that, The discharge assembly (4) includes a connecting rod assembly (41), a structural reinforcement (42), and a sealing assembly (43). The connecting rod assembly (41) is disposed on the handle assembly (3), the structural reinforcement (42) is disposed on the connecting rod assembly (41), and the sealing assembly (43) is disposed on the connecting rod assembly (41) and located in the discharge space (201). The handle assembly (3) can drive the connecting rod assembly (41) to drive the sealing assembly (43) to reciprocate in the discharge space (201). The sealing assembly (43) can control the connection or blockage between the discharge space (201) and the stirring space (101).

6. The discharge structure according to claim 5, characterized in that, The connecting rod assembly (41) includes a connector (411) and a movable rod (412). The connector (411) has a connection space (401). The connector (411) is disposed on the handle assembly (3). The part of the handle assembly (3) connected to the connector (411) is located at the connection space (401). The movable rod (412) is disposed on the connector (411). The structural reinforcement (42) and the sealing assembly (43) are disposed sequentially on the movable rod (412).

7. The discharge structure according to claim 5, characterized in that, The sealing assembly (43) includes a first sealing element (431) and a second sealing element (432). The first sealing element (431) is disposed on the connecting rod assembly (41), and the second sealing element (432) is disposed on the connecting rod assembly (41) and adjacent to the first sealing element (431). The second sealing element (432) is located in the discharge space (201), and the outlet of the stirring space (101) is located between the first sealing element (431) and the second sealing element (432). The second sealing element (432) can control the connection or blockage between the discharge space (201) and the stirring space (101).

8. The discharge structure according to claim 1, characterized in that, The handle assembly (3) includes a handle body (31) and a drive assembly (32). The drive assembly (32) is disposed on the handle body (31) and the discharge housing (2). The handle body (31) can drive the drive assembly (32) to rotate relative to the discharge housing (2). The discharge assembly (4) is disposed on the drive assembly (32). The drive assembly (32) can drive the discharge assembly (4) to reciprocate in the discharge space (201).

9. The discharge structure according to claim 8, characterized in that, The drive assembly (32) includes a drive body (321) and a rotating shaft (322). The drive body (321) is disposed on the handle body (31), and the rotating shaft (322) passes through the drive body (321). The rotating shaft (322) is disposed on the discharge housing (2), and the discharge assembly (4) is disposed on the drive body (321). The drive body (321) can drive the discharge assembly (4) to reciprocate in the discharge space (201).

10. A beverage making machine, characterized in that, The beverage making machine includes: The discharge structure according to any one of claims 1 to 9; The beverage making machine body, wherein the discharge structure is disposed on the beverage making machine body.

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